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Fernando Ferreira, Joseph Gyourko, and Joseph Tracy

Housing Busts and
Household Mobility:
An Update
• The relationship between household mobility
and financial frictions, especially those
associated with negative home equity, has
attracted greater attention following the recent
volatility in the U.S. housing markets.
• The decline in mortgage rates, along with policy
interventions to encourage historically low-rate
refinancing, likewise recommend a closer look at
mortgage interest rate lock-in effects, which are
apt to become important once Federal Reserve
interest rate policy normalizes.
• This article updates estimates in a 2010 study
by the authors of the impact of three financial
frictions—negative equity, mortgage interest
rate lock-in, and property tax lock-in—on
household mobility. The addition of 2009
American Housing Survey data to their sample
allows the authors to incorporate the effect of
more recent house price declines.
• The new study’s findings corroborate the 2010
results: Negative home equity reduces
household mobility by 30 percent, and $1,000
of additional mortgage or property tax costs
lowers it by 10 to 16 percent.
Fernando Ferreira is an associate professor in the Department of Real Estate and
Department of Business Economics and Public Policy and Joseph Gyourko is the
Martin Bucksbaum Professor of Real Estate at the University of Pennsylvania’s
Wharton School; Joseph Tracy is an executive vice president and senior
advisor to the Bank President at the Federal Reserve Bank of New York.
Correspondence: joseph.tracy@ny.frb.org

1. Introduction

A

long literature on housing economics has noted that a
rise in mortgage rates could “lock-in” an owner to his or
her current house, thereby slowing or preventing a permanent
move to a new residence if mortgage interest rates rise
sufficiently to make the new debt service payment unaffordable
(see, for example, Quigley [1987, 2002]). Other financial
frictions—such as the one arising from California’s
Proposition 13 property tax rules, which essentially imply an
often large increase in property taxes after a move—would
have similar effects on household mobility (Ferreira 2010).
Negative equity, by which we mean the current value of the
house is less than the outstanding mortgage balance, could also
reduce mobility if the owner lacks sufficient liquidity to pay off
the full loan balance, which is required for a permanent move
and sale of the property if the borrower is to avoid the cost of a
default (Stein 1995; Chan 2001; Engelhardt 2003).
These three potential financial frictions are all associated
with the sale of the house, so there is a transfer of economic
ownership, not just a change of residence. Thus, the type of
household mobility that may be impacted by these frictions
involves permanent moves in which both physical location and
economic ownership change for the previous owner. The
housing literature on financial frictions does not have clear
implications for temporary moves in which the owner leaves
the house for a period of time—perhaps to rent it out—and

The authors appreciate the helpful comments of Anthony DeFusco, Andrew
Haughwout, and the referees. Fernando Ferreira and Joseph Gyourko also
thank the Research Sponsor Program of the Zell-Lurie Real Estate Center at
Wharton for financial support. The views expressed are those of the authors
and do not necessarily reflect the position of the Federal Reserve Bank of
New York or the Federal Reserve System.
FRBNY Economic Policy Review / November 2012

1

returns at a later date. Overall, mobility reflects permanent and
temporary moves, but the appropriate mobility measure
depends on the question being addressed. Given our focus on
the impact of financial frictions on homeownership
transitions, our preferred measure in the analytics reported
below reflects only permanent moves as best as possible.
Interest in the relationship between homeowner mobility
and financial frictions, especially frictions associated with
negative home equity, was piqued for researchers and
policymakers by the recent extraordinary boom and bust in
U.S. housing markets. With house prices falling 30 percent
nationally, the prevalence of negative equity greatly expanded
across many markets. More recently, the sharp fall in mortgage

Interest in the relationship between
homeowner mobility and financial
frictions, especially frictions associated
with negative home equity, was piqued
for researchers and policymakers by the
recent extraordinary boom and bust
in U.S. housing markets.

interest rates and the various policy interventions to encourage
refinancing at historically low rates suggest that we also need to
update our knowledge of the impact of mortgage interest rate
lock-in effects, as they seem likely to become important after
Federal Reserve interest rate policy normalizes.
Because the studies cited above were dated or based on
samples from specific geographic regions or population
subgroups, our first paper (Ferreira, Gyourko, and Tracy 2010)
used the U.S. Census Bureau’s American Housing Survey
(AHS) panel from 1985-2007 to provide new and more general
estimates for the nation that include all three forms of financial
frictions in the same econometric specification. Our paper’s
three primary results were: 1) owners with negative equity were
one-third less likely to move than otherwise observationally
equivalent owners without negative equity; 2) for every
additional $1,000 in mortgage debt service costs, mobility was
about 12 percent lower; and 3) similar increases in property tax
costs from Proposition 13 in California also reduced mobility
by about 12 percent.
This article updates our previous work in two important
ways. It adds data from the most recent AHS for 2009,
providing the first evidence from the beginning of the bust in
home prices in many markets. It also addresses Schulhofer-

2

Housing Busts and Household Mobility: An Update

Wohl’s (2011) criticism of our sample selection procedures
used in Ferreira, Gyourko, and Tracy (2010). We demonstrate
that those selection procedures are appropriate for studying the
effect of negative equity (and the other financial frictions
noted) on permanent moves. This update also documents that
our previous findings are robust to the inclusion of new data
and new measures of permanent mobility, which we discuss
more fully below.
Our research is related to an emerging, and potentially very
important, literature on labor economics investigating whether
reduced mobility among homeowners is impairing adjustment
in the labor market that might prevent the unemployment rate
from falling as much as it would otherwise (see, for example,
Aaronson and Davis [2011], Bricker and Bucks [2011],
Donovan and Schnure [2011], Modestino and Dennet [2012],
Molloy, Smith, and Woznak [2011], and Valletta [2010]).
Because we focus solely on how mobility impacts homeowners,
our results do not directly address potential spillovers into the
labor market. However, our finding of a large impact of
negative equity on owner mobility is consistent with the
preliminary conclusion of the labor literature: There are little
or no significant impacts on the unemployment rate. As we
discuss, most moves are within a labor market area, so there
can be a significant decline in such moves with no effect on
access to job opportunities in that area.
Much work is needed to more fully understand the linkages
between housing and labor markets on this issue. For example,
the likelihood that labor markets deteriorate along with
housing markets raises the possibility that owners with negative
equity are not moving in part because good job opportunities
do not exist. Distinguishing between these two potential causes
of reduced mobility requires expanding one’s theoretical and
empirical horizons to better control for labor market
conditions, and that is the direction in which we urge future
research on this topic to turn.
Finally, reduced homeowner mobility due to financial
frictions has economic and social effects beyond its possible
ramifications for labor markets. For example, locked-in owners
are more likely to be mismatched relative to their desired
housing units and local public service bundle (such as school
systems and the like). The utility loss just from this mismatch
could be significant. Whether owners with negative equity even
act like true owners and provide the positive social externalities
alleged for homeownership is unknown. Economically, these
owner-occupants are “renters.” Moreover, immobility
associated with any type of friction could alter the nature of any
housing recovery by shrinking the potential trade-up market.
All of these issues require further study, because the evidence
suggests that negative equity in particular is associated with
much lower mobility, and we suspect that mortgage interest

rate lock-in will become more important in a future recovery.
The starting point for that conclusion is a set of robust
estimates of mobility effects attributable to financial frictions.
It is to that analysis that we now turn.

2. Financial Frictions and
Homeowner Mobility:
A Brief Review
High transaction costs of buying and selling a home provide an
incentive for people to extend their stay in the house in order
to amortize these costs over a longer holding period.
Additional financial frictions can arise that exacerbate this
effect. For example, Quigley (1987) examines the financial
friction from fixed-rate mortgages in an environment of rising
mortgage rates. Ferreira (2010) and Wasi and White (2005)
study the impact of financial frictions arising from restrictions
on the rate of property tax increases in California under
Proposition 13. A third financial friction is created when house
prices decline sufficiently to push borrowers into negative
equity. Chan (2001) and Engelhardt (2003) study the impact of
negative equity on household mobility.
In Ferreira, Gyourko, and Tracy (2010), we estimate the
impact of all three of these financial frictions on household
mobility using a consistent empirical methodology and data

High transaction costs of buying and selling
a home provide an incentive for people to
extend their stay in the house in order to
amortize these costs over a longer holding
period. Additional financial frictions can
arise that exacerbate this effect.
that span the 1985-2007 period. It is important to keep in
mind that each of these frictions applies to the sale of the
house, not just to whether the owner continues to live there.
Hence, we were interested in how these financial frictions
impact permanent moves that require the house to be sold.
The AHS data are well suited to address this issue. The
data follow a panel of residences through time rather than a
panel of households. They contain information sufficient
for measuring each of the three financial frictions as well as
other determinants of mobility. A limitation of these data,

however, is that when an owner sells a house and relocates, we
do not know where he or she moves to or the primary motive
for the move.
Recall that Ferreira, Gyourko, and Tracy (2010) estimate
large impacts of financial frictions on the permanent mobility
of homeowners using the AHS panel. Subsequently,
Schulhofer-Wohl (2011) uses our data and estimation code,
but expands the definition of a move beyond clearly permanent
ones to include any change in residence between adjacent
American Housing Surveys. Schulhofer-Wohl is correct in
observing that we underreported overall mobility by censoring
these transitions. However, that decision was made by design in
order to distinguish between permanent and temporary moves,
as the underlying theory from earlier research implies that it is
only with respect to permanent moves that these potential
financial frictions should lead to lower mobility. A temporary
move reflects a situation in which an owner-occupied residence
is reported as vacant or rented for one or more surveys, with
the original owner subsequently returning to the residence.
These moves can occur because a homeowner in fact vacates his
or her home temporarily or because vacancy status is
misreported in the AHS data. Economic ownership does not
change in such cases, so the costs associated with the frictions
have not yet been incurred.
Nevertheless, Schulhofer-Wohl’s (2011) critique led us to
develop an improved measure that better exploits the panel
structure of the AHS to distinguish between the two types of
moves. This raises our reported mobility rates substantially,
by more than 25 percent, but it does not materially affect
our findings, as reported in Section 3. We do not adopt
Schulhofer-Wohl’s strategy of counting all transitions from
ownership to rental or vacancy status as permanent moves
because it dramatically overstates their number. His finding
of a zero or a slight positive correlation between homeowner
mobility and negative equity is likely due largely to
conflating temporary and permanent moves.1 We show
below that over the 1985-99 period in the AHS data, more
than 20 percent of Schulhofer-Wohl’s moves are temporary
in nature, which makes his measure problematic for use in
research on lock-in effects. These temporary moves
correspond to approximately 50 percent of the additional
moves that Schulhofer-Wohl tallied in excess of our new,
preferred mobility measure. There is still uncertainty about
the economic ownership of the property for the other
50 percent of additional moves.
1

Schulhofer-Wohl used data and codes from our 2010 study to generate his
mobility measure, and he compared his results with our baseline measure of
mobility. He then provided his underlying code, just as we did for him. Our
discussion of his mobility measure always applies to the first of four such
variables from his 2011 paper.

FRBNY Economic Policy Review / November 2012

3

Schulhofer-Wohl’s measure of mobility also can be
dynamically inconsistent, with moves in one period recoded at
a later date as nonmoves as additional waves of AHS data are
included in the estimation sample. These issues are especially
worrisome if one is trying to understand the impact of the
recent housing bust on household mobility, because the errors
from conflating temporary and permanent moves are
concentrated near the end of the data, and the AHS does not yet
have enough post-crisis surveys to allow researchers to
distinguish between these types of moves.2
While this update highlights how noisy the data from
American Housing Surveys are, we know of no superior source
to use to investigate this issue. Given that it takes time to resolve
uncertainty about whether some transitions are permanent or
temporary in nature, there is no variable that perfectly reflects
the mobility relevant to analysis of the impact of financial
frictions. That includes our improved measure reported in this
article. It still understates true mobility rates to the extent that
any of the moves that we censor due to uncertainty about
whether a change in economic ownership of the property
occurred actually reflects permanent moves. Precisely where to
draw the line on this measurement issue requires careful
consideration of the costs and benefits of overstating versus
understating the number of permanent moves. We continue to
advocate for a conservative coding strategy that is dynamically
consistent over time, but this clearly is not costless. The next
sections detail why we came to that conclusion.

3. Additional Data and
New Measures of Mobility
3.1 Changes in the Data and Summary
Statistics
There are four changes to the data used in this update of
Ferreira, Gyourko, and Tracy (2010). The first is the addition
of the 2009 AHS sample, which became available after we had
published our previous study. The 2009 AHS data allow
researchers to begin to examine the impact of the house price
declines between 2005 and 2007 on household mobility from
2007 to 2009. This is straightforward, and we present and
compare results with and without the new data. It does not
result in any meaningful changes in our findings.3
2

The distinction between permanent and temporary moves will also be a data
issue for researchers using household panel data sets, such as the Panel Survey
on Income Dynamics. Exact property address information will be required to
reliably distinguish between these two types of moves.

4

Housing Busts and Household Mobility: An Update

The second change involves the use of First American-Core
Logic (FACL) repeat-sales house price indexes in lieu of the
Federal Housing Finance Administration (FHFA) series when we
create instruments to address measurement error in the creation
of negative equity variables. Unlike the FHFA series, which are
based only on conforming loans, the FACL series include arm’slength purchases made with conforming and nonconforming
loans, including subprime, Alt-A, and jumbo mortgages. We
believe this provides a more complete picture of what was
occurring in terms of local house prices, especially in recent years,
but this change also has no material impact on the results.4
The third change involves additional cleaning of the panel
structure of the AHS data. The American Housing Survey was
designed to be used primarily as a series of cross-sections rather
than as a panel. For this reason, a variable that we employ to
define the panel structure—the purchase year of the house—
was not dependent coded.5 By that, we mean that the
interviewer does not have access to the responses for this
variable from prior surveys, so there is no way at the time of the
interview to ensure consistent coding across surveys. As a
result, the purchase year can vary in the data even for the same
household. If left uncorrected, this spurious variation in the
reported purchase year will induce false household transitions.
Ferreira, Gyourko, and Tracy (2010) developed several rules
that were used to identify and clean these false household
transitions in the data. For this update, we also include hardcoded edits to the purchase year based on an inspection of the
data history for each residence, including information on the
household head’s demographic characteristics. This additional
cleaning of the panel structure significantly improves on our
earlier rule-based edits.6
The fourth and most important change involves the use of
an improved measure of mobility, which is the dependent
variable in our analysis. This alteration was motivated by
Schulhofer-Wohl’s (2011) critique of our sample selection
procedures. In Ferreira, Gyourko, and Tracy (2010), we
deliberately chose a conservative definition of what constituted
a move for the reason noted above—namely, theory suggests
that financial frictions involving the likes of negative equity or
mortgage lock-in should impact mobility for permanent
3

We caution below that this does not necessarily signal that the estimated
relationship between mobility and negative equity during this housing market
downturn will not change as additional AHS data become available. See the
discussion below for more on this topic.
4
The FACL data used here include the impact of distressed transactions. We
have experimented with a series that does not include the data, and it does not
change our results.
5
Ideally, for a residence that is owner-occupied, changes in the purchase year
coincide with changes in ownership of the residence.
6
In the current work, we also follow Schulhofer-Wohl (2011) in setting tenure
to missing whenever tenure was imputed by the AHS. There were 2,183 cases
in which the reported imputed tenure was reported as owner-occupied and 458
cases reported as rental.

Table 1

Mobility Measures
1985-2007

MOVE
MOVE-ALL
MOVE1
MOVE2

Percentage
Moved

Noncensored

Percentage
Censored

7.8
16.4
10.0
11.0

61,801
68,206
63,700
64,450

17.3
8.8
14.8
13.8

1985-2009

MOVE
MOVE-ALL
MOVE1
MOVE2

Percentage
Moved

Noncensored

Percentage
Censored

7.5
16.0
9.7
10.8

66,280
73,096
68,371
69,181

17.7
9.2
15.1
14.1

Source: U.S. Census Bureau, American Housing Survey.
Notes: Percentage moved is computed conditional on being in our final
regression sample, which requires no missing data for all regressors pertaining to household and housing unit characteristics. It is the ratio of
moves to the sum of moves and nonmoves. Percentage censored is the
ratio of censored moves to the sum of moves, nonmoves, and censored
moves.

moves. To ensure that we did not mistakenly include
temporary moves (or false transitions attributable to any
remaining reporting errors in the survey), we restricted our
sample to those observations in which it was immediately clear
either that the same household resided in the given housing
unit across consecutive surveys (in which case, there was no
move) or that a different household lived in and owned the unit
that had been owned by another household in the previous
survey (in which case, there was a permanent move because
both physical location and economic ownership had changed).
Summary statistics of our original mobility variable, here
called MOVE, are reported in the first row of Table 1. This
measure is identical to the one used in our 2010 paper.
Focusing initially on the top panel, which reports data for the
1985-2007 period covered in that paper, we see that 7.8 percent
of the 61,801 housing transitions used in our regression
analysis are moves according to this definition.7 Those 61,801
transitions represent only 82.7 percent of the total number of
observations potentially available to us.8 That is, we treat
17.3 percent of the potential transitions as censored. In
2.4 percent of the cases, the move is censored because the
7

The reported mobility rate drops from 11.4 percent in our previous work to
7.8 percent in this new estimation sample. This decline reflects the removal of
false moves as a result of the additional data cleaning.

observation is the last in the panel data for a particular
residence. The remaining cases involve transitions of the
property from ownership to rental or from ownership to
vacancy where it is possible that the original owner may still
own the property.
In his first and preferred mobility measure, SchulhoferWohl (2011) effectively counted as a move all cases in which a
unit that had been owned in a given survey and was now being
rented or was vacant in the subsequent survey. Using the code
he provided, we created this variable in our data. It is labeled
MOVE-ALL in the second row of Table 1 because it captures all
transitions, whether permanent or transitory in nature. Note
the much higher mobility given this definition—16.4 percent
of transitions are moves, versus 7.8 percent given the definition
in Ferreira, Gyourko, and Tracy (2010).9 A much smaller
fraction of the data is censored using the MOVE-ALL measure,
reflecting only the 2.4 percent of cases noted earlier in which
the observation is the final one in the data panel for a particular
residence.

3.2 Two New Measures of Mobility that
Exploit the AHS Panel Structure
Because the conservative coding approach in our 2010 study
could result in dropping some permanent moves in a
nonrandom way that might affect our key estimates, we
develop an improved measure of mobility that uses the AHS
panel structure to help mitigate this potential problem. This
new variable is labeled MOVE1 in Table 1. By creating it for all
cases in which the next survey indicates that the house is vacant
or rented, we now look forward across all available surveys to
8

There are 74,774 observations on potential transitions between 1985 and 2007
for which we have complete data on all of the control variables as well as
instruments used in our regression specification reported below. The
estimation sample of 61,801 is nearly identical to our earlier estimation sample
of 61,803. This reflects the fact that the extra observations added to the
estimation sample because of the cleaning of previously uncaught false
transitions in the panel structure nearly balance the number of observations
lost because of the deletion of observations with imputed tenure status.
9
As we show, the MOVE-ALL measure would reflect even higher mobility if it
literally did what Schulhofer-Wohl states in his paper (2011, p. 5): “As I explain
in the introduction, FGT [Ferreira, Gyourko, and Tracy] drop from the sample
all cases where a house is owner-occupied in year t but is vacant or rented in year
t+2. I make only one change to FGT’s data: I code those cases as moves.” Our
study does not actually censor all such cases. For example, if the existing owner
were to temporarily leave the unit vacant or rent it out and then come back to the
unit in a subsequent survey, our data set would not censor the initial observation
in that sequence. Our code would recognize that the initial observation in that
sequence was not the last one for the given household, and we only allow moves
for the last observation on the household. By using the code from our 2010 paper,
Schulhofer-Wohl effectively corrects for some temporary moves like this, so that
not every case in which a “house is owner-occupied in year t but is vacant or
rented in year t+2” is counted as a move in his data.

FRBNY Economic Policy Review / November 2012

5

see if the house again becomes owner-occupied by another
household, not just by the previous owner. If it does, we note
the year in which the house was purchased. If the purchase year
is between the current survey year and the next survey, we code
this as a permanent move.
In the example below, the first row reports the American
Housing Survey year, the second indicates tenure status
(owned or rented), and the third reports the year the home was
purchased by its owner.

mobility is much higher than MOVE, by 28 percent, but it
remains well below that for MOVE-ALL. We discuss the
differences across measures more fully below; but first, we
introduce another mobility variable, MOVE2.
For MOVE2, we maintain the requirement that we are
certain that the household has permanently moved, but relax
the restriction that we know that the house has sold in the
interval between the relevant surveys. Naturally, this leads to an
even higher percentage of transitions being classified as
permanent moves, as indicated in this second example.

Example 1
Example 2
Survey year
Tenure status
Year purchased

2003
Own
1997

2005
Rent
NA

2007
Rent
NA

2009
Own
2004

In this case, the housing unit was owned as of 2003 by someone
who purchased it in 1997. The same housing unit is reported as
rented in the next two surveys. Then, the 2009 survey reports
the unit as again being owned, with the owner having
purchased the home in 2004. This tells us there was a
permanent move by our prior owner, with the house being sold
to a new owner in 2004 and that owner presumably renting it
out for a period of time. In our previous coding, situations like
this would have resulted in a censored value for our dependent
variable in 2003, with the observation being dropped from the
analysis. Our new mobility measure, MOVE1, will code this as
a move for the 2003 observation.
We also take advantage of a variable in the AHS that records
the vacancy status of a unit (vacancy) to help resolve some of
the cases censored under the rules creating the MOVE mobility
indicator. For example, we code MOVE1 as indicating that a
move and sale took place if the vacancy variable indicates that
the house has been “sold but not yet occupied” (vacancy = 5).
We code MOVE1 to indicate that the original owner has not
moved if the unit is listed as being held for occasional use,
seasonal use, or usual residence elsewhere (vacancy = 6-11).
Each of these instances suggests the presence of multiple homes
for the household, so that one should not interpret a transition
as a permanent move and sale of the property. We also code
MOVE1 to indicate that the unit has not sold if the unit is listed
as noncash rent for one or more surveys followed by owneroccupied status with the purchase year outside of the window
between survey years. Finally, we code MOVE1 to indicate that
a move and sale have not taken place if the unit is vacant for two
consecutive surveys and listed as sold but not occupied in the
second survey (vacancy (t+2) = 5).
Table 1 shows that resolution of previously censored cases in
this manner results in 10 percent of our regression sample
transitions now being coded as permanent moves. MOVE1

6

Housing Busts and Household Mobility: An Update

Survey year
Tenure status
Year purchased
MOVE1
MOVE2

2003
Own
1997
Censored
Yes

2005
Rent
NA
NA
NA

2007
Rent
NA
NA
NA

2009
Own
2008

In this case, we cannot tell if the owner in 2003 changed residence
and sold the property between 2003 and 2005. It is possible that a
move and sale did take place and that the new owner decided to
rent out the property until 2008, when the property was resold.
That new owner then decides to live in the property and reports a
purchase year of 2008 in the 2009 AHS. However, it is also possible
that the owner in 2003 decided to move and to rent out the
property, becoming an absentee landlord. The house is then sold
in 2008. Since both situations are consistent with the reported
data, this would result in MOVE1 being censored and recorded as
missing. However, in MOVE2 we classify this as a move in 2003
because we know that the original owner moved and did not
return to the property. Thus, MOVE2 includes cases in which we
know there was a permanent move, but cannot resolve the timing
of the sale by the original owner. The last row of the top panel of
Table 1 shows that the fraction of MOVE2 transitions is 10 percent
higher than for MOVE1 (11.0 percent versus 10.0 percent). Still,
this more expansive definition does not generate anything close to
the level of mobility indicated by MOVE-ALL.
The bottom panel of Table 1 reports the analogous data for
each mobility measure for the full sample that includes the 2009
survey data. Note that mobility is lower for each variable, which
indicates that measured mobility declined between the 2007 and
2009 surveys. We exploit this issue in more detail below.

3.3 Trade-Offs across Different Measures
of Mobility
Our concern about Schulhofer-Wohl’s (2011) empirical
strategy for the question we are addressing is that several of the

housing transitions that he considers moves are false positives
in the sense that they are temporary or reflect coding errors in
the underlying survey. To gauge how serious the potential
problem is of conflating these types of moves, we evaluated the
likelihood of Type I and Type II coding errors in his mobility
measure by coding them in “real time” in the AHS data. That
is, we begin by reading in the cleaned panel and selecting
observations for 1985 and 1987. We then code MOVE-ALL
based on his code for 1985 using data from the 1985 and 1987
surveys. These values for MOVE-ALL are saved and the
exercise is repeated using the 1987-89 pair of surveys, the 198991 pair, and so on, until 1997-99. We end this exercise in 1999
to ensure that we have enough future surveys to assess whether
Schulhofer-Wohl’s moves turned out to be permanent or
temporary. We call this real-time version of the SchulhoferWohl mobility measure MOVE-ALLR.
It is important to note that the coding of MOVE-ALLR in
this real-time analysis differs from the coding of MOVE-ALL in
the estimation sample. Our third example illustrates why.

Table 2

Permanent versus Temporary Moves
Cross-Tabulation of MOVE2 with MOVE-ALLR
MOVE-ALLR

MOVE2

0
1
. (missing)

0

1

70,707
0
0

3,557
8,550
5,050

Percentage of False Positives Resolved over Time
Four years or first subsequent survey
Six years or second subsequent survey
Eight years or third subsequent survey
Ten years or fourth subsequent survey
Twelve years or fifth subsequent survey
Fourteen years or sixth subsequent survey
Sixteen-plus years

66.0
17.4
7.7
4.7
1.9
1.2
1.1

Source: U.S. Census Bureau, American Housing Survey, 1985-2009.
Note: 15.1 percent of false positives are resolved using vacancy status.

Example 3:
Survey year
Tenure status
Year purchased

2003
Own
1997

2005
Rent
NA

2007
Own
1997

When the 2003 AHS data are added to the estimation
sample, MOVE (and our two other mobility measures),
MOVE-ALL, and MOVE-ALLR for 2003 will all be censored
because at that time this is the last observation in the panel for
the residence. When the 2005 AHS data are added, MOVE for
2003 will remain censored and MOVE-ALL and MOVE-ALLR
for 2003 will be recoded as a move. However, when the 2007
AHS data are merged into the sample, MOVE for 2003 (as well
as MOVE1 and MOVE2) will be recoded from censored to a
nonmove, while MOVE-ALL for 2003 will be recoded from a
move to a nonmove and MOVE-ALLR for 2003 will remain
coded as a move (since we do not allow the real-time measure
to be recoded once it indicates that a move has taken place).
The reason for the recoding of MOVE and MOVE-ALL is that
when constructing these mobility measures, we sort the data by
residence, household (based on a unique household
identification number we create), and survey year. Based on the
sorted data, a move is only considered for the last observation
for that household. As a result, our coding strategy for MOVE
(as well as for MOVE1 and MOVE2) only recodes censored
observations as either nonmoves or moves and it never recodes
noncensored mobility observations. In contrast, the coding for
MOVE-ALL can be dynamically inconsistent over time, with
moves recoded at a later date as nonmoves. By construction,

MOVE-ALLR maintains dynamic consistency by not recoding
a move as a nonmove even when information becomes
available indicating that the original owner has returned.
The top panel of Table 2 reports cross-tabulations of our
MOVE2 indicator, which takes full advantage of the panel to
differentiate between permanent and temporary transitions,
and MOVE-ALLR.10 We use MOVE2 for this analysis since our
focus here is whether a move is permanent or not, regardless of
when the property was sold. The first column of the table
documents that these two mobility variables confirm that there
were 70,707 cases in which no move occurred. There are no
cases in which our MOVE2 measure considered some
transition a move when MOVE-ALLR did not (that is, there is
no evidence of Type II errors); nor is MOVE2 ever censored or
missing when MOVE-ALLR indicates that no move took place.
The table’s second column is more interesting because both
mobility measures have 8,550 moves, but MOVE-ALLR has an
additional 8,607 moves. Moreover, 41.3 percent (3,557/8,607)
of the additional moves in MOVE-ALLR turn out to be
temporary in nature because they reflect Type I errors. That is,
using the full panel of surveys up to 2009, we observe the owner
return to the unit at some point in the future, or the surveys
reflect some other trait that leads us to conclude that there has
not been a permanent move.11
10

Here, we use all available transitions from the AHS for owner-occupied
residents between twenty-one and fifty-nine years of age over the 1985-99
period and do not restrict the observations to those with nonmissing values for
all of the regressors that we use in the final mobility estimation.

FRBNY Economic Policy Review / November 2012

7

Out of all the false positives from MOVE-ALLR, in two-thirds
of the cases the Type I error could be eliminated by looking at
only one subsequent American Housing Survey, as shown in the
bottom panel of Table 2. To better understand this, presume that
we are uncertain about whether a transition in the 1985 data is
permanent or temporary. That is, the data clearly show a given
owner-occupant in 1985, but a different occupant or a reported
vacancy in 1987. In 66 percent of cases, the 1989 survey fully
resolves the uncertainty. In these “false positive” cases, we see the
same household living and owning the same unit in 1985 and
1989. Another 17.4 percent of the false positives are resolved by
the next available survey (that is, after six years have passed), so
that more than 83 percent of cases are clarified by 1991 in this
example. The remaining cases are clarified by future surveys,
with some owners being absent for long periods of time.
However, the number of those cases is quite small.12
It is also important to note that for 5,050 transitions,
MOVE2 is assigned a censored value while MOVE-ALLR
considers them moves. While none of these cases can be
definitively identified as permanent moves with the currently
available data, some of them undoubtedly are and will be
revealed and coded as such over time as additional survey data
become available. In practice, this means that MOVE2 still does
not include all true permanent moves. This highlights the fact
that there is no perfect measure of such mobility as long as the
data do not allow for the immediate recognition of whether an
economic change in ownership has occurred.

4. Results

effects.13 Such measurement error can be mitigated by using an
instrumental-variable approach.14 In the case of house equity
variables, we use the purchase price of the house and any house
price appreciation implied by the First American-Core Logic
repeat-sales house price index for the relevant metropolitan
area in order to calculate our instrument for the self-reported
measure of negative equity. The instrumental variable for
mortgage lock-in is based on the average rate on thirty-year
fixed-rate mortgages during the year in which the house was
purchased for the self-reported interest rate. The real annual
difference in mortgage payments is calculated using the
difference between this rate and the prevailing mortgage rate
variable. In both cases, our instrument relies on the intuition
that aggregate information averages out individual-level
measurement error.
The Proposition 13 property tax subsidy variable is
constructed from two self-reported variables. To address the
likely measurement error, we create an instrument defined as
the difference between the growth in the metropolitan area
repeat-sales house price index and the maximum allowable
growth in the property tax over the same period, all multiplied
by the fully assessed property tax on the purchase value of the
house. Needless to say, the value of the implied subsidy still is
zero for non-California households.
To accommodate our data structure, we use a recursive
mixed-process model that expands upon the classic mobility
specifications introduced by Hanushek and Quigley (1979) and
Venti and Wise (1984), which also served as the foundation for
our earlier empirical work. The following four-equation system
describes our mobility outcome and our three instrumental
variables:
I mi
* =
X P13i =
X FRMi =
I*Ni1 =

4.1 Estimation Methodology
In Ferreira, Gyourko, and Tracy (2010), we showed that each of
our financial friction variables, which are based on selfreported values, is subject to substantial measurement error
that causes severe attenuation bias in estimated mobility

* 0
I mi = 1 if I mi
0 otherwise
1 = 1 if I*1  0
I Ni
Ni

0 otherwise

11

As noted above, the lack of dependent coding for this variable means that some
of these cases could be attributable to coding error by the AHS survey taker in the
sense that he or she does see or interview the original owner and mistakenly
concludes that the unit is not occupied by the same person. The best example of
this involves units described as being vacant and held for occasional or seasonal
use. This group represents 14 percent of the 3,557 cases. There is a much smaller
fraction of units (1.2 percent) for which there is noncash rent and a subsequent
sale outside the relevant sample interval. There is an even smaller share of units
(0.3 percent) that are vacant across two consecutive surveys, with the second
survey listing the housing unit as sold but not yet occupied.
12
Subsequent to a temporary move, the mean (median) duration of the owner
in the residence is 6.1 (5.0) years. In 38 percent of cases, the post-temporary
move duration is censored by the end of the data in 2009.

8

Housing Busts and Household Mobility: An Update

1 +
X i  +  P13 X P13i +  FRM X FRMi +  N I Ni
1i
2 +
X i  +  P13 Z P13i +  FRM Z FRMi +  N I Ni
2i
2 +
X i  +  P13 Z P13i +  FRM Z FRMi +  N I Ni
3i
2 +
X i  +  P13 Z P13i +  FRM Z FRMi +  N I NI
4i

13

Kain and Quigley (1972) is the seminal work on this issue. More recently,
Bayer, Ferreira, and McMillan (2007) observe that self-reported values are less
accurate the longer ago the occupant moved in. Hence, wide swings in prices
like those seen over our sample period increase the dispersion of self-reported
home values. Schwartz (2006) also reports measurement error in interest rates.
14
See Ashenfelter and Krueger (1994) for a classic reference on how to create
an alternative measure of the “treatment” variable of interest, and then to use
that measure as the instrumental variable.

 1i
1  12  13
 2i
 22  23
 N  0   , where  =
 3i
 32
 4i
●

●

●

●

●

●

 14
 24
 34

Table 3

,

Cross-Tabulations of Negative Equity
and Mobility Indicators

l

* a continuous
where I mi is our observed mobility indicator, I Mi
1 our negative equity
latent index for the propensity to move, I Ni
indicator based on the self-reported house value, I Ni2 our
alternative negative equity indicator based on the metro area
*1 a continuous latent index for whether the
house price index, I Ni
borrower is in negative equity, Z P13i our instrument for the annual
property tax cost of moving attributable to Proposition 13 for
California residents, and Z FRMi our instrument for the annual
interest rate cost associated with refinancing for households
with a fixed-rate mortgage.
We estimate this system using Roodman’s Cmp program in
STATA. A description of the program, its implementation, and
applications is given in Roodman (2009). For comparison with
our earlier findings, we also present results for a singleequation Probit (used in Ferreira, Gyourko, and Tracy [2010])
and a standard linear-probability model.15

4.2 Negative Equity

Negative Equity
Mobility Indicator

No

Yes

MOVE
No
Yes
Censored

74.02
6.05
16.22

2.11
0.15
1.46

MOVE1
No
Yes
Censored

74.51
8.04
13.74

2.14
0.23
1.34

MOVE2
No
Yes
Censored

74.51
8.99
12.79

2.14
0.28
1.29

MOVE-ALL
No
Yes
Censored

74.02
14.15
8.12

2.11
0.51
1.09

MOVE-ALLR
No
Yes
Censored

68.60
14.71
12.98

1.91
0.57
1.23

Source: U.S. Census Bureau, American Housing Survey (1985-2009).

In this section, we first present updated results on the relationship
between mobility and negative equity using new data from the
2009 AHS and for the five different mobility variables described
above. For the rest of our discussion, we code MOVE-ALLR for
the full sample period from 1985 to 2007 or to 2009. Table 3
begins by providing summary statistics on the distribution of selfreported negative equity according to whether there was a move.
Table 4 then reports the results of re-estimating the core mobility
specification from Ferreira, Gyourko, and Tracy (2010) using the
five mobility measures described above as the dependent variable.
The top panel of Table 4 reports marginal effects from that
specification estimated with the cleaned and edited AHS data
from 1985 to 2007. Results for the expanded 1985-2009 AHS data
are reported in the bottom panel.
15

Schulhofer-Wohl (2011) correctly notes that our negative equity indicator was
a dichotomous dummy and thus did not have the requisite properties for the
IV Probit estimation procedure as carried out in our 2010 study. Consequently,
our main results of this update are based on the IV Probit marginal effects from
the joint estimation of the four-equation system outlined above. For comparison,
we also report estimates from a single-equation IV Probit (used in our previous
paper) as well as an IV linear-probability version of the model, with those results
reported in the second and third columns of Table 4. Schulhofer-Wohl does not
instrument for the measurement error. As our paper showed, there is never any
significant correlation between a financial friction and permanent moves unless
attenuation bias is dealt with in some fashion.

Notes: Negative equity is based on self-reported house values.
MOVE-ALLR is the real-time calculation of MOVE-ALL over the full
sample period in which we do not allow moves to be subsequently
recoded as nonmoves. Cell percentages are shown.

Focusing first on the multi-equation Probit marginal effects
in column 1, we observe a statistically significant negative
relationship between the presence of negative equity and
mobility for our original MOVE indicator as well as for our
improved MOVE1 indicator. For our earlier sample period
from 1985 to 2007, our preferred MOVE1 indicator implies
that negative equity is associated with a two-year mobility rate
that is 3 percentage points lower, ceteris paribus. This is
30 percent of the baseline mobility rate of 10 percent, which is
similar to the relative impact reported in Ferreira, Gyourko,
and Tracy (2010). The MOVE variable used in our earlier paper
generates a slightly larger impact, but it is not statistically or
economically different from that for MOVE1. The more
expansive definition of permanent mobility reflected in
MOVE2 yields a slightly lower marginal effect of 2.8 percentage
points, or about one-fourth of the baseline mobility rate. It is
different from zero at a 10 percent confidence level for the

FRBNY Economic Policy Review / November 2012

9

Table 4

Empirical Estimates
1985-2007
IV Probit
(Multi-Equation)

IV Probit
(Single-Equation)

IV Linear
Probability

MOVE
N=61,801

-0.043**
(0.012)

-0.050**
(0.014)

-0.062**
(0.017)

MOVE1
N=63,700

-0.030**
(0.014)

-0.047**
(0.016)

-0.056**
(0.019)

MOVE2
N=64,450

-0.028*
(0.015)

-0.047**
(0.020)

-0.043**
(0.020)

MOVE-ALL
N=68,206

0.019
(0.021)

0.029
(0.024)

0.029
(0.024)

MOVE-ALLR
N=64,181

0.029
(0.021)

0.063**
(0.029)

0.061**
(0.029)

1985-2009
MOVE
N=66,280

-0.037**
(0.011)

-0.046**
(0.017)

-0.054**
(0.016)

MOVE1
N=68,371

-0.024*
(0.014)

-0.044**
(0.016)

-0.048**
(0.018)

MOVE2
N=69,181

-0.022
(0.014)

-0.037**
(0.017)

-0.036*
(0.019)

MOVE-ALL
N=73,096

0.027
(0.018)

0.032
(0.023)

0.035
(0.023)

MOVE-ALLR
N=69,079

0.037*
(0.020)

0.066**
(0.027)

0.066**
(0.027)

Source: U.S. Census Bureau, American Housing Survey.
Notes: Probit marginal effects are average differences. Standard errors are
in parentheses. MOVE-ALLR is the real-time version of MOVE-ALL over
the full sample period in which we do not allow moves to be subsequently recoded as nonmoves.
** Statistically significant at the 95 percent confidence level.
* Statistically significant at the 90 percent confidence level.

1985-2007 sample, and we cannot reject the null hypothesis
that the effects are the same across all three measures.
A comparison of results across columns in the top panel of
Table 4 indicates that implied marginal effects from the multiequation Probit specification are consistently lower than effects
from the single-equation Probit and the linear-probability
specifications, although the pattern of findings is quite
consistent. In addition, the standard errors are such that we
cannot conclude that the levels of the implied effects differ by
estimation strategy.
The first column of Table 4’s second panel adds in the data
from the 2009 survey. We find modestly lower marginal effects

10

Housing Busts and Household Mobility: An Update

here compared with the 1985-2007 results, and negative equity
is no longer associated with statistically significant lower
mobility for the MOVE2 variable. However, these marginal
effects are not significantly different from those of the earlier
sample period, so there is no evidence yet that the most recent
housing bust has materially changed the relationship between
negative equity and owner mobility. That said, one cannot and
should not conclude that the relationship will not change over
this cycle as more data become available, as cautioned in our
original paper. The previous section implies that it takes four to
six years for the vast majority of the censored housing
transitions to be resolved. Hence, it will be much later in this
decade before we can more confidently know how negative
equity affected permanent mobility in this latest downturn.
Note that the coefficient on the MOVE-ALL indicator as
constructed by Schulhofer-Wohl (2011) suggests a positive
correlation between negative equity and mobility. In neither
sample period is this statistically different from zero, but the
point estimates are positive, not negative. The misclassification
of so many temporary moves as permanent ones is likely to be
critical here. Recall that theory does not suggest a negative
correlation between temporary moves and negative equity.
Hence, it should not be surprising to find a weak and imprecise
correlation when more than one-fifth of the coded moves may
not involve a permanent move and sale of the home.16
This intuition that the conflation of temporary and
permanent moves is the driving factor behind the difference
between our negative equity results and those reported by
Schulhofer-Wohl is corroborated by comparing the different
estimates associated with MOVE-ALL and MOVE-ALLR.
Recall that the distinction between these two measures is that
MOVE-ALLR retains moves identified by Schulhofer-Wohl
that are known ex post to be temporary, whereas MOVE-ALL
allows these temporary moves to be recoded as nonmoves.
Retaining these temporary moves increases the measured
mobility rate from 16.1 percent for MOVE-ALL to 17.8 percent
for MOVE-ALLR. The estimates in Table 4 indicate that the
inclusion of these additional temporary moves raises in each
case the estimated positive effect of negative equity on mobility.
Of course, the underlying sample used in generating these
estimates is the result of censoring all cases in which we cannot
tell whether physical location and economic ownership
16

We also estimated all models with the original FHFA price series used to help
determine negative equity. Focusing on the system IV Probit results, we note
that MOVE-ALL remains positive but is still statistically insignificant. MOVE
continues to be positive and statistically significant. The marginal effects for
MOVE1 and MOVE2 decline by around 25 percent for the 1985-2007 sample
and around 40 percent for the 1985-2009 sample, and they are no longer
statistically significant. This drop in the magnitude of marginal effects likely
reflects the inability of the FHFA house price indexes to accurately track the
declining prices due to the indexes’ narrow focus on houses financed with
conforming mortgages.

Table 5

Impact of Other Financial Frictions on Household Mobility
IV Probit (Multi-Equation)

IV Probit (Single-Equation)

IV Linear Probability

-0.016**
(0.009)
-0.010**
(0.005)

-0.018*
(0.009)
-0.010**
(0.004)

-0.013
(0.009)
-0.008**
(0.004)

-0.023**
(0.009)
-0.009*
(0.005)

-0.024**
(0.009)
-0.009*
(0.005)

-0.019**
(0.009)
-0.008**
(0.004)

Mobility indicator: MOVE1
Fixed-rate mortgage lock-in ($1,000)
Proposition 13 property tax lock-in ($1,000)
Mobility indicator: MOVE2
Fixed-rate mortgage lock-in ($1,000)
Proposition 13 property tax lock-in ($1,000)

Source: U.S. Census Bureau, American Housing Survey, 1985-2009.
Note: Probit marginal effects are average derivatives, with standard errors in parentheses.
** Statistically significant at the 95 percent confidence level.
* Statistically significant at the 90 percent confidence level.

changed. That is roughly half of the excess moves in MOVEALLR relative to MOVE2 based on our real-time analysis of the
1985-99 period. Practically speaking, most of the censored
cases in our full data set are from recent waves of the AHS, and
Table 2’s results suggest that if past patterns persist, the vast
majority will be resolved within four to six years. However, it
seems likely that at least some of the cases in which the previous
owner is coded as no longer living in the unit over multiple
surveys, but for which there is still no clear evidence of a sale,
actually are permanent moves.17

17

This raises the question of whether we could improve the measure MOVE2
by counting as moves situations in which it seems likely (but not certain) that
a permanent move has taken place. Intuition might suggest that the longer the
ownership gap observed in which the residence is reported as rental or vacant,
the more likely that the previous owner will not return. To check on this
possibility, we looked at ownership gaps of different lengths and computed the
fraction of cases in which the move turned out to be temporary, conditional on
having the information to make this determination. For situations in which the
residence was rented or vacant for at least three surveys, the transition turned
out to be temporary in 59 percent of the cases in which we could determine the
final outcome. If we lengthen the ownership gap to four or more surveys, the
percentage of temporary moves actually increases to 62 percent. This pattern
continues for ownership gaps of five or more and six or move surveys. Thus,
the simple intuition that the longer the current ownership gap, the more likely
the move will turn out to be permanent, is not supported in the data. For this
reason, we do not think one can improve on MOVE2 by recoding censored
transitions as moves given an ownership gap of some specified length.
However, it is still useful to understand that the potential fragility of our results
(and possibly of previous researchers) arises from the fact that it is difficult to
properly measure mobility in a number of cases.

4.3 Fixed-Rate Mortgages and Property Tax
Lock-Ins
Updated results on the impact of two additional financial
frictions on household mobility are presented in Table 5.
The first friction pertains to homeowners with a fixed-rate
mortgage. In a rising interest rate environment, if a
homeowner with this type of mortgage moves, the monthly
cost of an identically sized mortgage can be higher. The second
friction pertains to homeowners in California whose property tax
increases have been limited over time due to Proposition 13. If the
homeowner moves to a similarly valued property, taxes would
be set to the fully assessed value of the house. In both cases, we
examine the marginal effect of an additional $1,000 annual cost
on the likelihood that the household moves. We provide
estimates for specifications containing our two improved
mobility indicators for the expanded sample period, in which
we use the FACL overall house prices to update home values.
The data confirm our earlier finding that both frictions give rise
to reduced household mobility—10 percent to 16 percent less
per $1,000 using our preferred mobility measure MOVE1. In
none of the specifications do the data reject the notion that the
mobility friction is the same whether it is generated by rising
rates for fixed-rate borrowers or higher property taxes for
California homeowners.
We suspect that this interest-rate–related lock-in effect
will become increasingly important as monetary policy is
normalized in the future. To illustrate, we consider the

FRBNY Economic Policy Review / November 2012

11

Table 6

Main Reason for Move: Overall and by Distance of Move
1985-95
Reason
Job-related
Quality-of-life
Personal/family
Financial
Other
All equal

1985-2009

All

Same Metropolitan Statistical Area

Same State

Different State

Out of Country

12.58
26.70
23.88
21.83
11.84
3.17

13.23
23.94
20.44
25.55
13.18
3.67

3.85
26.67
19.73
33.00
12.90
3.85

21.20
24.97
16.64
20.55
13.13
3.51

60.53
8.18
10.22
4.25
14.94
1.89

66.10
3.39
6.78
6.78
15.25
1.69

Sources: U.S. Census Bureau, American Housing Survey; authors’ calculations.
Note: The sample is restricted to owner-occupied respondents between the ages of twenty-one and fifty-nine.

hypothetical case of a 250 basis point increase in the average
thirty-year fixed-rate mortgage interest rate as a result of the
normalization of monetary policy. For homeowners in 2009
with a fixed-rate mortgage, this results in a mean (median)
annual payment difference of $2,300 ($1,710). According to
the Probit marginal effects for MOVE1, this implies a mean
(median) reduction in the two-year mobility rate of
3.7 (2.7) percentage points. If we calculate using the estimates
for MOVE2, we obtain a reduction in the two-year mobility
rate of 5.3 (3.9) percentage points. This suggests that as
negative equity (hopefully) diminishes in importance over the
coming years, it well may be offset by an increasing fixed-ratemortgage friction.18

5. Spillovers into the Labor Market
and Other Implications
Policymakers naturally have been interested in whether
reduced mobility among homeowners (from negative equity
especially) might be playing a role in what has heretofore been
a very sluggish employment recovery. Perhaps being stuck in
one’s home because of the high costs of curing negative equity
prevents a sufficiently large number of people from moving to
accept jobs, which affects the measured unemployment rate.
Our analysis is restricted to the housing market because the
AHS follows residences rather than households and therefore it
is not suited to addressing job mobility. However, the
18

This is particularly true for borrowers who received a below-market
mortgage rate through a private modification or a Home Affordable
Modification Program modification (conditional on the borrower not
redefaulting on the modified mortgage). If these low-rate mortgages were
either assumable or portable, there would be no associated mobility friction.

12

Housing Busts and Household Mobility: An Update

preliminary answer on this question from the initial set of
research in labor economics is “no.” Since long-distance moves
are more likely to be job related, these studies tend to focus on
moves across states or counties.19 The AHS files are also useful
for examining the types of moves likely to be impacted by
housing market frictions. For example, the AHS asks recent
movers (that is, those who moved within the last two years)
about the primary reason for their move and, until 1995, the
distance of the move. A high percentage of moves—
73 percent—are local, while only 13 percent cross a state
border. Table 6 provides more detail on the primary reason for
moves, both overall and broken down by distance. Most moves
are for quality-of-life, personal/family, and financial reasons,
and do not appear to be primarily job related. This is especially
true for local moves. In contrast, longer-distance moves,
particularly across states, tend to be job related. One
implication of these data that is consistent with the initial labor
market analysis results is that financial frictions affecting
household mobility may well be more likely to reduce local
moves that need not have significant spillover effects into the
labor market. Nevertheless, it is too early to conclude that this
is the final word on potential spillovers into the labor market.
That conclusion should await a fuller recovery as well as
confirming evidence from studies using micro data and
modeling individual household behavior.
We emphasize that even if reduced mobility attributable to
financial frictions has no spillovers into the labor market, that
does not make them economically unimportant. The fewer
19

Several of these papers (for instance, Aaronson and Davis [2011], Modestino
and Dennett [2012], and Molloy, Smith, and Woznak [2011]) also estimate
aggregate models of migration rates rather than micro models of whether a
household moves. Donovan and Schnure (2011) also pursue an aggregate-level
analysis, but theirs is more comprehensive in the sense that it investigates the
impact of negative equity within and across counties (and also within and
across states).

within-metropolitan-area moves that we see due to negative
equity have direct effects on owner economic welfare and
potentially important implications for the nature of the
housing sector recovery. Being locked into one’s current
residence because of the high costs of curing negative equity
means the household is imperfectly matched in its residence.
The welfare losses from being mismatched are not just from
having the wrong-sized house (such as not enough bedrooms
now that there is an additional child), but also from being in
the wrong location. Many families, for instance, may not be
able to move to their preferred school district, even if there is
no desire to change jobs.
In addition to these welfare consequences are the potential
impacts on the scale and intensity of trade-up (and tradedown) purchases. There are vastly more sales of existing homes
than new homes in a typical year, so lower transaction levels in
the existing stock materially affect the state of the housing
market, including the incomes of realtors and others who work
in the housing sector and in durable goods sales that coincide
with turnover of owned housing, as well as the finances of
many state and local governments that rely on transfer taxes.20
Finally, it is natural to focus on the potential ramifications
of lower mobility due to negative equity, but we should not
forget that the mortgage interest rate lock-in effect could
become much more important in the future. We find
economically meaningful interest rate lock-in effects in past
cycles, and the stage is set for them to become empirically
relevant. Federal Reserve interest rate policy and other public
policies have been successful at encouraging refinancing at
historically low rates. When rate policy normalizes, we may
find many owners constrained from moving because of the
much higher debt service payments they would incur from
buying a different home.

6. Summary and Implications
for Future Research
Our inclusion of the most recent American Housing Survey for
2009, which reflects initial data from the recent housing bust,
does not materially change previously reported estimates of
how negative equity and other financial frictions are correlated
with homeowner mobility. Homeowners with negative equity
remain about one-third less likely to move than otherwise
observationally equivalent owners. However, the uncertainty
surrounding changes in economic ownership involving various
transitions concentrated in the last few surveys suggests that we
cannot really know for sure how the recent housing bust
impacted permanent mobility until a few years into the future.
Then, the additional survey data will reveal the true nature of
many of those transitions.
A critique of the sample selection procedures used in our
earlier work (Ferreira, Gyourko, and Tracy 2010), which claims
to reverse this result, appears largely due to the incorrect
classification of many transitions as moves that are likely to be
temporary and not permanent, or simply reflect coding error in
the individual surveys. Whether negative equity can be
positively associated with temporary moves is a question that
we did not attempt to answer then. That said, our improved
measure still does not reflect mobility perfectly because of our
conservative policy of censoring transitions that cannot be
definitively defined as permanent in nature. Hopefully,
researchers will develop other data sources or ways to reduce
this noise in the AHS panels.
Going forward, it is more important for scholars to tackle
the question of whether this correlation is causal in nature.
That will require new theoretical and empirical strategies to
better control for labor market conditions. As long as labor and
housing markets move together (and there is sound reason
conceptually and empirically to believe they do), the
correlation documented here could be driven predominantly
by the lack of good job opportunities to attract potential
movers. Until we address this issue, we will not know the true
social cost of highly leveraged home purchases that are more
likely to lead to negative equity situations.

20

Low transaction volumes in housing markets also complicate the appraisal
process because of a lack of comparables. This likely leads to conservative
appraisals and therefore the need for households to make larger downpayments in order to purchase a home. This creates the possibility of an
adverse-feedback effect that can further reduce home sales.

FRBNY Economic Policy Review / November 2012

13

References

Aaronson, D., and J. Davis. 2011. “How Much Has House Lock
Affected Labor Mobility and the Unemployment Rate?” Federal
Reserve Bank of Chicago, Chicago Fed Letter no. 290,
September.
Ashenfelter, O., and A. B. Krueger. 1994. “Estimates of the Economic
Returns to Schooling from a New Sample of Twins.” American
Economic Review 84, no. 5 (December): 1157-73.
Bayer, P., F. Ferreira, and R. McMillan. 2007. “A Unified Framework
for Measuring Preferences for Schools and Neighborhoods.”
Journal of Political Economy 115, no. 4 (August): 588-638.
Bricker, J., and B. Bucks. 2011. “Negative Home Equity, Economic
Insecurity, and Household Mobility: Evidence from the 20072009 SCF Panel.” Paper presented at the Federal Reserve Bank
of St. Louis Applied Micro Economics Conference, St. Louis,
Missouri, May 5-6.
Chan, S. 2001. “Spatial Lock-In: Do Falling House Prices Constrain
Residential Mobility?” Journal of Urban Economics 49, no. 3
(May): 567-86.
Donovan, C., and C. Schnure. 2011. “Locked in the House:
Do Underwater Mortgages Reduce Labor Market Mobility?”
Unpublished paper, May 31.
Engelhardt, G. V. 2003. “Nominal Loss Aversion, Housing Equity
Constraints, and Household Mobility: Evidence from the United
States.” Journal of Urban Economics 53, no. 1 (January): 171-95.
Ferreira, F. 2010. “You Can Take It with You: Proposition 13 Tax
Benefits, Residential Mobility, and Willingness to Pay for Housing
Amenities.” Journal of Public Economics 94, nos. 9-10
(October): 661-73.
Ferreira, F., J. Gyourko, and J. Tracy. 2010. “Housing Busts and
Household Mobility.” Journal of Urban Economics 68, no. 1
(July): 34-45.
Hanushek, E. A., and J. M. Quigley. 1979. “The Dynamics of the
Housing Market: A Stock Adjustment Model of Housing
Consumption.” Journal of Urban Economics 6, no. 1
(January): 90-111.

14

Housing Busts and Household Mobility: An Update

Kain, J. F., and J. M. Quigley. 1972. “Note on Owner’s Estimate of
Housing Value.” Journal of the American Statistical
Association 67, no. 340 (December): 803-6.
Modestino, A. S., and J. Dennett. 2012. “Are American Homeowners
Locked into Their Homes? The Impact of Housing Market
Conditions on State-to-State Migration.” Federal Reserve Bank of
Boston Working Paper no. 12-1, February. Available at http://
www.bostonfed.org/economic/wp/wp2012/wp1201.pdf.
Molloy, R., C. L. Smith, and A. Woznak. 2011. “Internal Migration in
the United States.” Journal of Economic Perspectives 25, no. 3
(summer): 173-96.
Quigley, J. M. 1987. “Interest Rate Variations, Mortgage Prepayments,
and Household Mobility.” Review of Economics and
Statistics 69, no. 4 (November): 636-43.
———. 2002. “Homeowner Mobility and Mortgage Interest Rates:
New Evidence from the 1990s.” Real Estate Economics 30,
no. 3 (fall): 345-64.
Roodman, D. 2009. “Estimating Fully Observed Recursive MixedProcess Models with Cmp.” Center for Global Development
Working Paper no. 168, April.
Schulhofer-Wohl, S. 2011. “Negative Equity Does Not Reduce
Homeowners’ Mobility.” NBER Working Paper no. 16701,
January. Available at http://www.nber.org/papers/w16701.
Schwartz, A. 2006. “Household Refinancing Behavior in Fixed-Rate
Mortgages.” Unpublished paper, Harvard University, November/
December.
Stein, J. C. 1995. “Prices and Trading Volume in the Housing Market:
A Model with Down-Payment Effects.” Quarterly Journal of
Economics 110, no. 2 (May): 379-406.
Valletta, R. G. 2010. “House Lock and Structural Unemployment.”
Paper presented at the Federal Reserve System Committee on
Regional Analysis, New Orleans, Louisiana, November 14-16.

References (Continued)

Venti, S. F., and D. A. Wise. 1984. “Moving and Housing Expenditure:
Transaction Costs and Disequilibrium.” Journal of Public
Economics 23, nos. 1-2 (February-March): 207-43.

Wasi, N., and M. J. White. 2005. “Property Tax Limitations and
Mobility: Lock-In Effect of California’s Proposition 13.”
Brookings-Wharton Papers on Urban Affairs 2005, 59-97.

The views expressed are those of the authors and do not necessarily reflect the position of the Federal Reserve Bank of New York
or the Federal Reserve System. The Federal Reserve Bank of New York provides no warranty, express or implied, as to the
accuracy, timeliness, completeness, merchantability, or fitness for any particular purpose of any information contained in
documents produced and provided by the Federal Reserve Bank of New York in any form or manner whatsoever.
FRBNY Economic Policy Review / November 2012

15

Adam Copeland, Darrell Duffie, Antoine Martin, and Susan McLaughlin

Key Mechanics of
the U.S. Tri-Party
Repo Market
• The 2007-09 financial crisis exposed
weaknesses in the design of the U.S. tri-party
repo market that could rapidly elevate and
propagate systemic risk.
• A study of the market identifies the collateral
allocation and unwind processes as two key
mechanics contributing to the market’s
fragility and delaying reforms.
• The problems stem from the considerable
intervention by dealers to allocate collateral
and their reliance on intraday financing to
unwind, or settle, expiring repos.
• Streamlining the collateral allocation process
and eliminating the time gap associated with
the unwinding of repos could reduce market
fragility and financial system risk.

Adam Copeland is a senior economist at the Federal Reserve Bank of New York;
Darrell Duffie is the Dean Witter Distinguished Professor of Finance at Stanford
University; Antoine Martin is an assistant vice president and Susan McLaughlin
a senior vice president at the Federal Reserve Bank of New York.
Correspondence: adam.copeland@ny.frb.org, antoine.martin@ny.frb.org,
susan.mclaughlin@ny.frb.org

1. Introduction

D

uring the financial crisis of 2007-09, particularly around
the time of the Bear Stearns and Lehman Brothers
failures, it became apparent that weaknesses existed in the
design of the U.S. tri-party repo market, used by major brokerdealers to finance their inventories of securities. These design
weaknesses had the potential to rapidly elevate and propagate
systemic risk.
Following the crisis, an industry-led effort sponsored by the
Federal Reserve Bank of New York was undertaken to improve
the tri-party repo market’s infrastructure, with the main goal of
lowering systemic risk. This article describes some key
mechanics of the market—in particular, the collateral
allocation process and the “unwind” process—that have
contributed to the market’s fragility and delayed the reforms.
A repurchase agreement, or “repo,” is effectively a
collateralized loan. A well-functioning tri-party repo market
depends on the ability to efficiently allocate a dealer’s
securities—the collateral in the transaction—to the various
repos that finance those securities. In the United States,
collateral allocation currently involves considerable
intervention by dealers, which slows the entire process.
Collateral allocation is also complicated by the need for
coordination between the Fixed Income Clearing Corporation
(FICC), which clears some interdealer repos, and the clearing
bank, which facilitates the settlement of tri-party repos. The

The authors are grateful for helpful discussions with Brian Begalle, Annik
Bosschaerts, Richard Glen, John Jackson, Peter Kasteel, Jamie McAndrews,
Larry Radecki, and a number of market participants, who may or may not
agree with any views expressed in this article. The views expressed are those of
the authors and do not necessarily reflect the position of the Federal Reserve
Bank of New York or the Federal Reserve System.
FRBNY Economic Policy Review / November 2012

17

length of time necessary to allocate collateral in the tri-party
repo market has been a significant obstacle to market reform.
Another impediment to reform is the unwind process, the
settlement of expiring repos that occurs before new repos can be
settled. The unwind creates a need for intraday funding to tide
dealers over in the period between when they return cash to
investors and when they get new cash from the settlement of new
repos. In the tri-party repo market, this intraday financing is
provided by the clearing banks. The dealers’ reliance on intraday
credit is one of the three weaknesses of the market highlighted in a
Federal Reserve Bank of New York white paper on infrastructure
reform. Such reliance creates potentially perverse dynamics that
increase market fragility and financial system risk.
The next section offers a brief overview of the U.S. repo
market and some of its important segments. In Section 3, we
describe the market in more detail and summarize the concerns
surrounding it. Section 4 reviews the mechanics of tri-party
repo transactions; Section 5 concludes.

Exhibit 1

A Typical Repo Transaction
Opening leg
Cash
Cash provider

Collateral provider
Securities

Closing leg
Securities
Cash provider

Collateral provider
Cash

speculate based on changes in the market values of those
securities.
We now describe different segments of the U.S. repo market
in more detail.

2.1 The Bilateral Repo Market

2. The U.S. Repo Market
A repo is the sale of a security, or a portfolio of securities,
combined with an agreement to repurchase the security or
portfolio on a specified future date at a prearranged price. Aside
from some legal distinctions concerning bankruptcy treatment,1
a repo is similar to a collateralized loan. Exhibit 1 shows a basic
repo transaction. For the opening leg of the repo, an institution
with cash to invest, the cash provider, purchases securities from
an institution looking to borrow cash, the collateral provider.
The market value of the securities purchased typically
exceeds the value of the cash. The difference is called the
“haircut.” For example, if a cash loan of $95 is backed by
collateral that has a market value of $100, then the haircut is
5 percent. For the closing leg of the repo, which occurs at the
term of the repo, the collateral provider repurchases the
securities for $95 plus an amount corresponding to the interest
rate on the transaction.
In most segments of the U.S. repo market, at least one of the
counterparties is a securities dealer.2 Dealers use the repo
market to finance their inventories of securities, among other
purposes. In some cases, the collateral provider is a client of the
dealer that wants to borrow cash. On these repos, the dealer is
the cash provider. Repos involve a variety of other cash
providers, including money market funds (MMFs), asset
managers, securities lending agents, and investors looking to
obtain specific securities as collateral in order to hedge or
1
2

See Duffie and Skeel (2012).
The terms “dealer” and “securities dealer” are used interchangeably.

18

Key Mechanics of the U.S. Tri-Party Repo Market

When the repo market was first developed, all transactions were
bilateral. In the bilateral market, a repo is typically settled when the
collateral provider receives the cash and delivers the securities to
the cash provider. The transfer is usually simultaneous, so this type
of repo is sometimes called “delivery versus payment,” or DvP. For
example, for a repo collateralized by Treasury securities, the
collateral provider could instruct its custodian bank to deliver the
appropriate securities to the cash provider’s custodian bank
through the Fedwire Securities Service.3
Bilateral repos have some operational complexities. They
typically require the cash provider to be able to 1) keep track of
the securities collateral it receives, 2) make sure that this
collateral is adequate and valued correctly, and 3) ensure that
the proper margin has been applied. All of this requires
significant operational expertise and systems, especially for
large investors that do many repos with a variety of
counterparties.
To avoid this complicated process, a collateral provider
could offer to hold the securities, but segregate them for the
benefit of the cash providers. Such repos are called “hold in
custody,” but they are no longer popular for two reasons. First,
the cash investor may find it difficult to obtain its securities
should the collateral provider default. Second, these repos
involve the potential for fraud. These complexities are
alleviated in the tri-party repo market, which we describe later.
The bilateral repo market has two main segments, one in
which dealers borrow cash and another in which dealers lend
cash. We describe each in more detail.
3

The Fedwire Securities Service is operated by the Federal Reserve System.

The Bilateral Market in Which Dealers
Borrow Cash

Exhibit 2

The U.S. Repo Market

Some DvP repos are collateralized by a security that is in
particular demand. For example, the cash provider might want
the security for delivery against a short sale or to cure a delivery
failure. These sought-after securities are typically called
“special,” and often include the most recently issued (“on-therun”) Treasury securities. Investors are often willing to accept a
lower interest rate on a repo collateralized by a special security.
Repos involving specific securities are typically bilateral.
The cash providers in this segment of the market are usually
hedge funds and dealers. When both counterparties are dealers,
the repo does not provide net funding to the dealer community
in the aggregate, but redistributes the available cash and
specific securities among dealers. Copeland, Martin, and
Walker (2010) estimate the size of this segment of the repo
market at almost $1 trillion as of May 2012. Gorton and
Metrick (2012) provide information about haircuts in the
interdealer bilateral market.

The Bilateral Market in Which Dealers Lend Cash
In another segment of the bilateral market, dealers finance their
clients’ assets or lend cash to each other. Financing a client’s
assets is particularly convenient if the dealer holds these same
assets in custody, because the dealer can simply assert a lien on
the securities that collateralize the repo. The securities obtained
by the dealer in this process can then be rehypothecated in
other repo transactions, if the collateral provider allows it.
Copeland, Martin, and Walker (2010) estimate the size of this
segment of the repo market at almost $2 trillion as of May
2012.4 They also provide information about haircuts that
dealers require for financing their clients’ assets.

Bilateral
repo market

Bilateral cash
investors
Hedge funds
Others

Dealers’ clients
and customers
Prime brokerage
Hedge funds
Others

●

●

●

●

Tri-party
cash investors
Money market funds
Securities lenders
Others

Securities
dealers

●

●
●
●

General
Collateral
Finance
repo market

Opening leg cash
Opening leg securities

Tri-party
repo market

account to the cash investor’s securities account, and by
transferring cash from the investor’s cash account to the
dealer’s cash account. Movements in the opposite direction
occur on the closing leg of the repo (Exhibit 2).5
In addition to offering settlement and custodial services,
clearing banks provide collateral management services, such
as daily revaluation of assets, daily remargining of collateral,
and allocation of the borrower’s collateral to its lenders in
accordance with the lenders’ eligibility and risk management
constraints. As explained by Garbade (2006), clearing banks
also ensure that the collateral will be available to cash providers
if a dealer defaults.
The tri-party repo market has two main segments, described
in more detail below.

2.2 The Tri-Party Repo Market
In the tri-party repo market, a third party, called a clearing
bank, facilitates repo settlement. In the United States, two
clearing banks handle tri-party repos: Bank of New York
Mellon (BNYM) and JP Morgan Chase (JPMC). These clearing
banks settle repo transactions on their own balance sheets.
Maintaining cash and securities accounts for dealers and cash
providers, the clearing banks settle the opening leg of a tri-party
repo by transferring securities from the dealer’s securities
4

Note that adding up the size of the two segments of the bilateral repo market
would double count interdealer activity, since one dealer is borrowing and
another is lending. The available data do not allow us to separate that activity.

Tri-Party Repos Funded by Nondealers
Cash providers in this segment of the market are primarily
MMFs, securities lenders, and other institutional cash
providers, such as mutual funds, corporate treasurers, and state
and local government treasurers. These investors seek interest
income at short maturities. For some investors, overnight
repos serve as a secured alternative to bank deposits. Together,
MMFs and securities lenders account for over half of tri-party
repo lending (Copeland, Martin, and Walker 2010).
5

The mechanics of tri-party repo transactions are described in Section 4.

FRBNY Economic Policy Review / November 2012

19

Table 1

Composition and Concentration of Tri-Party Repo Collateral
June 11, 2012
Collateral Value
(Billions of Dollars)

Asset Group
Fedwire-eligible collateral
U.S. Treasuries, excluding Strips
U.S. Treasury Strips
Agency debentures and strips
Agency mortgage-backed securities
Agency collateralized mortgage obligations (CMOs)
Non-Fedwire-eligible collateral
Asset-backed securities, investment- and noninvestment-grade
CMO private-label, investment- and noninvestment-grade
Corporates, investment- and noninvestment-grade
Equities
Money market instruments
Other
Total

Share of Total
(Percent)

Concentration by Top Three Dealers
(Percent)

578.24
47.17
106.99
680.82
126.04

32.1
2.6
5.9
37.8
7.0

30.2
49.6
36.6
30.9
43.9

35.33
34.13
63.81
80.85
25.17
22.01
1,628.04

2.0
1.9
3.5
4.5
1.4
1.2

45.5
47.2
31.6
39.8
60.8

Source: Tri-Party Repo Infrastructure Reform Task Force (http://www.newyorkfed.org/tripartyrepo/margin_data.html).
Notes: “Other” includes collateralized debt obligations, international securities, municipality debt, and whole loans.
The underlying data include a total of 7,104 deals and 10,282 collateral allocations.

Dealers use the tri-party repo market mainly to obtain largescale, short-term financing for their securities inventories at a
low cost. They typically use only one of the two clearing banks
to settle their tri-party repos. Large cash providers maintain
accounts at both clearing banks in order to transact with
dealers at each of them.
The tri-party repo market is a general collateral (GC)
market, meaning that an investor may care about the class of
collateral it receives but not about the specific securities.6 The
market is the largest source of secured funding for U.S. dealers.
As shown in Table 1, U.S. Treasury securities and various U.S.
government agency obligations (mortgage-backed securities
[MBS], debentures, and collateralized mortgage obligations)
accounted for approximately 85 percent of U.S. tri-party repo
collateral in June 2012. The total amount of financing provided
in the U.S. tri-party repo market then—about $1.8 trillion—
was down from a precrisis peak of about $2.8 trillion.

6

This is in contrast to the market for special securities. Tri-party repo cash
providers typically are not interested in specific securities. In addition, as
described in Section 4, the clearing bank’s collateral allocation process does not
facilitate the allocation of specific securities to a repo. For these reasons, special
securities are not financed in the tri-party repo market.

20

Key Mechanics of the U.S. Tri-Party Repo Market

The GCF Repo Market
The GCF (General Collateral Finance) repo market is a blindbrokered interdealer market, meaning that dealers involved in
the transactions do not know each other’s identity. GCF trades
are arranged by interdealer brokers that preserve the
participant’s anonymity. Only securities that settle on the
Fedwire Securities Service can serve as collateral for a GCF repo
transaction. GCF repo trades are settled on the books of the
clearing bank using the tri-party repo infrastructure and thus
are an integral part of tri-party repo settlement.7
The GCF market has several functions for dealers. Some use
the market for a substantial share of their inventory financing, on
an ongoing basis. Dealers can also use GCF repos to fine-tune
their financing at the end of the day, lending cash if they have
secured more financing than they need or borrowing cash if they
are short. Dealers also use GCF repos for collateral upgrades,
borrowing cash against agencies’ MBS collateral and reinvesting
the cash against Treasury securities. They may choose to do this
because it is easier to finance Treasury securities than agency
MBS outside of the GCF market or because they need to make a
pledge to a central counterparty that accepts only Treasuries as
collateral. (The data in Table 1 do not include the GCF market
7

Fleming and Garbade (2003) provide an overview of the GCF market.

Table 2

Distribution of Investor Haircuts on Tri-Party Repos
June 11, 2012
Cash Investor Margin Levels
Asset Group

10th Percentile

Median

90th Percentile

Fedwire-eligible collateral
U.S. Treasuries, excluding Strips
U.S. Treasury Strips
Agency debentures and Strips
Agency mortgage-backed securities
Agency collateralized mortgage obligations (CMOs)

2.0
2.0
2.0
2.0
2.0

2.0
2.0
2.0
2.0
3.0

2.0
2.0
5.0
3.0
5.0

Non-Fedwire-eligible collateral
Asset-backed securities, investment- and noninvestment-grade
CMO private-label, investment- and noninvestment-grade
Corporates, investment- and noninvestment-grade
Equities
Money market instruments

3.0
2.0
2.0
5.0
2.0

7.0
8.0
5.0
8.0
5.0

15.0
15.0
15.0
15.0
5.0

Source: Tri-Party Repo Infrastructure Reform Task Force (http://www.newyorkfed.org/tripartyrepo/margin_data.html).
Notes: Figures are percentages. The underlying data, which are common to those underlying Table 1, include a total
of 7,104 deals and 10,282 collateral allocations.

because the market does not provide net financing to the dealer
community in the aggregate. Instead, the market allows dealers
to redistribute cash among themselves.8)

3. Tri-Party Repo Transactions
Because a repo is effectively a collateralized loan, the key terms
are the same for both: borrower and lender, maturity date, cash
loan amount, interest rate,9 collateral eligibility, margin
schedules, and the treatment of the contract in the event of
either party’s failure. For tri-party repos, the time to maturity,
or tenor, is commonly one day. Many such “overnight” repos,
however, are “rolled” for a number of successive days. A “term”
repo has a tenor of more than one day.
To establish a tri-party trading relationship, a cash provider
and a cash borrower execute a master repo agreement (MRA)
that stipulates the key elements of their prospective tri-party
8

The Federal Reserve Bank of New York and the Depository Trust and
Clearing Corporation provide data on the GCF market. See http://
www.newyorkfed.org/tripartyrepo/margin_data.html and http://
www.dtcc.com/products/fi/gcfindex/, respectively.
9
The interest rate is quoted on a standard money market basis. For example,
in U.S. dollars, the “actual/360” money market convention implies that a loan
of $100 for three days at an interest rate of 2 percent is repaid with interest of
$100 x 0.02 x 3/360.

repos, such as how a repo may be terminated and how margins
will be maintained. The MRA also outlines the conditions
under which the collateral backing the repo can be replaced by
other collateral. The borrower and lender each have, in
addition, clearing agreements with a tri-party clearing bank,
either JPMC or BNYM. Like repos, clearing agreements are
exempt from bankruptcy stays, which allows these agreements
to terminate in the event of bankruptcy, giving the collateral
holder the immediate right to use or dispose of the collateral.10
Finally, a custodial undertaking agreement (CUA), executed by
the two MRA signatories as well as the clearing bank,
establishes the clearing bank as the tri-party agent for this
lender-borrower relationship and documents the lender’s
collateral eligibility criteria.11
An annex to the custodial agreement stipulates the haircuts
applicable to each class of collateral that the investor will
accept. Hence, the haircut is not negotiated on a trade-by-trade
basis. The haircut may depend on a number of factors,
including the historical price volatility for the asset type, the
loan term, and the identity of the dealer.12
10

Clearing agreements are “securities contracts,” exempt from automatic stays,
preferences, and other bankruptcy rules. See Duffie and Skeel (2012).
11
The annexes of the CUA contain schedules that define the eligible collateral
for a particular type of repo as well as the haircut for each collateral type.
Section 4.2 provides more detail.
12
Copeland, Martin, and Walker (2010) explain that haircuts depend on the
dealer.

FRBNY Economic Policy Review / November 2012

21

Table 2 provides summary statistics for the cross-sectional
distribution of overnight haircuts set in the U.S. tri-party repo
market in May 2011.13 The median haircut applied to U.S.
Treasuries was 2 percent, while the median haircuts on
corporate bonds and equities were 5 percent and 8 percent,
respectively, reflecting their generally higher volatility or lower
liquidity compared with Treasuries. The annex to the custodial
agreement may also specify concentration limits, such as no
more than 40 percent agency securities and no more than
25 percent corporate bonds.
Once these various contracts are in place, dealers can engage
in tri-party repo transactions with cash providers. They
negotiate the interest rate, the type of eligible collateral, the
tenor, and the size of each repo. Typically, a dealer’s repo
traders call investors in the morning to arrange new repos.
Industry participants report that 80 to 90 percent of tri-party
repo funding is arranged before 10:00 a.m. In some cases, such
as for a large fund complex, a deal is negotiated in the morning
but the allocation to specific funds within the complex is not
indicated until later in the day. Some trades, however, are
arranged later in the day. For example, MMFs that accept
redemptions from their investors until late in the afternoon
would not know the amount of cash they will invest until that
time.
Dealers and investors have incentives to maintain the
quality of their relationships, so they try to accommodate each
other’s needs when possible. This may occur if an investor
experiences some unexpected changes in available cash. For
example, a dealer may allow some classes of investors, such as
MMFs, to deviate by up to 10 percent from the originally
agreed-upon deal size. If a dealer lacks sufficient amounts of
eligible securities, it will typically post cash collateral, which is
generally acceptable. In this case, however, the dealer pays
interest on this component of the repo without borrowing any
net amount of cash. Each day, a clearing bank settles the
opening legs of new repos as well as the closing legs of any repos
to be settled on that day, acting as agent for both the borrower
and lender. As we explain in Section 4, the dealer and its
clearing bank have some discretion with regard to the specific
packages of collateral to allocate to each repo deal, subject to
meeting the deal’s collateral requirements. The clearing bank is
heavily involved in the collateral allocation process and in the
transfer of cash and securities between the accounts of the
borrower and lender.

3.1 The Role of the Clearing Banks
as Intraday Investors
The financial strains experienced by several dealers, including
Bear Stearns and Lehman Brothers, during the financial crisis
of 2007-09 highlighted the fact that the two tri-party clearing
banks are not only agents, but also the largest creditors in the
tri-party repo market on each business day. This daytime
exposure is associated with the unwind of repos, a process by
which the clearing banks send cash back to investors and
collateral back to dealers, regardless of whether a repo is
expiring.14
Between the time of the unwind and the time at which new
trades are settled near the end of the business day, dealers
must finance the securities that serve as repo collateral.
During this transition period, the clearing banks provide
financing to dealers, collateralized by the dealers’ securities.15
This provision of intraday credit creates multiple risks.
The exposure of a clearing bank to a single dealer can
routinely exceed $100 billion (Federal Reserve Bank of New
York 2010). In the event that a dealer fails, its clearing bank
could, in an unexpected situation, discover that the market

The financial strains experienced by
several dealers, including Bear Stearns
and Lehman Brothers, during the financial
crisis of 2007-09 highlighted the fact that
the two tri-party clearing banks are not
only agents, but also the largest creditors
in the tri-party repo market on each
business day.

value of the collateral provided by the dealer is insufficient to
cover the amount owed to the clearing bank. The stability of
the clearing bank could also be threatened if it decides instead
to hold the collateral on its own balance sheet, thereby
increasing its leverage.
The vulnerability of a clearing bank to a troubled dealer is
intensified by “wrong-way” risk, meaning that, in a crisis
situation, the failure of a dealer may be correlated with a
14

The unwind process is described in more detail in Section 4.
Clearing banks may apply a haircut to the intraday repo financing of dealer
inventories. United States Bankruptcy Court (2010, pp. 1095-1102) documents
that one clearing bank increased haircuts abruptly during the crisis to a level
that, in some cases, exceeded those charged by cash providers.

15
13

Monthly data back to May 2010 are available at http://www.newyorkfed.org/
tripartyrepo/margin_data.html.

22

Key Mechanics of the U.S. Tri-Party Repo Market

sudden reduction in the market value of some securities that
collateralize the dealer’s tri-party repos. Moreover, an attempt
by a clearing bank to lower its exposure to a failed dealer
through a sudden “fire sale” of the collateral could itself reduce
the value of that collateral, thus exacerbating the losses to the
clearing bank and to other market participants that hold
positions in the same or similar assets. This danger buttresses
the importance of the Primary Dealer Credit Facility (PDCF),
introduced by the Federal Reserve Bank of New York during
the financial crisis (Adrian, Burke, and McAndrews 2009). The
PDCF provided an alternative source of financing for collateral
that might otherwise have been liquidated in a fire sale; such a
liquidation could have potentially destabilized the markets and
eroded the capital of these asset holders.
As explained by Duffie (2010), the exposure of tri-party
clearing banks to securities dealers also represents a
potential danger to any dealer whose credit quality becomes
suspect. A clearing bank refusing to unwind the repos of such
a dealer could suddenly and fatally restrict that dealer’s ability
to finance itself. Section 4 explains how the daily morning
“handoff” of dealer exposure from cash providers to the
clearing bank creates an incentive for the clearing bank to pull
away from granting credit to a dealer in the event of concerns
over that dealer’s credit quality. In the case of Lehman
Brothers, such instances are documented by Anton R. Valukas
in his report as bankruptcy examiner (United States
Bankruptcy Court 2010) and by the report of the Financial
Crisis Inquiry Commission (2011).
Concerns over the failure of a large dealer arise in part from
the stress likely to spread to other financial markets, as was the
case with the run on MMFs following the failure of Lehman
Brothers. This run was triggered when the Reserve Primary
Fund announced large losses on its investments in Lehman
commercial paper. From September 9 to September 30, 2008,
institutional investors withdrew approximately $450 billion
(about one-third of their assets) from “prime” MMFs.16
Significantly greater redemptions would likely have occurred
had the U.S. Treasury not quickly guaranteed the performance
of money market funds, an action that it has pledged not to
take in the future (McCabe 2010).

complicated than expected by the industry task force charged with
the reform, and has therefore become a focus. The second is the
morning unwind, the process by which clearing banks return cash
to lenders’ cash accounts and the collateralizing assets to dealers’
securities accounts.

4.1 The Afternoon Collateral Allocation
Process
In the afternoon, new repo deals must be settled.17 This
process, which occurs on the books of the clearing bank,
consists of transfers of cash from the clearing accounts of the
investors to those of the dealers, and transfers of securities from
the clearing accounts of the dealers to those of the cash
providers. The dealer’s objective is to allocate its collateral to
lenders in a way that is efficient from the viewpoint of financing
costs and collateral usage, while meeting each lender’s criteria
for acceptable portfolios of collateral. This can present a

Two key processes in the U.S. tri-party
repo market contributed to its fragility
during the financial crisis of 2007-09 and
have delayed the current market reforms.

relatively high-dimensional and complex mathematical
programming problem because of the number of deals
available to each dealer as well as the number and types of
constraints on collateral imposed by individual cash providers.
The allocation process is the responsibility of the dealer’s
clearing bank, although in many cases a dealer may become
involved. This section provides a general overview of the
allocation process in a typical U.S. tri-party repo setting.

The Dealer’s Problem

4. Key Market Mechanics
Two key processes in the U.S. tri-party repo market contributed to
its fragility during the financial crisis of 2007-09 and have delayed
the current market reforms. The first is the afternoon collateral
allocation process. The redesign of this process has proved more

A large dealer might have tri-party repo relationships with, say,
twenty or more significant cash providers. Each relationship
can involve many different deals on a given day. For example,
the tri-party repo relationship between a dealer and an asset
manager responsible for a mutual fund complex could involve
cash loans to the dealer from each of a number of mutual funds
17

16

The data are provided in Duffie (2010).

In addition, following the unwind process, term and rolling repos must also
be rewound.

FRBNY Economic Policy Review / November 2012

23

in the complex. Even a particular mutual fund may lend cash to
the dealer through more than one tri-party repo deal on a given
day. Each deal represents, in effect, a loan of cash for a given
term, collateralized by a portfolio of securities meeting
requirements that are stipulated in the tri-party agreement
negotiated in advance by the cash investor and the dealer. The
interest rate on the loan depends on the types of securities
identified as eligible collateral.
Each cash investor has a “rule set” governing the portfolio of
collateral that is acceptable under its repo agreement. The rule
set is a collection of restrictions on the acceptable types of
collateral (defined by issuer type, issuer name, security
identifier [such as CUSIP], maturity, credit quality, currency,
and many other properties) as well as concentration limits
across types of securities. A basic rule set simply specifies the
acceptable types of collateral and the associated haircuts.

A large dealer might have tri-party repo
relationships with, say, twenty or more
significant cash providers. Each
relationship can involve many different
deals on a given day.

Indeed, for U.S. Treasuries, agency debt, and agency MBS,
which constitute the majority of the U.S. tri-party repo market,
deals are often arranged with a specific security type in mind.
The rule set is part of the CUA signed by the cash investor, the
collateral provider, and the clearing bank.
Typical rule sets have evolved, becoming more complicated
over time, especially for repos that may be backed by equities or
non-Fedwire–eligible collateral.18 For example, a rule set might
specify “Only U.S. Treasuries, agency securities, and investmentgrade, U.S.-dollar corporate bonds are acceptable. No more than
30 percent of the portfolio may be corporate bonds.” The language
of a tri-party repo master agreement is, of course, more precise
than this description, which we offer only for illustration.

Timing
In the current market infrastructure, the collateral allocation
process takes several hours, extending from about 3:00 p.m. to
6:00 p.m. or, for some dealers, to 6:30 p.m. The lateness of the
allocation process is due to a number of factors.
18

Fedwire-eligible collateral is collateral settled on the Fedwire Securities
Service.

24

Key Mechanics of the U.S. Tri-Party Repo Market

Some of a dealer’s Fedwire-eligible securities, primarily U.S.
Treasury and agency securities, are not available in its “box,”
the set of securities to which it holds title, until the Fedwire
Securities Service’s 3:30 p.m. close for interbank transactions.
The visibility of their holdings of Fedwire-eligible securities is
limited prior to 3:30 p.m., so dealers prefer to begin allocating
these securities to tri-party deals no earlier than this time.
Most dealers also trade in the GCF repo market. A dealer
may choose—or, depending on its available securities, need—
to wait for its GCF trades to settle before completing some of its
tri-party repo allocations. Settlement of GCF repos can last
until 4:30 p.m. or, on certain days, until 5:00 p.m. The length
of this settlement period can lead to significant additional
delays in the completion of the tri-party collateral allocation
process.
Equities can be allocated to repos from the accounts that
dealers hold at the Depository Trust Company (DTC). As with
the handoff of GCF repo collateral, the receipt of DTC-eligible
collateral may need to occur before some tri-party repo deals
can be settled. Currently, DTC-eligible collateral becomes
available as late as 4:30 p.m., although dealers may obtain
partial delivery before that time if all DTC liens against the
collateral have been released.
Although the tri-party collateral allocation process can
begin before all DTC-eligible collateral is available and before
all GCF repos are settled, it usually cannot be completed until
these other steps have themselves been completed. In addition
to delays caused by the timing of the handoffs of collateral
involving Fedwire, DTC, and the FICC, the collateral allocation
process itself takes considerable time because many dealers
choose to “manually” intervene in this process, for reasons that
will be discussed.

Mechanics of the Allocation Process
The allocation process for each dealer has two basic steps.
In the first, the dealer’s allocation decision problem is solved,
manually or with the assistance of mathematical programming
software. The solution is a set of portfolios of securities, one for
each repo. The second step is the transfer of title to these
securities out of the dealer’s box and into the collateral
accounts that cash providers hold at the clearing bank. This
transfer of title is made against transfers of cash from the cash
providers’ accounts (at the clearing bank) into the borrowing
dealer’s cash account (at the clearing bank).
To facilitate the first step, the clearing banks make their
collateral allocation systems available to the dealers. A common
algorithm orders the repo deals, typically from least to most

Collateral Allocation Algorithms
For purposes of software input, a cash provider’s rule set is
converted into a combination of mathematical restrictions. For
example, a concentration limit can be specified in terms of a linear
inequality constraint of the form

C  k n  : b  1 k n x  1 n  + b  2 k n x  2 n  + 
+ b  m k n x  m n   c  k n  ,
where x(i,n) is the market value of security number i allocated to
deal n, b(i,k,n) is the contribution of security i to constraint k of
deal n, and c(k,n) is the constraint maximum, such as the allowable
market value of securities that may be allocated under the k-th
constraint of deal n.
For instance, if the cash loan size of deal n is $100 million and if
the k-th constraint on this deal specifies that no more than
30 percent of the collateral (after haircuts) may be investmentgrade corporate bonds, and if the associated haircut implies
multiplication by a factor of 1.05, then c(k,n) = $31.5 million and
b(i,k) = 1 if the i-th security in the dealer’s “box” is a corporate
bond; otherwise, b(i,k) = 0.
Constraints that rule out securities of a particular type, such as
speculatively rated corporate bonds, can be specified by a constraint
of the form “x(i,n) = 0” for any security i of the excluded type.
Rules can be combined via “logical and” and “logical or”
operations. For example, a rule set could require:

C 1 n  AND C  2 n  AND C 3 n 
OR  C  1 n  AND C  4 n   ,
meaning that the allocation to the n-th deal must meet all of the
restrictions C(1,n), C(2,n), and C(3,n)—or, alternatively, can be
satisfied by meeting restrictions C(1,n) and C(4,n).
There can also be cross-deal concentration limits associated with
groups of deals from the same dealer client. Of course, there are also
cross-deal constraints associated with the dealer’s total available
amounts of each security, which can be specified in the form
x  i 1  +  + x  i N   v  i  ,
where N is the total number of deals to be populated with collateral
and v(i) is the total market value of security i in the dealer’s “box”
available for allocation. Of course, there is also a nonnegativity
restriction on x(i,n) for all i and n.
This mathematical description of the problem constraints does
not necessarily explain the software or methods actually used by
clearing banks; rather, it is used here to illustrate the underlying
nature of the problem.

restrictive in their collateral concentration limits, and ranks the
collateral, typically from lowest to highest quality. The repo
deals are then allocated collateral, one by one, with assets in
rank order. Some dealers, particularly small ones, use this
algorithm to allocate their entire tri-party repo books.

For a given dealer, a simple allocation algorithm could begin by
determining preliminary allocations, deal by deal, taking some
particular dealer-specified ordering of deals (or “deal sort”), such
as “largest deal first.” The dealer may also rank the available
collateral in the order that it wishes to have the collateral allocated,
with the most desired ranked first. Dealers often prefer to conserve
their most liquid securities, such as U.S. Treasuries, by first
allocating relatively illiquid ones.
For example, a simple algorithm would allocate securities, type
by type, with the highest-ranked security allocated first, to deals in
the given deal order, until the available quantity of the given type
of security is exhausted or until each deal has the maximum
amount of that security consistent with its concentration limits.
This iterative algorithm is not an explicit optimization, beyond the
desired effects of security rankings and deal order.
An explicit optimization algorithm could, for instance,
maximize the total quantity of financing from deals that can be
collateralized with the available pool of securities. Alternatively,
the algorithm could be designed to minimize the dealer’s net
interest expense for financing the dealer’s securities (the “cost of
carry”) or to minimize the use of margin (that is, other things
equal, show preference to deals with lower average haircuts).
Various forms of optimization criteria could be tried, allowing the
dealer to select the preferred allocation among the resulting
outputs.
If an allocation algorithm is unable to populate all of the deals
with the initially available pool of dealer collateral, the dealer may
then “upgrade” the collateral pool. For example, in order to achieve
a feasible allocation, the dealer could upgrade the basket of available
securities by adding some U.S. Treasuries, which are typically
accepted in most deals. A dealer may even complete a collateral
package with cash. The dealer’s upgrade schedule can be priority
ranked, with the most desired collateral to be allocated ranked first.
If, even with upgrades, the amount and mix of collateral are
insufficient to cover all deals, some rationing algorithm must be
used, unless the dealer is able to renegotiate some trades. A dealer
could have sufficient amounts of financing, but nevertheless fail on
some deals because of insufficient collateral. In such a case, the
dealer could prioritize specific clients, or give preference to older
deals or those that could be collateralized with securities from
markets that have already closed.

Some dealers feel they can achieve a better collateral
allocation with a “script,” each step of which uses the rankingbased algorithm described above but applied only to a
restricted set of deals and a restricted set of collateral. For
example, one step could be to allocate a dealer’s Treasury

FRBNY Economic Policy Review / November 2012

25

collateral to deals that accept only Treasuries. By using this
approach, dealers can better control the allocation process.
This method has the benefit of not requiring a CUSIP-level
specification of the allocation of securities. (The box provides
additional details on collateral allocation algorithms.)
The collateral allocation systems used by the clearing banks
do not have filters that are sufficiently granular to meet some
cash providers’ collateral requirements. For example, some
investors may accept residential MBS but not commercial
MBS. If the clearing bank’s system is unable to distinguish
between these two types of mortgage-backed securities, the
collateral allocation process may require a dealer’s manual
intervention. Similarly, a clearing bank’s system for
distinguishing between the credit ratings of corporate bonds
may not be sufficiently granular to accommodate the rules

The collateral allocation systems used by
the clearing banks do not have filters that
are sufficiently granular to meet some
cash providers’ collateral requirements.

applied by some cash providers. In such instances, dealers must
manually allocate collateral to some of their deals at the CUSIP
level, specifying exactly which collateral to allocate to each repo.
Another motive for a dealer to override its clearing bank’s
automated collateral allocation mechanism and manually
intervene is the belief by the dealer that it can achieve a more
efficient allocation of its collateral. Ideally, the allocation
process maximizes the amount of financing that can be
obtained from a given pool of collateral, or minimizes the
dealer’s all-in net cost of financing, including the effect of
haircuts. The use of the clearing banks’ automated allocation
systems, and the avoidance of “manual overrides,” is therefore
promoted by the sophistication of the optimization algorithms
used in these systems.

4.2. The Morning Unwind
Under market arrangements in place during the crisis, each
morning between 8:00 and 8:30, the clearing banks would unwind
all tri-party repo trades, including term and rolling repos not
maturing that day.19 Recall from Section 3 that the return of cash
to investors creates a need for dealers to find another source of
financing until the day’s trades and other outstanding trades are

26

Key Mechanics of the U.S. Tri-Party Repo Market

settled in the evening. This financing is provided by the clearing
banks, which extend intraday secured credit to the dealers in the
form of repos to finance essentially all of their securities until the
lenders’ funds settle in the evening.
The clearing banks apply a risk management concept known
as net free equity (NFE) to ensure that the market value of the
dealer’s securities held at the clearing bank, including the effect
of haircuts, exceeds the value of the intraday loans provided to
the dealer. Dealers may also keep securities that are not
financed through tri-party repos in their accounts at the
clearing bank, increasing their NFE.
A complete unwind of all repos, and not merely those
maturing, is an operationally simple process. An alternative
would be a process by which dealers could substitute collateral
(including cash) into repo deals without unwinding them, in
order to extract a needed security, possibly at multiple points in
the business day. Through-the-day collateral substitution is
prevalent in European tri-party repo markets. By contrast, the
U.S. clearing banks have offered some automated collateral
substitution capabilities to U.S. tri-party repo market
participants only since June 2011.
Unwinds are at the discretion of the clearing bank. This
significant fact was not well understood by some market
participants prior to the financial crisis. In the event that a
clearing bank becomes concerned about a dealer’s credit
quality—fearing, for example, that the dealer might declare
bankruptcy during the coming day—the clearing agreement
between a dealer and a tri-party clearing bank normally gives
the clearing bank the right to protect itself by not unwinding.
This would leave the original tri-party cash providers exposed
to the dealer, but still holding the dealer’s collateral.
A clearing bank’s failure to unwind a dealer’s tri-party repos
would almost certainly force that dealer into default because
the dealer would not be able to deliver promised securities.
Moreover, investors would likely refuse to continue funding
the dealer. Cash providers would then have possession of the
securities backing the repos and could be forced to liquidate
some or all of them.
A special concern is that U.S. money market mutual funds
accept as repo collateral some types of securities that they are
not permitted, under Rule 2a-7 of the Investment Company
Act, to hold on their balance sheets. For example, an MMF may
not be able to hold a ten-year Treasury note, given the
regulatory maximum maturity of thirteen months for an
MMF’s assets.

19

On August 22, 2011, the unwind moved to 3:30 p.m. As of the end of 2011,
one clearing bank does not systematically unwind the term repos of some
investors.

5. Conclusion
This article reviews some key mechanics that played a role in
the systemic weaknesses of the U.S. tri-party repo market
revealed during the financial crisis of 2007-09. These
weaknesses have proved an obstacle to industry reform efforts,
which started in September 2009 and are currently incomplete.
The collateral allocation process in the tri-party repo market
currently requires a considerable amount of time, partly
because of the desire of some dealers to intervene in this
process. In addition, the need to settle in the GCF market
before the rest of the tri-party repo market only extends the
length of the process. Settling in the GCF market also requires
coordination between the Fixed Income Clearing Corporation
and the clearing banks as well as communication between their
systems. A similar form of coordination is required with the
Depository Trust Company. The time required to allocate
collateral makes it difficult to settle new and expiring repos
simultaneously and thus to reduce the dealers’ reliance on
credit from their clearing banks. This factor has been an
obstacle to ongoing reforms of the tri-party repo market.
The daily time gap between the unwind and rewind of repos
drives much of the demand for intraday credit from the
clearing banks, contributing to the fragility of the market in
several ways. First, the gap between unwind and rewind means
that there is a twice-daily transfer of exposure from a dealer’s
investors to its clearing bank, and then from its clearing bank
back to its investors. This handoff can create a perverse
dynamic if the dealer comes under stress, as both the cash
investor and the clearing bank may want to be the first to
reduce exposure to the dealer.
Moreover, if a dealer declares bankruptcy during part of the
day, its clearing bank could be weakened. This could create

spillovers to other dealers that use this clearing bank for their
tri-party activity, because investors may fear exposure to the
clearing bank. It could also lead cash providers whose cash
accounts are at the clearing bank to demand their cash on short
notice, further exposing the clearing bank or promoting a fire
sale of some collateral.
Finally, a dealer failure could disrupt the clearing bank’s
ability to function and thus undermine its ability to conduct
other important payment, clearing, and settlement activities.
This could not only destabilize the tri-party repo market, but
also serve as a channel for transmitting systemic risk more
broadly throughout U.S. and even global financial markets.
In principle, a collateral allocation process that allows for
the simultaneous settlement of new and expiring repos would
eliminate the gap between unwind and rewind, reducing the
dealers’ need for intraday credit. The clearing banks could
design a collateral allocation system that achieves the various
optimization objectives desired by dealers, thereby removing
the incentive for them to manually intervene in the process.
The resulting collateral allocation process would also need to
be transparent to investors, allowing them to evaluate their
own settlement risks.
The U.S. tri-party repo market is one of the most important
components of the financial system. Improving the collateral
allocation process and eliminating the time gap between the
unwind and rewind of collateral would help reduce the fragility
of the market and the amount of risk in the financial system.

Darrell Duffie has potential conflicts of interest that may be reviewed on his
webpage (www.stanford.edu/~duffie/). Among these, he is a member of the board
of directors of Moody’s Corporation and has been retained as a consultant by the
estate of Lehman Brothers Holdings Inc. on matters potentially related to the
subject of this article.

FRBNY Economic Policy Review / November 2012

27

References

Adrian, T., C. Burke, and J. McAndrews. 2009. “The Federal Reserve’s
Primary Dealer Credit Facility.” Federal Reserve Bank of New York
Current Issues in Economics and Finance 15, no. 4 (August).
Copeland, A., I. Davis, E. LeSueur, and A. Martin. 2012. “Mapping and
Sizing the U.S. Repo Market.” Federal Reserve Bank of New York
Liberty Street Economics blog, June 25. Available at http://
libertystreeteconomics.newyorkfed.org/2012/06/mapping-andsizing-the-us-repo-market.html.

Financial Crisis Inquiry Commission. 2011. “The Financial Crisis
Inquiry Report: Final Report of the National Commission on the
Causes of the Financial and Economic Crisis in the United States.”
January. Available at http://www.gpo.gov/fdsys/pkg/GPO-FCIC/
pdf/GPO-FCIC.pdf.
Fleming, M., and K. D. Garbade. 2003. “The Repurchase Agreement
Refined: GCF Repo®.” Federal Reserve Bank of New York
Current Issues in Economics and Finance 9, no. 6 (June).

Copeland, A., A. Martin, and M. W. Walker. 2010. “The Tri-Party Repo
Market before the 2010 Reforms.” Federal Reserve Bank of
New York Staff Reports, no. 477, November.

Garbade, K. D. 2006. “The Evolution of Repo Contracting
Conventions in the 1980s.” Federal Reserve Bank of New York
Economic Policy Review 12, no. 1 (May): 27-42.

Duffie, D. 2010. How Big Banks Fail and What to Do about It.
Princeton, N.J.: Princeton University Press.

Gorton, G., and A. Metrick. 2012. “Securitized Banking and the Run on
Repo.” Journal of Financial Economics 104, no. 3 (June): 425-51.

Duffie, D. Forthcoming. “Replumbing Our Financial System: Uneven
Progress.” International Journal of Central Banking.
Available at http://darrellduffie.com/uploads/working/
DuffieReplumbingJuly2012.pdf.

Hördahl, P., and M. R. King. 2008. “Developments in Repo Markets
during the Financial Turmoil.” BIS Quarterly Review,
December: 37-53. Available at http://www.bis.org/publ/qtrpdf/
r_qt0812e.pdf.

Duffie, D., and D. Skeel. 2012. “A Dialogue on the Costs and Benefits
of Automatic Stays for Derivatives and Repurchase Agreements.”
In Kenneth E. Scott and John B. Taylor, eds., Bankruptcy Not
Bailout: A Special Chapter 14. Palo Alto, Calif.: Hoover
Institution Press.

McCabe, P. E. 2010. “The Cross Section of Money Market Fund Risks
and Financial Crises.” Board of Governors of the Federal Reserve
System Finance and Economics Discussion Series
no. 2010-51, September.

Federal Reserve Bank of New York. 2010. “Tri-Party Repo
Infrastructure Reform.” White paper, May 17. Available at http://
www.newyorkfed.org/banking/nyfrb_triparty_whitepaper.pdf.

United States Bankruptcy Court, Southern District of New York. 2010.
In re Lehman Brothers Holdings, Inc., et al., Debtors.
“Report of Anton R. Valukas, Examiner.” Chapter 11,
Case no. 08-13555 (JMP), March 11.

The views expressed are those of the authors and do not necessarily reflect the position of the Federal Reserve Bank of New York
or the Federal Reserve System. The Federal Reserve Bank of New York provides no warranty, express or implied, as to the
accuracy, timeliness, completeness, merchantability, or fitness for any particular purpose of any information contained in
documents produced and provided by the Federal Reserve Bank of New York in any form or manner whatsoever.
28

Key Mechanics of the U.S. Tri-Party Repo Market

Adam Ashcraft, Allan Malz, and Zoltan Pozsar

The Federal Reserve’s Term
Asset-Backed Securities
Loan Facility
• The securitization markets for consumer and
business ABS and CMBS came to a nearcomplete halt in the fall of 2008, when investors
stopped participating in these markets.

• ABS markets supply a substantial share of
credit to consumers and small businesses,
so their disruption threatened to exacerbate
the downturn in the economy.

• On November 25, 2008, the Federal Reserve
announced the creation of the TALF program
to address the funding liquidity problem in
securitization markets.

• Under the program, the Federal Reserve
extended term loans collateralized by
securities to buyers of certain high-quality
ABS and CMBS, with the intent of reopening
the new-issue ABS market.

• Through the TALF program, the Federal
Reserve was able to prevent the shutdown of
lending to consumers and small businesses,
while limiting the public sector’s risk.

Adam Ashcraft is a senior vice president in the Federal Reserve Bank of
New York’s Credit and Payments Risk Group; Allan Malz is a vice president
and senior analytical advisor in the Bank’s Markets Group and former head
of policy and analytics for TALF; Zoltan Pozsar was a senior trader/analyst
in the Markets Group when this article was written.
Correspondence: adam.ashcraft@ny.frb.org, allan.malz@ny.frb.org

1. Introduction

I

n the fall of 2008, investors stopped participating in
securitization markets. They fled not only the residential
mortgage-backed securities that triggered the financial crisis,
but also consumer and business asset-backed securities (ABS),
which had a long track record of strong performance, and
commercial mortgage-backed securities (CMBS).
The rapid disintermediation of money market funds
following the collapse of Lehman Brothers had a dramatic
impact on the investor base for structured credit, which
included short-term funding from money funds through
repurchase agreements and asset-backed commercial paper
(ABCP) issuance. With no buyers and plenty of distressed
sellers, the price of structured credit bonds quickly
incorporated large liquidity premiums, which significantly
increased the cost of new issues and, consequently, the cost
of originating new loans. The unprecedented widening of
structured credit spreads rendered new issuance uneconomical,
and the shutdown in term funding markets for issuers
contributed to a contraction in credit that threatened to
exacerbate the downturn in the economy.
Programs such as the U.S. Treasury’s guarantee of money
funds and the Federal Reserve’s Asset-Backed Commercial
Paper Money Market Mutual Fund Liquidity Facility (AMLF)
supported the orderly liquidation of prime money market fund

The authors thank, without making them responsible for any errors, their
colleagues who provided help with this article: Tobias Adrian, Elizabeth
Caviness, Kevin Clark, Andrew Haughwout, Preeti Jain, Jordan Pollinger, Ira
Selig, Natasha Zabka, and Alessandro Zori. These and many other colleagues
at the New York Fed, the Federal Reserve Board, and a number of District
banks also invested countless hours and endless ingenuity in making the TALF
program work—a contribution far more important than this modest attempt
to document their work.
FRBNY Economic Policy Review / November 2012

29

positions. However, it was the Term Asset-Backed Securities
Loan Facility (TALF) and Commercial Paper Funding Facility
(CPFF) that helped stabilize funding markets for issuers. TALF
extended term loans, collateralized by the securities, to buyers
of certain high-quality asset-backed securities and commercial
mortgage-backed securities.
Without support by the public sector, it could have taken
considerable time for a market-clearing price of leverage to
reemerge, and that likely would have initially occurred only at
financing rates and other terms that would have made funding
costs prohibitive for well-underwritten structured credit. TALF
endeavored to fill the balance sheet vacuum left in the wake of
the withdrawal of levered ABS investors and to short-circuit the

Without support by the public sector, it
could have taken considerable time for
a market-clearing price of leverage to
reemerge, and that likely would have
initially occurred only at financing rates
and other terms that would have made
funding costs prohibitive for wellunderwritten structured credit.

seemingly endless cycle of ABS spread-widening, by providing
term asset-backed funding otherwise unavailable to investors.
By reopening the new-issue ABS market, the regular flow
of assets from loan originators to loan warehouses and to
new-issue ABS and finally ABS investors would be restored,
ultimately supporting the provision of credit to consumers
and small businesses.
An important liquidity effect of the shutdown of securitization markets was the disappearance of price observations.
In the absence of benchmark securitization transactions and
secondary-market trading, lenders had poor information
about their cost of funding. By promoting the new issue and
trading of structured credit, TALF aimed to reduce uncertainty
to issuers about their funding costs, making it more attractive
to originate new loans.
TALF loans could be secured by certain newly issued ABS
and CMBS as well as by certain previously issued, or “legacy,”
CMBS. The legacy CMBS program was intended to support
new-issue CMBS by facilitating trading and price discovery,
while also reducing liquidity premiums. Secondary-market
spreads constitute hurdle rates for new issuance, since potential

30 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

investors have the choice of buying bonds in the secondary
market rather than the new-issue market. These spreads
were wide enough in late 2008 to make ultimate loan rates
uneconomical. Even after accounting for investors’ distaste for
the low underwriting standards associated with late-vintage
CMBS deals, secondary-market spreads were an impediment to
making the economics of new issuance work. To the extent that
the market was expressing aversion to legacy CMBS assets as
opposed to the CMBS asset class as a whole, the legacy program
could address this by funding leveraged investors’ purchases
of even the safest bonds from otherwise toxic CMBS deals.
Tighter legacy CMBS would reduce the cost of new loans by
reducing investors’ opportunity costs.
In an environment of impaired funding liquidity, many
investors wished to have drastically lower leverage, but were
unwilling to sell assets at distressed prices. Some potential
investors would be hindered from buying new securitization
bonds if they could not first reduce the size of their balance
sheets, and they could not do so without a levered bid for
the assets. The legacy program was also intended to reverse
the depletion of capital caused by market illiquidity for
institutions holding these bonds, thus directly reducing their
leverage and better positioning them to issue new commercial
real estate loans.
TALF played a significant role in the policy response to
the financial crisis. This article suggests that TALF made an
important contribution to preventing the securitization
markets from shutting down entirely and abruptly. The
program appears to have done so through its intended effects
on market and funding liquidity, which in turn restored pricing
levels that were compatible with continued credit intermediation through the securitization channel, albeit at lower
volumes. While TALF was successful in reviving securitization
markets where liquidity was the fundamental problem, it did
not prevent a significant collapse in the amount of credit
intermediation. The collapse in credit provided by both banks
and nonbank investors through securitization has declined
dramatically, owing in part to lower demand for credit and
in part to a reduction in the supply of credit by lenders,
each related to the severe economic downturn.
Because of its unusual features compared with the Federal
Reserve’s other emergency liquidity programs, TALF touches
on a number of interrelated research and policy issues in
economics and finance, including the scope of the central
bank’s lender-of-last-resort function, the monetary policy
transmission mechanism, the nature of liquidity, and the risk
management of complex products. While this article cannot
address them all, it does at least call attention to the wide range
of issues that the TALF experience has raised.

Chart 1

Our study proceeds as follows. We begin by reviewing the
crisis events to which the TALF responded. We then describe
the thinking behind the design of the facility. Finally, we
attempt to measure the extent to which the program succeeded.

Net Credit Intermediation by Commercial Banks
and Issuers of Asset-Backed Securities (ABS)
Billions of dollars, annual rate

1,000

ABS issuers

800
600

2. Background to the Collapse

U.S. commercial banks

400
200

Securitization involves the sale of a pool of loans or receivables,
generally referred to as collateral, to a bankruptcy-remote trust,
which issues bonds called asset-backed securities, or ABS. If the
loans are mortgages secured by residential or commercial real
estate, the securities are called residential mortgage-backed
securities, or RMBS, or commercial mortgage-backed
securities, or CMBS.1 The process generally involves tranching,
which allocates principal and/or losses from the collateral in a
certain order to those bonds, with those receiving principal
first and losses last being the most senior. In the development
of securitization markets, the fineness of ABS tranching
increased and the investor base for ABS shifted from
traditional buy-and-hold investors (such as pensions) to
investors relying on short-term borrowing (such as
structured investment vehicles, or SIVs).
In this sketch of the securitization markets’ evolution up
until the crisis, we highlight two key features: 1) in aggregate
financial intermediation, the share of nonbanks, which rely
more heavily than banks on ABS for funding, grew, and 2) to
finance purchases of ABS, investors increasingly relied on
short-term funding markets, which were disrupted following
the collapse of Lehman.

2.1 Nonbanks Have Become an Important
Part of the Origination of Credit
Over the prior quarter-century, securitization has played an
increasing role in credit intermediation. Chart 1 plots credit
intermediation by commercial banks and ABS issuers. These
data on net issuance of securitized credit products include
residential mortgages as well as consumer and small-business
debt and commercial mortgages. The chart illustrates that,
from near zero in 1984, ABS issuance reached levels on a par

0
-200
-400
-600
-800
1990 92

94

96

98

00

02

04

06

08

10

Source: Federal Reserve Statistical Release Z.1, “Flow of Funds
Accounts of the United States.”

with bank lending by the beginning of the last decade. When
the recent credit crunch hit, ABS issuance dropped much more
rapidly than bank lending. New issuance disappeared, and net
issuance, which excludes amortization and repayment of
outstanding bonds, turned negative in 2008.
The types of institutions that supplied consumers and small
businesses with credit have changed since the 1980s. Banks
became less and less important intermediaries of auto loans,
student loans, and equipment loans—to name the largest
categories—and were displaced by finance companies2 as the
main originators of these types of credit. There are also several
other niche loan types, such as auto dealer floorplan loans and
franchise loans, which finance dealer inventories or the
purchase of a franchise. In these categories as well, finance
companies have taken over from banks as the main lenders.
Among the primary providers of different types of credit
just prior to the financial crisis, auto finance companies and the
captive finance arms of foreign auto manufacturers topped
banks in terms of the total volume of auto loans, leases, and
dealer floorplan loans. Nonbank lenders dwarfed banks in the
volume of student loans originated. The captive finance arms
of big-ticket equipment manufacturers had overtaken banks in
the issuance of equipment loans, leases, and diversified
floorplan loans. Equipment finance companies had become
2

1

The term ABS generally refers to bonds backed by both mortgage and
nonmortgage loans and receivables, but is sometimes used more narrowly to
mean only bonds backed by nonmortgage loans. In this article, we generally use
the term ABS in this narrower sense and write “ABS and CMBS” to indicate
bonds backed by both nonmortgage loans and commercial-mortgage loans.
But to reduce redundancy, we sometimes use the term “ABS” in its more
generic sense.

Finance companies are nonbank credit intermediaries. Like banks, finance
companies lend; however, unlike banks, they are not funded with deposits, but
in wholesale funding markets. Furthermore, finance companies’ funding
sources are not insured by the Federal Deposit Insurance Corporation (FDIC)
and their rollover risks are not backed by the Federal Reserve’s discount
window. Examples of finance companies include Ford Motor Credit,
AmeriCredit, and (prior to its conversion to a bank holding company)
American Express.

FRBNY Economic Policy Review / November 2012

31

niche lenders to small- and medium-sized enterprises seeking
funding for purchases of small- to mid-ticket equipment.
In addition to small “monoline” finance companies, several
large finance companies also operated diversified finance

The types of institutions that supplied
consumers and small businesses with
credit have changed since the 1980s.
Banks became less and less important
intermediaries of auto loans, student
loans, and equipment loans—to name the
largest categories—and were displaced
by finance companies as the main
originators of these types of credit.
businesses, including diversified floorplan lending; aircraft
finance; franchise loans; debtor-in-possession financing;
middle-market lending; and student, equipment, consumer,
and credit card loans. In contrast, while some nonbank finance
companies have been in the credit card lending business, large
banks have dominated this segment.

2.2 Nonbanks Rely on Securitization
for Funding
Funding for these nonbank lending activities came mainly
through wholesale channels, including unsecured corporate
debt, bank loans, and term ABS. Different loan types and
lenders depended on these wholesale funding sources to
varying degrees. In general, an investment-grade finance
company has access to diversified funding sources, while a
noninvestment-grade finance company generally has access
only to secured forms of funding.
While term ABS was not the only source of funding that
financed nonbank credit intermediation, it was the single
largest form of funding for the finance company universe as
a whole. Just prior to the financial crisis, in 2007, annual
issuance of nonmortgage credit funded through the term ABS
market reached about $250 billion.3 Of this total, $90 billion
was for credit card loans (originated mainly by banks),
$70 billion was for auto loans and leases, $50 billion was for
3

Figures cited here and in the following paragraph are drawn from the
Asset-Backed Alert issuance database.

32

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

student loans, and nearly $10 billion was for equipment loans
and leases. The non-credit-card categories were originated
mainly by finance companies.
Throughout the securitization boom of 2003-07, the annual
volume of nonmortgage ABS remained relatively stable at
roughly $230 billion, in sharp contrast to residential mortgages,
where annual origination volumes doubled over the same
period. This suggests that, unlike the mortgage market, the
nonmortgage ABS market did not experience rapid volume
growth driven by a collapse in underwriting standards over the
period. A key reason for the maintenance of standards was that
nonmortgage ABS were issued on an originate-to-fund basis,
where issuers generally retain a first-loss piece in the deal. Thus
for finance companies, the primary motivation behind
securitization was funding, not arbitrage, risk transfer, or
capital relief.
During the securitization boom, commercial real estate
(CRE) lending also became materially dependent on securitization. Commercial mortgages had traditionally been issued by
banks, insurance companies, and wealthy households. Then,
in the mid-1980s, real estate investment trusts, which were
introduced in 1960, began to take on a significant share of

For finance companies, the primary
motivation behind securitization was
funding, not arbitrage, risk transfer,
or capital relief.
commercial property investing. Securitization of commercial
mortgages through CMBS was introduced in the mid-1980s and
was first used extensively in the early 1990s by the Resolution
Trust Company as a means of liquidating the CRE assets of failed
savings and loan associations. CMBS assumed an increasing
share of the intermediation of CRE credit over the next two
decades, accounting for more than 25 percent at the peak in
2007 (Chart 2).
Unlike the forms of credit underlying consumer and
commercial ABS, CMBS is an originate-to-distribute business,
where loans are originated by banks that use securitization
as a way to arbitrage differences in prices between whole loan
and bond markets. Like the market for residential lending,
there was a credit cycle in commercial real estate, driven by
deterioration in underwriting standards. In particular, CMBS
investors accepted higher leverage ratios and the use of
estimated future (rather than current) rental income to
determine appropriate leverage, which therefore became more

2.3 Many Term ABS Investors Employed
Maturity Mismatch

Chart 2

Sources of Commercial Mortgage Lending
Amount and Share of Commercial Real Estate
Funding Outstanding

The investor base of ABS has undergone a profound change
and expansion since the 1980s. While the initial ABS deals of
the mid-1980s were sold mainly to real-money investors such
as insurance companies and pension funds, ABS deals issued
twenty years later at the onset of the crisis also relied on a
diverse set of nonbank levered ABS investors. These new
investors were drawn into the market through the increasing
importance and acceptance of complex vehicles (SIVs and
ABCP conduits), instruments (prime money market mutual
funds), and transactions (tri-party repo and securities lending)

Billions of dollars

3,000
2,500
2,000

Commercial mortgage-backed securities
Households, real estate investment trusts, and other
Insurance and pension funds
Banks

1,500
1,000
500
0
1961 65

70

75

80

85

90

95

00

05

10

Percent

100
80

60

A significant part of the investor base for
term ABS prior to the financial crisis
engaged in maturity mismatch, with SIVs
accounting for 8 to 15 percent, securities
lenders for 15 to 25 percent, and money
market mutual funds for 8 to 10 percent.

40

20
0
1961 65

70

75

80

85

90

95

00

05

10

Source: Federal Reserve Statistical Release Z.1, “Flow of Funds
Accounts of the United States, Table L.220.”
Note: Share of total commercial mortgage assets, NSA.

common in the mortgage loans backing CMBS. As in the
RMBS market, the historically important role of due diligence
by junior tranche investors was increasingly short-circuited
by the sale of junior tranches into collateralized debt
obligations, which facilitated greater leverage and minimal
“skin in the game.”
However, while underwriting standards deteriorated, there
was less overbuilding of commercial real estate prior to 2007,
compared with residential real estate and with earlier
commercial real estate cycles. The vulnerability of the CRE
sector to financial distress was therefore somewhat less acute
than that of residential real estate.

that facilitated the use of short-term funding to leverage the
relatively low yields of long-term high-quality assets. As shown
in Table 1, a significant part of the investor base for term ABS
prior to the financial crisis engaged in maturity mismatch, with
SIVs accounting for 8 to 15 percent, securities lenders for 15
to 25 percent, and money market mutual funds for 8 to
10 percent.
In the residential and commercial real estate markets, banks
and broker-dealers using their balance sheets for warehouse
lending were important indirect “investors.” Anticipating that
they would be in the “moving” but not the “storage” business,
banks and investment banks not only accumulated billions of
dollars of mortgage loans intended for securitization, but also
provided financing for the warehouses of third-party
originators.
Since all of these ABS investors conducted maturity
transformation, they were exposed to rollover risk and spreadwidening. The rapid deterioration of subprime mortgages
triggered such a rollover event. In response, there was a run
on funding for all complex vehicles such as SIVs and ABCP
conduits, given limited transparency about their individual
subprime exposures. Until the fall of 2008, these vehicles had

FRBNY Economic Policy Review / November 2012

33

Table 1

Traditional and 2009 Asset-Backed-Security (ABS)
Investor Composition
Pre-crisis Consumer ABS Investor Composition
Investor Type

Share of Market
(Percent)

Securities lenders

15-25

Asset managers

15-20

Money market mutual funds

8-10

Insurance companies

10-20

Bank portfolios

10-15

Structured investment vehicles

8-15

Sovereign wealth funds

8

Pension funds

8

Corporate accounts

5

Hedge funds

2-5

2009 Consumer ABS Investor Composition
Investor Type
Asset managers

Share of Market
(Percent)
42

Hedge funds/private equity

32

Insurance companies

11

Pension funds

7

Bank portfolios

4

Other

3

Corporate accounts

1

Sources: Pre-crisis shares—Federal Reserve Bank of New York; Barclays;
Citigroup; J.P. Morgan Chase; Bank of America/Merrill Lynch; 2009
shares—Federal Reserve Bank of New York; Citigroup.

been absorbed by their parents, avoiding large forced sales
of ABS. In the process, the vehicles were put into runoff
mode—that is, they stopped purchasing new-issue ABS.
The disappearance of this bid from the ABS market, which
represented at least 50 percent of investor demand, was
reflected in a 100-basis-point widening in new-issue ABS
spreads between September 2007 and August 2008. The
widening in ABS spreads was initially welcomed by real money
accounts (traditional ABS investors such as insurance
companies, pension funds, and money market funds), which
could once again get their hands on new-issue ABS at relatively
rich spreads and were not outbid by levered investors. Demand
from real-money investors sustained the new-issue ABS market
until the Lehman bankruptcy.

34

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

2.4 Lehman’s Collapse Severely Reduced
Investor Demand for Securitization
The bankruptcy of Lehman Brothers caused a cardiac arrest in
the financial system, including a complete freeze-up in ABS
issuance. Levered investors who relied on funding through
repurchase agreements (“repo lines”) and securities lending
arrangements were the main link between the seizure in ABS
issuance and Lehman’s bankruptcy. Following the Lehman
event, these repo lenders, like all financial institutions, became
extremely protective of their balance sheets and sought
aggressively to raise cash. Those who relied on short-term
funding suddenly faced far more stringent credit terms on

With loan warehouses full and securitization
markets closed, some finance companies
were close to the point where they would
have to decline otherwise creditworthy
consumers seeking credit because they
could not secure refinancing from banks
or capital markets.
pledged high-quality assets. The inability of levered investors to
continue funding on stricter terms led to the surrender and
liquidation of collateral, pushing spreads across several types of
ABS wider by several hundred basis points (Chart 3, top panel).
The decline in prices associated with these liquidations put
further pressure on margins, which led to further liquidations.
Unlike the run on term ABS, investors’ aversion to the
CMBS asset class increased steadily from 2007 and reached
staggering proportions in late 2008. It reflected anxiety over a
possible rapid increase in commercial mortgage loan defaults
driven by the decline in credit standards and high leverage of
many properties in CMBS loan pools as well as the potential for
a severe economic downturn. Following the bankruptcy of
Lehman, which was driven by concerns about the credit quality
of its CRE loan warehouse, CMBS prices were also driven lower
by liquidity-driven selling and the desire to sell early in what
increasingly looked like an asset “fire sale.” Spreads for bonds
with extremely high credit enhancement, which had been near
20 basis points in 2006, reached approximately 1,500 basis
points immediately following the Lehman bankruptcy.
The rapid widening of securitization spreads kept even real
money accounts—money market and fixed-income mutual
funds—from the new-issue market, as they had to mark their

Chart 3

Consumer Asset-Backed-Security and Commercial-Mortgage-Backed-Security (CMBS) Spreads
Basis points
700

8/9/07:
BNP halts
redemption
from three
subprime
funds due to
a “complete
evaporation
of liquidity”

600

500

400

3/16/08:
Bear Stearns
is purchased
by JPMorgan
Chase
9/15/08:
Lehman
Brothers
files for
bankruptcy
protection

11/25/08: TALF is introduced
3/19/09: TALF program is expanded
3/25/09: First TALF loans are issued
5/01/09: New-issue CMBS are permitted
5/19/09: Legacy CMBS are permitted

300
AAA auto spread

200

AAA corporate spread
100
AAA credit card spread
0
2007
Basis points
3,500

2008
8/9/07:
BNP halts
redemption
from three
subprime
funds due to
a “complete
evaporation
of liquidity”

3,000

2,500

2,000

2009

3/16/08:
Bear Stearns
is purchased
by JPMorgan
Chase

2010

2011

11/25/08: TALF is introduced
3/19/09: TALF program is expanded
3/25/09: First TALF loans are issued

9/15/08:
Lehman
Brothers
files for
bankruptcy
protection

5/01/09: New-issue CMBS are permitted
5/19/09: Legacy CMBS are permitted

1,500
CMBS junior AAA
1,000
CMBS mezzanine AAA

500

AAA corporate spread
0
2007

2008

2009

2010

2011

Sources: JPMorgan Chase; Bloomberg Financial L.P.

recent purchases to the wider spreads, forcing them to report
diminishing net asset values and exposing them to greater risk
of redemptions. Unsure about potential fire sales stemming
from the forced liquidation of levered accounts, real money
accounts stopped buying new-issue ABS altogether, clogging a
crucial channel of credit to the real economy and an important

source of funding for finance companies and credit card
programs.
The introduction of the Commercial Paper Funding Facility
(CPFF) by the Federal Reserve and the Term Liquidity
Guarantee Program (TLGP) by the FDIC supported continued
issuance of highly rated short-term debt and of unsecured

FRBNY Economic Policy Review / November 2012

35

long-term debt by banks. However, these programs did not
address the needs of nonbank finance companies whose
funding relied predominantly on term ABS. While these
finance companies were mainly noninvestment grade, they
were also specialist lenders, operating in niches (auto loans and
leases, for example) no other lender would have been able to
enter or ramp up at short notice.
The lack of funding for these finance companies threatened
the real economy with a seizure in the flow of credit. A look
under the hood at the shadow banking system’s securitization
funding infrastructure suggested that this threat could
materialize with only a short lag following Lehman’s demise.
With securitization markets frozen, finance companies had no
outlet for loans that had accumulated in their loan warehouses,
and banks were unwilling to expand these warehouse lines
because of their own balance sheet concerns. With loan
warehouses full and securitization markets closed, some
finance companies were close to the point where they would
have to decline otherwise creditworthy consumers seeking
credit because they could not secure refinancing from banks or
capital markets. Given the importance of consumer and smallbusiness spending in the economy, and the fact that finance
companies were more important providers of certain types
of credit than banks, support of securitization markets became
of paramount importance from a macroeconomic stability
perspective.

Table 2

Events in the TALF Program
November 25, 2008

Initial program announcement

March 19, 2009

First new-issue asset-backed-security (ABS)
subscription

March 19, 2009

Expansion to equipment, servicing advance,
fleet lease, nonauto floorplan

March 19, 2009

Joint U.S. Treasury/Federal Reserve announcement
of expansion of TALF to up to $1 trillion and
plans to study inclusion of legacy commercial
mortgage-backed securities (CMBS) and
residential mortgage-backed securities

May 1, 2009

Expansion to new-issue CMBS and insurance
premium receivables

May 1, 2009

Announcement of five-year TALF loans, carry cap

May 16, 2009

First new-issue CMBS subscription

May 19, 2009

Expansion to legacy CMBS

July 16, 2009

First legacy CMBS subscription

November 3, 2009

First ABS subscription applying Fed credit risk
assessment

November 17, 2009

First TALF-eligible new-issue CMBS deal

March 4, 2010

Last ABS subscription date

March 19, 2010

Last legacy CMBS subscription date

June 18, 2010

Last new-issue CMBS subscription date

July 20, 2010

Reduction of TARP capital in TALF LLC

Source: http://www.newyorkfed.org/markets/talf_announcements.html.

3. The Design of the TALF Program
TALF was intended to mitigate the impact of the rapid decline
of term funding liquidity for nonbank issuers of ABS and
CMBS and to avert a collapse of new issuance through the
injection into the financial system of balance sheet capacity for
high-quality ABS and CMBS. Policymakers were concerned
that in the absence of action to maintain issuance, the supply of
credit to consumers and mortgage borrowers would freeze up.
The Federal Reserve aimed to head off this event by offering
loans to finance purchases of ABS and CMBS, collateralized
by the securities.
The Fed’s work on potential programs to support the ABS
market began in immediate response to the cessation of ABS
issuance, the exit of AAA investors, and the drastic widening of
secondary-market spreads. By mid-November 2008, a small
number of viable approaches had been identified and
discussed. Created under the authority of Section 13(3) of the
Federal Reserve Act, the TALF program and its initial terms
and conditions were announced on November 25, 2008. Under
the TALF, the Federal Reserve Bank of New York was

36

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

authorized to make loans totaling up to $200 billion to
investors in eligible ABS. The U.S. Treasury committed
$20 billion of Troubled Asset Relief Program (TARP) funds
as credit protection to the Federal Reserve.
Even before the TALF program was officially announced,
staff work on its implementation had already commenced.
Over the next four months, Fed staff set up the complex
operational apparatus of the program, drafted the Master Loan
and Security Agreement (MLSA), and refined the terms and
conditions based on extensive consultations with market
participants. The first TALF subscription followed these
intense efforts on March 17, 2009. (Key events in the program’s
life are listed in Table 2.)
Normally, the monetary authorities would have approached
the funding liquidity problem in securitization markets by
reducing the cost of funding for depository institutions. But
this was not a viable course of action in October 2008 because
short-term interest rates were already near zero. More
important, depository institutions, like other financial

institutions with significant exposure to residential and
commercial real estate, were eager to reduce, not expand, their
balance sheets and thus were in no position to fully take up the
slack caused by the collapse of ABCP conduits and SIVs and by
the repo markets’ rejection of asset- and mortgage-backed
collateral.
The most direct alternative approach would have been to
extend discount window access to nonbank loan originators.
But although it would have had the virtue of requiring haircuts
given by the lender, such a program would have been
operationally demanding for the Federal Reserve’s District

TALF was intended to mitigate the impact
of the rapid decline of term funding
liquidity for nonbank issuers of ABS and
CMBS and to avert a collapse of new
issuance through the injection into the
financial system of balance sheet capacity
for high-quality ABS and CMBS.
banks to carry out. In particular, direct lending would have
required the Fed to accurately assess both the overall financial
condition of nonbank lenders, of which it had little knowledge,
and the risk of the whole loan pools. In contrast, requiring a
lender to sell loans to a trust that issues term ABS would use the
existing securitization mechanisms, oblige the issuer to face
discipline from third parties other than the Fed (investors and
the credit rating agencies), and put the Fed as lender in a better
position in the event of issuer bankruptcy.4 Consequently, the
TALF program was designed to provide term liquidity to
issuers through securitization rather than direct loans.
Private scrutiny not only of loan pools but also of
securitization liabilities was desirable in view of the long term
to maturity of TALF loans and the dispersion of new-issue
spreads and credit quality for a given rating across ABS sectors.
To render effective market discipline of securitization liabilities
as well as loan pools, the TALF program relied on the purchase
of new-issue ABS by private investors rather than directly by
the Federal Reserve. The program avoided undercutting
market mechanisms for allocating credit to borrowers by
relying on private structuring and pricing of new securitizations. Moreover, if the public sector became the term ABS

buyer of last resort, this would do nothing to restart the market
and would complicate its ability to ultimately exit from the
program. In contrast, under the CPFF, the Fed lent not to
third-party investors but to issuers, using the commercial
paper they issued as collateral. But these were short-term
(ninety-day) loans to high-quality issuers with little dispersion
in spreads for a given rating.
Relying on private investors in new-issue ABS and CMBS
and enabling at least some deals to come to market would also
provide benchmark pricing to the market. Even a small
number of transactions would inform market participants
about where securitization liabilities would tend to price. This
would reduce market and funding liquidity risk by diminishing
uncertainty about the funding cost of the underlying loans and
the feasibility of a securitization exit, easing a key constraint on
willingness to lend to creditworthy borrowers. Lower liquidity
risk would also reduce the large liquidity premium component
of secondary-market spreads.
The TALF program was structured with private investors
taking a first-loss position and the public sector taking a tailrisk position. To avoid undercutting market mechanisms
of risk monitoring and due diligence regarding the creditworthiness of the loans, the program imposed haircuts on
the TALF loans by lending an amount against the bonds that
was materially smaller than the value of the bonds taken as

The TALF program was structured with
private investors taking a first-loss position
and the public sector taking a tail-risk
position.
collateral. With a first-loss position, investors have skin in
the game, incentivizing them to screen collateral for credit
quality. Otherwise, they have an incentive to adversely select
collateral—that is, pledge the lowest-quality eligible collateral.
TALF could conceivably have been structured with the
public sector sharing both risk and upside with the private
sector.5 But high secondary-market spreads made the
economics of such a program difficult. Yields of 20 percent on
short average-life legacy fixed-rate conduit CMBS presented an
insuperably high hurdle rate to attracting potential investors to
three-year auto loan ABS. For investors to be willing to place
capital at risk by purchasing term ABS with a coupon of 3 to
5 percent, it was necessary to provide them with a significant

4

In another example of the Fed using capital market discipline over borrowers
to minimize the risks of its crisis policy tools, when it expanded counterparties
in March 2008 by extending discount window access to primary dealers
through the Primary Dealer Credit Facility, the Fed accepted only securities,
and not whole loans, as collateral.

5

The U.S. Treasury’s Legacy Securities PPIP program employed a more
complicated form of risk sharing with both public-sector-supplied leverage
and an equity stake. However, that program involved less than a dozen private
investors.

FRBNY Economic Policy Review / November 2012

37

amount of leverage. Public sector funding would thus have a
greater impact if deployed in a senior rather than junior
position within the capital structure.
Collateralized margin lending by the Federal Reserve to
new-issue ABS investors emerged clearly as a program form
that would implement three necessary elements: use of
securitization, sale of term ABS to third parties, and provision
of leverage. The challenge was to fill in the details in a way that
provided adequate funding liquidity to issuers as well as
adequate returns to investors, while limiting the public sector’s
risk to an acceptable level.

The market, credit, and compliance risks of the program
to the public sector were managed through these program
features:
• To be eligible collateral for a TALF loan, ABS had to be
of high credit quality, as evidenced both by AAA ratings
and a Federal Reserve risk assessment.
• A haircut, the amount by which the loan proceeds are
lower than the value of collateral, was applied to each
item of collateral accepted against a TALF loan, ensuring
that investors would bear the first loss. Loans were not
subject to remargining; that is, the haircut would not be
altered during the life of the loan.
• TALF loans were nonrecourse—meaning that, should
the borrower fail to repay, the Federal Reserve would
keep the collateral. But if proceeds from the sale of the
collateral were insufficient to repay the loan, there is no
further recourse to other assets of the borrower.

3.1 Overview of the TALF Program
The basic features of the TALF program can be categorized
under two headings: program structure and risk management.
The basic structure of the program specified the following:

• If a TALF loan were not repaid and the proceeds could
not be recouped through sale of the collateral, the
U.S. Treasury would bear the next loss, after the
borrower’s haircut, up to a specified amount, beyond
which the Federal Reserve would bear any further losses.

• TALF made term loans to eligible borrowers
collateralized by eligible securities.
• Eligible securities were defined as those in certain “asset
classes,” such as auto loans or commercial real estate,
among other qualifications.

• Risk- and revenue-sharing between the Fed and the
U.S. Treasury, and administration of any collateral
retained by the facility because of nonrepayment
of the loans, were implemented through a specialpurpose vehicle called TALF LLC.

• TALF was a standing (rather than auction) facility with
monthly subscription dates.

• TALF borrowers were to be U.S. persons or companies,
and they could not have a material interest in the
collateral.

• A broad range of ABS types, but only those types, were
eligible collateral:
- newly issued ABS backed by credit card, auto,
small-business, dealer floorplan, equipment, and
student loans, and by insurance premium and
residential mortgage servicing advance
receivables;
- newly issued CMBS secured by fixed-rate
commercial real estate loans; and

The program is described in great detail in the terms and
conditions, frequently asked questions, MLSA, and other
documents posted on the New York Fed’s website.6 While
TALF loan subscriptions have ended for all asset classes, the
program remains in operation, administering payments of
principal and interest as well as overseeing TALF LLC.

- structurally senior legacy CMBS secured by fixedrate commercial real estate loans.

3.2 The Importance to Issuers of Placing
the Senior Bonds

• TALF loans had maturities of three or five years.
• TALF made fixed-rate or floating-rate loans. Fixed rates
were set prior to each subscription for each eligible
collateral type, basis, and loan maturity as a spread over
an index. The level of the index, but not the spread,
varied by subscription month.
• TALF agents, most of which are also primary dealers,
acted as agents for all TALF loans, responsible, among
other functions, for crediting or debiting borrowers’
accounts for loan proceeds, for making interest and loan
repayments, and for delivering and receiving collateral.

38

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

The TALF program was limited to providing funding
liquidity for AAA-rated bonds. Since AAA bonds form the
bulk of the liabilities of most securitizations, reducing the
liquidity premium in AAA-rated ABS and CMBS yields would
be the most effective means of reducing issuers’ cost of
originating loans.
6

See http://www.newyorkfed.org/markets/talf.html.

To illustrate how crucial the senior bonds are, we use a
simple example of a two-tranche ABS. The example will also
help explain the risk management of the program later on. We
need to specify its key elements: the assets in the collateral pool
and the liability structure. We assume the pool is a granular
(highly diversified and with little exposure to any single
borrower) and static set of identical one-year loans or
mortgages paying a fixed rate of 9.5 percent. If a loan defaults,
recovery is zero.7
Assume that the liabilities consist of just two tranches of
securities: One is an equity or first-loss tranche, held by the
originator of the underlying loans and amounting to
12.5 percent of the securitization liabilities. The other is a
senior bond with a maturity of one year and an annual fixedrate coupon of 4 percent. It has an attachment point or credit
enhancement of 12.5 percent, since the equity tranche bears the
first 12.5 percent of losses.8 The bond has a first-priority claim
on principal and interest. The equity tranche earns the residual,
if any, of principal and interest on the underlying loans once
the senior tranche has been paid off in full and suffers credit
write-downs prior to the bonds. We assume that there are no
underwriting and management fees.
The granularity assumption permits us to apply the singlefactor credit risk model, in which defaults are driven by a
systematic (“market” or economy-wide) factor and
idiosyncratic random shocks that are specific to the individual
loan. We assume each loan has an unconditional probability of
default—the default probability one would estimate knowing
nothing about the state of the economy—of  = 3.5 percent
per annum. The default correlation—the extent to which loan
defaults coincide—is set by  , a parameter that drives the
relative strength of systematic and idiosyncratic shocks in
determining defaults. When  is high, systematic shocks
dominate, the creditworthiness of the loans is highly
dependent on overall economic conditions, and default
correlation is high. We assume  = 0.35. The expected equity
return is then 18.5 percent, which we assume is the issuer’s
hurdle rate for engaging in the business of originating loans
and then securitizing the pools.9
To show how a large increase in senior bonds’ liquidity
premiums affects the economic viability of securitization, we
7
The granularity assumption is reasonable for some asset classes that are
typically financed through ABS, such as auto loans, but less so for other asset
classes, such as credit cards, for which the collateral pool is usually a revolving
pool of loans. As these loans are paid off or discharged after default, they are
replaced by new loans. It is a poor representation of CMBS, in which many, if
not all, the mortgages in the collateral pool are typically large relative to the
total size of the pool; accordingly, a small but surprising cluster of defaults can
be a threat even to relatively senior bonds.
8
The boundary between two securitization tranches, expressed as a percentage
of the total liabilities, is called the attachment point of the more senior tranche
and the detachment point of the more junior tranche.

carry out a comparative statics exercise in which we drastically
increase the required senior yield, then compute how the
underlying loan rate would have to adjust to maintain an
equity return of 18.5 percent, given the increased cost of
term funding.
Increasing the required bond yield by 650 basis points to
10.5 percent, a widening comparable to that in the fall of 2008,
even with no change in the expected default rate, reduces the
equity return to a loss of nearly 27 percent. By comparison, that
impact on the equity return is about the same as a tripling of
the expected default rate. In order for one to restore the equity
return to the hurdle rate, the “breakeven” loan rate would have
to nearly double from 9.5 to 15 percent. An increase in loan
rates of this magnitude would have substantially limited
consumers’ and businesses’ demand for credit.
Following the Lehman bankruptcy, of course, all of the
parameters investors focused on were moving: Default rates
were expected or feared to be rising, and required rates of

It was not obvious at the time the TALF
was created that reducing AAA bond
yields, and thus the breakeven loan rate,
would suffice to keep originators from
reducing credit supply.

return were increasing. Thus, the example is a relatively benign
case. But it suggests that spreads on AAA bonds would have a
disproportionate effect on the overall economics of
securitization. That is, providing funding that reduced the
liquidity premium component of AAA spreads could restore
the economic viability of the securitization channel.
It was not obvious at the time the TALF was created that
reducing AAA bond yields, and thus the breakeven loan rate,
would suffice to keep originators from reducing credit supply.
Apart from the funding costs of the loans, originators planning
to securitize loans faced two additional balance sheet
constraints. First, issuers had historically sold term
subordinated (sub-AAA) ABS in addition to the senior bonds.
The market for these subordinated tranches disappeared
during the post-Lehman panic, so lenders would have to fund
the rest of the capital structure on balance sheet. It was unclear
9

The single-factor model was introduced by Vasicek (1991). The model
enables us to compute the probability distribution of collateral losses, as a

fraction of the pool, for any parameter pair  and  . Each collateral loss leads
to an associated bond and equity return. The expected bond and equity returns
can then be computed as the average return, weighted by the probabilities of
the associated collateral losses.

FRBNY Economic Policy Review / November 2012

39

if they had adequate capital or alternative funding sources to do
so at a cost that would permit them to continue lending.
Second, given the dire economic outlook, the amount of credit
enhancement an issuer had to provide to achieve a AAA term
ABS rating had increased significantly, reducing the share of
the lower-cost AAA proceeds in the securitization liability mix.
A significant uncertainty of program design was thus whether
issuers could continue supplying credit while facing this
reduction in their ability to fund new loans even if the AAA
bonds could be sold, or whether the market would eventually
rediscover its appetite for subordinate bonds. In the event, it
was not until early 2010 that issuers were able to regularly issue
subordinate bonds.

event impractical without a regime (which the Federal Reserve
lacks the ability and resources to institute) to verify borrower
financial condition.
The TALF borrower was also not required to crosscollateralize its total liability to the Federal Reserve with all the
ABS pledged and thus had the option of putting one bond but
not another. While such cross-collateralization might have
provided some risk mitigation, it was deemed too easy for
borrowers to circumvent by setting up multiple borrowers as
well as impractical given the low level of TALF-eligible
issuance.

TALF Loan Term to Maturity

3.3 The TALF Loan
While it was clear that the right design of the program would be
margin lending to investors by the Federal Reserve, investors
had little appetite during the crisis for the typical repo contract.
TALF credit extensions therefore took the form of long-term
nonrecourse loans secured by eligible collateral, not subject to
mark-to-market or remargining requirements.

The Nonrecourse Provision
Broker-dealer repo would typically be at maturities from
overnight to ninety days, would require both initial margin and
daily marking-to-market, and might involve recourse to the
borrower or to the borrower’s other positions with the same
dealer. For a levered investment fund, recourse would in effect
grant the lender a call on the fund’s remaining net asset value
at loan maturity. At maturity, a repo lender could decline to
refinance those positions or increase haircuts, subjecting the
borrower to refinancing risk. With remargining or recourse, a
transitory but sharp price decline could force a levered fund to
close out its position at a loss. These funding risks were fresh in
potential investors’ minds following the collapse of Lehman,
when broker-dealers increased haircuts and forced widespread
unwinding of positions amid extreme volatility.
While recourse and remargining are significant risk
mitigants for a secured lender, they would have been
potentially expensive for the borrower given the recent
volatility in term ABS markets. Not only would these features
have reduced the investor base, but they would have prompted
investors to demand higher returns to compensate for
refinancing risk, which ultimately would have reduced
program efficacy. A meaningful recourse provision was in any

40 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

The loan term was a key design element of the TALF program.
Levered investors were eager to avoid the refinancing risk
associated with funding longer-dated collateral with a shorterdated loan. Most TALF collateral was eligible only for a threeyear loan term, but longer-dated collateral (such as ABS
secured by student loans, loans guaranteed by the U.S. Small
Business Administration [SBA], or commercial real estate
loans) was eligible for a five-year loan term.
Bonds issued by revolving master trusts, common for credit
card ABS, do not amortize and are intended to be refinanced at
maturity, so a trust’s revolving period and the bond maturities
can be adapted to a three-year TALF loan term. The maturities
of bonds issued by amortizing trusts are more tightly
connected to the amortization of the underlying collateral. The
maturities of the longest senior tranches of most amortizing
trusts are close to three years. Five-year loans were introduced
in order to promote lending in the SBA loan, student loan, and
CRE sectors, in which securities have longer maturities (seven
to ten years, fifteen years, and ten years, respectively). While the
TALF loan term was shorter than the bond maturities,
investors could reasonably assume that market conditions
would have normalized by the time the TALF loan matured,
permitting them to either finance their positions in the private
market or unwind them in an orderly way.

Haircuts
The advance rate, or loan amount, was determined by the
market value of the ABS and the haircut applied. Haircuts
varied by asset class and the bond’s average life (see Table 3 for
details on haircuts and Table 4 for prepayment assumptions).
The average life of a security is the average timing of principal
repayment, which in turn depends on assumptions about
prepayment for ABS, since they are amortizing securities. In

Table 3

TALF Haircuts by Asset Class
Percent
ABS Weighted Average Life (Years)
Sector

Subsector

0<1

1<2

2<3

3<4

Auto
Auto

4<5

Prime retail lease

10

11

12

13

14

Prime retail loan

6

7

8

9

10

Auto

Subprime retail loan

9

10

11

12

13

Auto

Motorcycle/other RV

7

8

9

10

11

Auto

Commercial and government fleets

9

10

11

12

13

Auto

Rental fleets

12

13

14

15

16

Credit card

Prime

5

5

6

7

8

Credit card

Subprime

6

7

8

9

10

Equipment

Loans and leases

5

6

7

8

9

Floorplan

Auto

12

13

14

15

16

Floorplan

Nonauto

11

12

13

14

15

Premium finance

Property and casualty

5

6

7

8

9

Servicing advances

Residential mortgages

12

13

14

15

16

5<6

6<7

Small business

SBA loans

5

5

5

5

5

6

6

Student loan

Private

8

9

10

11

12

13

14

Student loan

Government-guaranteed

5

5

5

5

5

6

6

CMBS

New-issue

15

15

15

15

15

16

17

CMBS

Legacy

15

15

15

15

15

17

17

Source: Federal Reserve Bank of New York: http://www.newyorkfed.org/markets/talf.html.
Notes: For asset-backed securities (ABS) benefiting from a government guarantee with average lives of five years and beyond, haircuts increase by 1 percentage
point for every two additional years (or portion thereof) of average life at or beyond five years. For all other ABS with average lives of five years and beyond,
haircuts increase by 1 percentage point for each additional year (or portion thereof) of average life at or beyond five years. For newly issued and legacy
commercial mortgage-backed securities (CMBS) with average lives beyond five years, collateral haircuts increase by 1 percentage point of par for each
additional year of average life. No CMBS may have an average life of more than ten years.

order to prevent issuers from gaming TALF haircuts by
asserting high prepayment rates and thus short average lives for
the securities they wished to pledge, the program set
standardized prepayment assumptions by asset class. This
permitted the issuer to calculate the TALF average life of each
security and investors to know the haircut on a TALF loan.
The haircut was measured as a percent of value for newissue ABS and CMBS and as a percent of par for legacy CMBS.
A haircut measured as a fraction of par instead of price implies
a market-value haircut that is higher for lower-value collateral,
adding an additional protection against adverse selection in the
legacy program.
An investor could present new-issue, TALF-eligible
collateral either at issue, when the price is typically at par, or at
any subsequent subscription. Underwriters of TALF-eligible

ABS generally set the pricing date close to the TALF
subscription date. Otherwise, between the issue and
subscription dates, investors would have to seek alternative
financing and face the risk of securing lower TALF loan
proceeds if the bond price dropped. In the event, secondarymarket TALF-eligible ABS have generally been presented at
a premium to par, as spreads have narrowed since issue.
While the value of a new-issue ABS or CMBS bond for
purposes of determining the loan amount was based on its
price on the subscription date, the value of a legacy CMBS was
based on the minimum of the investor’s acquisition price and
the price on subscription date, exposing the TALF investor to
market risk in the period between the transaction date and the
subscription date.

FRBNY Economic Policy Review / November 2012

41

Table 4

Table 5

TALF Prepayment Assumptions

TALF Loan Rates
Prepayment
Assumption

Sector

Subsector

Auto

Prime retail lease

75 percent of
prepayment curve

Auto

Prime retail loan

1.3 percent ABS

Auto

Subprime

1.5 percent ABS

Auto

Motorcycle/other RV

1.5 percent ABS

Auto

Commercial and
government fleets

100 percent of
prepayment curve

Commercial
mortgage

—

0 percent CPR

Equipment

Loans and leases

8 percent CPR

Small business

SBA 7a

14 percent CPR

Small business

SBA 504

5 percent CPR

Student loan

Student loan private

4 percent CPR

Student loan

Student loan FFELP

4 percent CPR

Student loan

Student loan consolidation

50 percent of CLR curve

Source: Federal Reserve Bank of New York: http://www.newyorkfed.org/
markets/talf.html.
Notes: CPR is conditional payment rate; it represents the proportion
of the principal of a pool of loans that is assumed to be paid off
prematurely in each period. ABS is absolute prepayment speed; it
represents the percentage of the original number of loans that prepay
during a given period.

Collateral Type
Fixed-rate
Fixed-rate asset-backed securities (ABS)
< One year average life
>= One year average life
>= Two years average life

Floating-rate
Floating-rate ABS
FFELP loans

Private student loan

TALF Loan Interest Rate

42 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

One-year Libor swap rate
+ 100 basis points (bps)
Two-year Libor swap rate
+ 100 bps
Three-year Libor swap
rate + 100 bps

SBA Development Company participation
certificates
Three-year TALF loan
Three-year Libor swap
rate + 50 bps
Five-year TALF loan
Five-year Libor swap rate
+ 50 bps
Commercial mortgage-backed securities
Three-year TALF loan
Three-year Libor swap rate
+ 100 bps
Five-year TALF loan
Five-year Libor swap rate
+ 100 bps

SBA pool certificates

The TALF loan rate was set as a spread, fixed over the life of the
program but varying by asset class and loan term, over an index
(Table 5). The index for fixed-rate loans was the Libor swap
rate, generally with a maturity equal to that of the TALF loan.
For most asset classes, the index for floating-rate loans was the
one-month Libor rate, but for some the index was the prime
rate or target federal funds rate. The indexes were chosen to
correspond to bond pricing conventions at issue, thus
minimizing the role of interest rate risk in the borrower’s putoption decision. For example, new-issue CMBS are typically
priced relative to the swap curve, so the five-year TALF loan
rate was the five-year swap rate on the subscription date plus
100 basis points. A five-year loan against SBA Pool Certificate
collateral, in contrast, was set at a spread of 75 basis points over
the target federal funds rate, which is highly correlated with the
prime rate originators use to price loans to borrowers (since the
prime rate is generally 300 basis points above the target federal
funds rate).

TALF Loan Rate

One-month Libor
+ 100 bps
One-month Libor
+ 50 bps
Federal funds target
+ 75 bps
Max (100 bps, prime rate
175 bps)

-

Source: Federal Reserve Bank of New York: http://www.newyorkfed.org/
markets/talf.html.
Note: Libor is London inter-bank offered rate.

3.4 TALF-Eligible Asset Classes
TALF contained three subprograms, distinguished by the type
of collateral supported: new-issue nonmortgage ABS, newissue CMBS, and legacy CMBS. The program avoided
undercutting market mechanisms for allocating credit to
different sectors of the economy by defining eligible collateral
broadly within these general classes of underlying loans. Other
asset classes, such as nonagency residential mortgages, were
considered, but it was ultimately concluded that the TALF
program structure was not applicable and would not revive
lending in those sectors. (Eligible asset classes are summarized
in Table 6.)

Table 6

Overview of TALF-Eligible Collateral
Asset Class

Description

Origination Date

Issue

After October 1, 2007

a

Credit card receivables include both consumer and corporate credit
card receivables.

NA

a, b

Student loans include federally guaranteed student loans (including
consolidation loans) and private student loans.

After May 1, 2007

NA

Small business loans include loans, debentures, or pools originated under
the SBA’s 7a and 504 programs, provided they are fully guaranteed as to
principal and interest by the full faith and credit of the U.S. government.

After January 1, 2008

After January 1, 2008

Mortgage servicing advances are receivables created by principal and
interest, tax and insurance, and corporate advances made by
Fannie Mae– or Freddie Mac–approved residential mortgage servicers.

After January 1, 2007

NA

Equipment loans include retail loans and leases relating to business
equipment. Vehicle fleet includes commercial and government fleets
and commercial loans secured by vehicles and the related fleet leases
and subleases of such vehicles to rental car companies.

After October 1, 2007

a

NA

a, b

Insurance premium finance includes loans originated for the purpose
of paying premiums on property and casualty insurance originated on
or after January 1, 2009.

January 1, 2009

a, b

New-issue CMBS are commercial mortgage-backed securities issued on
or after January 1, 2009.

After January 1, 2009

After January 1, 2009

Legacy CMBS include structurally senior fixed-rate conduit commercial
mortgage-backed securities.

NA

Before January 1, 2009

Auto, credit card receivables, Auto loans include retail loans and leases relating to cars, light trucks,
student loans, small business motorcycles, and other recreational vehicles; commercial and government
fleet leases; and commercial loans secured by vehicles and the related fleet
leases and subleases of such vehicles to rental car companies.

Mortgage servicing advances,
business equipment, vehicle
fleet, floorplan

Floorplan loans include revolving lines of credit to finance dealer
inventories.
Insurance premium finance,
new-issue CMBS, legacy
CMBS

Source: Federal Reserve Bank of New York: http://www.newyorkfed.org/markets/talf.html.
a

Asset-backed securities (ABS) must have an average life of five years or less.

b

Must refinance maturing ABS through 2010:Q1 or be new master trust with originations after January 1, 2009. Eligible premium finance ABS may
also be issued out of an existing or newly established master trust in which all or substantially all of the underlying exposures were originated on
or after January 1, 2009.

New-Issue ABS and CMBS
The first subscription of the new-issue ABS program was held
in March 2009 and the last in March 2010. The ABS program
provided loans to investors against eligible new-issue ABS
collateral, limited to AAA-rated tranches secured by consumer
or small-business loans. The underlying nonmortgage credit
exposures were as follows (see Table 6 for more specific
requirements for each asset class):
• retail auto loans;
• commercial, rental car company, and government fleet
leases;
• business equipment loans and leases;

• floorplan loans, by which, for example, auto dealers
finance inventories;
• federally guaranteed and private student loans;
• credit card receivables;
• insurance premium finance loans, by which businesses
finance lump-sum insurance premium payments;
• small-business loans, fully guaranteed as to principal
and interest by the U.S. government, originated under
the SBA’s 7(a) (“Pool Certificates”) and 504
(“Development Company Participation Certificates”)
programs; and
• servicing advance receivables, which arise from
residential mortgage servicing advances.

FRBNY Economic Policy Review / November 2012

43

The first subscription of the new-issue CMBS program was
held in June 2009 and the last in June 2010. The program
provided loans to investors against AAA tranches of eligible
new-issue CMBS. To be eligible, the CMBS were required to be
privately issued and structurally senior, to bear a fixed interest
rate, and to be secured by first-lien, fixed-rate amortizing
commercial real estate loans. In the event, only one TALFeligible new-issue CMBS was issued.
TALF-eligible, new-issue ABS and CMBS had to have been
issued on or after January 1, 2009; have AAA credit ratings
from two eligible nationally recognized statistical rating
organizations (NRSROs); and have no lower rating from any
NRSRO.10 The AAA rating had to be attained on the strength
of the securitization collateral and structure itself, rather than
through a financial guarantee or “wrap” provided by an
insurance company or other third party.

CMBS had to acquire the CMBS through an arm’s-length
transaction.
TALF agents were primary dealers or designated brokerdealers, operating under the New York Fed’s TALF Master
Loan Security Agreement to carry out specified administrative,
payments processing, and compliance responsibilities. These
agents were tasked with processing TALF applications;
disbursing loan proceeds, as well as principal and interest
generated by the collateral, to TALF borrowers; and remitting
TALF loan principal and interest to the New York Fed.
Borrowers worked through a TALF agent during the loan
application process and throughout the life of their TALF loan,
if they received one. TALF agents were required to ensure that
no conflicts of interest existed in any party’s participation in
TALF and to demonstrate that they knew a potential borrower
and could vouch for its reputation. They also were required to
subject applicants to a “Know Your Customer” program based
on provisions of the Patriot Act.

Legacy CMBS
The first legacy CMBS subscription was held in July 2009 and
the last in March 2010. The legacy CMBS program provided
loans to investors against structurally senior, AAA fixed-rate
conduit CMBS issued before January 1, 2009 (hence the term
“legacy”). Since the purchase price factored into the
determination of the loan amount, borrowers had to have
purchased the legacy CMBS in recent secondary-market
transactions between unaffiliated parties, executed on an
arm’s-length basis at prevailing market prices.

3.6 TALF Operations
Apart from the TALF agents, a number of other private entities
helped administer the TALF program:
• Bank of New York Mellon, the program custodian, was
responsible for holding collateral, collecting and
distributing payments and administrative fees, verifying
11

3.5 Eligible TALF Borrowers
Any U.S. company that owned eligible collateral could borrow
from the TALF through an account relationship with a TALF
agent. Eligible borrowers included firms organized in the
United States, but excluded firms controlled or managed by an
entity owned by a foreign government.11 TALF borrowers
ceded all governance rights under an ABS, including voting,
consent, or waiver rights, to the New York Fed.
In order to prevent conflicts of interest that could lead to
collateral being presented at inflated prices, borrowers could
not borrow against ABS if they had a material economic
interest in the securitization’s underlying collateral pool.12 For
the same reason, as noted above, a borrower against legacy
10
Eligible credit rating agencies for ABS included Moody’s, Fitch, and
Standard and Poor’s. For new-issue and legacy CMBS, eligible credit rating
agencies also included Realpoint and DBRS. Beginning with the February 2010
subscription, DBRS was an eligible credit rating agency for nonmortgage ABS.
SBA Pool Certificates or Development Company Participation Certificates had
an issuance cutoff date of January 1, 2008, and were exempt from the ratings
requirements.

44 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

A precise definition is contained in the “Eligible Borrowers” section of the
General Terms and Conditions, available at http://www.newyorkfed.org/
markets/talf_terms.html: “An entity is a U.S. company if it is (1) a business
entity or institution that is organized under the laws of the United States or a
political subdivision or territory thereof (U.S.-organized) and conducts
significant operations or activities in the United States, including any U.S.organized subsidiary of such an entity; (2) a U.S. branch or agency of a foreign
bank (other than a foreign central bank) that maintains reserves with a Federal
Reserve Bank; (3) a U.S. insured depository institution; or (4) an investment
fund that is U.S.-organized and managed by an investment manager that has
its principal place of business in the United States. An entity that satisfies any
one of the requirements above is a U.S. company regardless of whether it is
controlled by, or managed by, a company that is not U.S.-organized.
Notwithstanding the foregoing, a U.S. company excludes any entity, other than
those described in clauses (2) and (3) above, that is controlled by a foreign
government or is managed by an investment manager, other than those
described in clauses (2) and (3) above, that is controlled by a foreign
government.”
12
As stated in the “Eligible Collateral” section of the General Terms and
Conditions, “ABS will not be eligible collateral for a particular borrower if that
borrower, or any of its affiliates, is the manufacturer, producer or seller of any
products, or the provider of any services, the sale, provision, or lease of which
is financed by the loans or leases in the pool supporting that ABS unless the
loans or leases relating to such products or services constitute no more than
10% of the aggregate principal balance of the loans and leases in the pool
supporting such ABS as of the issuance date of such ABS. For purposes of this
requirement, products include financial products such as insurance, and
services include education. In the case of leases, the term ‘aggregate principal
balance’ refers to the securitization value of the leases in the pool.”

the data provided by the TALF agents, and validating the
pricing and ratings submitted for pledged securities.
• Collateral monitors provided data and modeling
services used in risk assessments and also validated
pricing and ratings.13
The New York Fed held separate monthly TALF loan
subscription and settlement dates for non-CMBS ABS and for
new-issue and legacy CMBS.14 On each subscription date, it set
interest rates for each type of loan, and TALF agents submitted
loan request packages to the New York Fed that included:
• the requested loan amount ($10 million minimum);
• the maturity date of the loan;
• the type of interest rate (fixed or floating),
corresponding to the type of collateral offered;
• filing documents, including the prospective uses and
offering documents of the securities to be pledged;
• proof of purchase for the ABS and CMBS being offered
as collateral;
• the CUSIPs of the securities; and
• an attestation from an accounting firm stating that the
proposed collateral meets TALF’s eligibility criteria,
or a signed, agreed-upon procedures report from a
nationally recognized accounting firm (for newly
issued CMBS).
The New York Fed reserved the right to reject any request
for a loan, in whole or in part, at its discretion. It also assessed
an administrative fee of 10 basis points of the loan amount for
nonmortgage-backed ABS collateral and 20 basis points for
CMBS collateral.
The borrower (through its agent) had to deliver eligible loan
collateral and administrative fees to the custodian on the TALF
loan’s settlement date. If the New York Fed deemed the
collateral eligible, it determined the loan amount based on the
haircut for the asset class, the security’s average life computed
under the TALF prepayment speed, and its price.

Cash Flow Waterfall
In the typical case, in which the TALF borrower does not
surrender the collateral, the custodian uses cash flows from the
collateral in order to make all loan principal and interest
payments on behalf of the TALF borrower. The residual is
delivered to the borrower through the TALF agent. The
custodian holds the collateral throughout the life of the loan.
13

Trepp (as of June 2009) and BlackRock (as of January 2010) were collateral
monitors for CMBS. PIMCO (as of July 2010) was collateral monitor for the
program as a whole.
14
The first CMBS subscription (June 2009) was for new-issue CMBS only.

In general, the remittance of principal on eligible collateral
is used immediately to reduce the principal amount of the
TALF loan in proportion to the loan’s original haircut. In other
words, if the original haircut was 10 percent, 90 percent of any
remittance of principal is immediately repaid to the New York
Fed. This allocation of principal prevents the leverage of the
TALF transaction from changing over time. Requiring
deleveraging would have made the program less effective by
significantly reducing investor returns and penalizing
amortizing asset classes relative to asset classes with bullet
structures.
For nonmortgage ABS collateral priced at a premium to par,
the borrower makes an additional principal payment
calculated to adjust for the expected reversion of market value

A “carry cap” ensured that the borrower
will not receive any upside from the
transaction until the loan is repaid in full. It
limited cash flow during the term of the
TALF loan to a maximum equal to the
haircut capital invested by the borrower—
an important mechanism used to mitigate
adverse selection.
toward par value as the ABS matures. The above-par payment
is calculated at the inception of the TALF loan. This payment
simply amortizes the premium on the bond over its expected
average life.
A “carry cap” ensured that the borrower will not receive
any upside from the transaction until the loan is repaid in full.
It limited cash flow during the term of the TALF loan to a
maximum equal to the haircut capital invested by the
borrower—an important mechanism used to mitigate adverse
selection. For five-year TALF loans, the excess of interest and
any other distributions (excluding principal distributions) on
the ABS in excess of TALF loan interest payable (the “net
carry”) was to be remitted to the TALF borrower only up to
25 percent per annum of the original haircut amount in the
first three loan years, 10 percent in the fourth year, and
5 percent in the fifth year; the remainder of the net carry
repays TALF loan principal. If, for example, the TALF loan
amount against collateral priced at par was $94, and the
haircut was $6, any net carry in excess of $1.50 during the first
year of the loan would be applied toward reduction of the
TALF loan. For a three-year TALF loan, net carry was to be
remitted to the borrower each year only up to 30 percent per

FRBNY Economic Policy Review / November 2012

45

accumulated interest from all TALF loans protects the
public sector against losses on any of the loans.

annum of the original haircut amount, with the remainder
applied to loan principal.

• If these funds were exhausted, TALF LLC would borrow
from the U.S. Treasury against its $20 billion
commitment.15

Exercise of the Put Option and TALF LLC
As TALF loans are nonrecourse, borrowers effectively own a
put option on the collateral; they can surrender the collateral in
exchange for extinguishing the loan. In this case, borrowers
would surrender their collateral through a TALF agent, which
would submit a collateral surrender form to the New York Fed.
A number of conditions must be fulfilled in order for the
TALF borrower to optimally exercise the put. The ABS cannot
have been fully paid down, and there must be credit
impairment or loss of market value of the bond in excess of the
haircut—that is, the outstanding loan amount must exceed the
value of the collateral. An additional condition must prevail for
the put to be optimally exercised prior to the TALF loan
maturity: The interest on the TALF loan must exceed the
interest paid by the ABS—in other words, the borrower has
negative carry. If the borrower does not repay the loan and
instead surrenders the collateral, the Treasury and Federal
Reserve ultimately bear the risk of loss and have no right to
pursue the borrower in the courts, even if the value of the
bonds is less than the loan amount.
The New York Fed created TALF LLC, a special-purpose
vehicle, to purchase and manage any assets surrendered by
TALF borrowers. It was initially funded by a $100 million
drawing on the U.S. Treasury’s $20 billion commitment. Just
under $16 million of these funds is set aside to defray
administrative expenses in the event a TALF borrower exercises
the put.
TALF LLC also holds the accumulated interest from TALF
loans in excess of the interest earned by the New York Fed. The
Fed retains a portion of TALF loan interest equal to its cost of
funds—the overnight indexed swap (OIS) rate plus 25 basis
points. The accumulated excess interest from TALF loans and
the Treasury funding are invested to earn interest income.
The funds in TALF LLC are used for ongoing administrative
expenses, which are small relative to the flows into the LLC, and
would be the first funds used if collateral were purchased from
a TALF borrower exercising a put. If the New York Fed were to
receive notice of collateral surrender, it would sell the collateral
at par to TALF LLC, which would then fund the purchase of the
collateral in the following way:
• It would first draw on the funds in TALF LLC
(approximately $757 million as of July 20, 2011).
Although TALF borrowers with more than one loan
outstanding do not cross-collateralize the loans, the

46 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

• Once the $20 billion TARP loan commitment is fully
funded, TALF LLC would ask the New York Fed, which
committed up to $180 billion for this purpose, for a
loan, which would be senior to the $20 billion Treasury
loan.
If surrendered collateral is liquidated, the order in which
loan repayments and the proceeds from possible asset sales
from TALF LLC are distributed is defined in a credit agreement
among the Treasury, the New York Fed, and TALF LLC
requiring them to:
• pay general TALF program administrative expenses,
• repay the $16 million Treasury loan made to TALF LLC
to cover administrative expenses,
• repay outstanding principal on any New York Fed
senior loans,
• fund the cash collateral account,
• repay outstanding principal on any Treasury loans,
• repay New York Fed loan interest,
• repay Treasury loan interest,
• repay any other obligations that may arise that have not
been specified by the agencies, and
• distribute to the Treasury and the New York Fed (in
shares of 90 percent and 10 percent, respectively) any
remainder after the above requirements are satisfied.

4. Limiting Risk to the Public Sector
to an Acceptable Level
The terms of the TALF loan contract—the long terms to
maturity and nonrecourse leverage without margin calls—
were generous to investors and therefore required parameters
on collateral, haircuts, and loan rates that limited risk to the
public sector to an acceptable level. One way to define the
public sector’s risk appetite is that the program should be
constructed in such a way that a loss occurs only in an
economic downturn so severe that avoiding such losses is a
subordinate goal to economic recovery.
15

In July 2010, this commitment was reduced to $4.3 billion, or approximately
10 percent of the $43 billion in TALF loans outstanding at that time. See
http://www.federalreserve.gov/newsevents/press/monetary/20100720a.htm.

The major risks to the program and to public funds fall into
three broad categories: operational risk, fraud risk, and market
and credit risks. Although we focus here on market and credit
risks, much effort was made to identify operational, fraud, and
compliance risks and to design mitigants against them.
As TALF loans are without recourse to the borrower, the
market and credit risks borne by the lender depend entirely on
the risks of the bonds used as collateral. If, at the maturity of the
TALF loan, the value of the bonds is less than the loan amount,
the borrower has an incentive to abandon the collateral and not
repay the loan. The borrower is therefore said to be “long a put”
on the collateral struck at the loan amount.
Credit risk is the risk that a bond will suffer a write-down or
impairment as a result of defaults and low recoveries on the
underlying loans. Credit risk is thus measured as a loss of par
value, but may be realized prior to maturity by writing down
both the value of the assets in the trust and the value of the
liabilities that are affected by the asset loss. Market risk is the
risk that changes in market prices—interest rates and credit
spreads—will reduce the value of the bond prior to maturity,
even if the bond ultimately is repaid at par. The public sector
faced market risk from fluctuations in the value of its collateral
and from mark-to-market losses on any collateral put by TALF
borrowers in lieu of TALF loan repayment.
Mark-to-market losses may occur because the market
anticipates or is more wary of credit losses, but unless those
losses are actually realized and result in write-downs, the
bond’s value will recover over its remaining life. Credit writedowns cannot be recovered once they are realized, but markto-market losses can be recovered until the position is sold.
Market risk introduces the possibility that collateral might
be “put to the Fed” even in the absence of severe credit losses.
If the mark-to-market losses occur within the term of the TALF
loan, while public funds would ultimately be recovered, there
would be a transitory but nonetheless real portfolio value loss,
as one asset, the TALF loan, is replaced with a bond of lower
value. If large credit losses do not materialize, and the bond
price recovers before eventually being sold, there is ultimately
no long-term loss to the public sector.
The key mitigants to credit and market risks are:
• terms and conditions regarding collateral eligibility,
• credit enhancement provided by the issuer,
• haircuts,
• borrower payments, and
• risk review of collateral.

4.1 Risk Mitigation from Program Terms
and Conditions
Program terms and conditions defined eligible collateral for
TALF loans. Eligibility was limited to certain asset classes and,
within each sector, to structurally senior, AAA-rated bonds.
Eligible new-issue collateral was generally limited to
nonmortgage ABS asset classes with a strong performance
history. New-issue CMBS were eligible provided certain
further criteria were met, such as collateral pools excluding
large loans and floating-rate or second-lien mortgages as well
as pooling and servicing agreements containing certain

Eligibility was limited to certain asset
classes and, within each sector, to
structurally senior, AAA-rated bonds.
Eligible new-issue collateral was generally
limited to nonmortgage ABS asset classes
with a strong performance history.
New-issue CMBS were eligible provided
certain further criteria were met. . . .
Not eligible were ABS asset classes
with historically poor performance (for
example, timeshares, aircraft leasing, and
manufactured housing) that were not
central to the goal of averting a deeper
recession.
protections for the senior bonds. These additional terms and
conditions for CMBS avoided a number of features that had
contributed to poor underwriting standards and poor
performance prior to the financial crisis.
Not eligible were ABS asset classes with historically poor
performance (for example, timeshares, aircraft leasing, and
manufactured housing) that were not central to the goal of
averting a deeper recession. Nonagency RMBS and
securitizations of corporate loans were excluded, in part
because of risk considerations, but also because the TALF
program’s approach of providing funding liquidity for senior
bonds would not address the problems facing those sectors.

FRBNY Economic Policy Review / November 2012

47

Among legacy securities, only structurally senior CMBS were
made eligible for TALF.
Ratings of nonmortgage ABS have held up well relative to
those in other structured credit asset classes. A recent study
indicates that the three-year cumulative loss rate for original
AAA-rated ABS is only 8 basis points.16 Downgrades have
recently outpaced upgrades for the first time since 2003, but
primarily in the student loan sector, driven by negative carry
from auction-rate securities and by regulatory and other
fundamental changes in the private student loan business.
There are several reasons for the better ABS performance
relative to CMBS and RMBS. Loan originators generally retain
significant unhedged first-loss positions. Mortgage loans may
be used speculatively, since they are based on real estate assets
that can appreciate in value and have high refinancing risk at
maturity. ABS credit enhancement is recalibrated based on
observed delinquency more frequently, as the securities
generally have shorter maturities. Underwriting standards
for consumer and commercial loans did not deteriorate as
much as those for real estate loans in the years leading up to
the financial crisis. Major consumer ABS sectors are generally
structured to withstand severe unemployment stress. The
risk of a breakdown of the historical relationship between
unemployment and loan performance introduces some
systematic risk, but the idiosyncratic issuer funding or
solvency risk is more significant.
The terms and conditions also called for a AAA rating from
two nationally recognized statistical rating organizations and
no NRSRO having downgraded or placed the bond on negative
watch. This requirement significantly affected which issuers
have been able to issue TALF-eligible ABS. For example, given
uncertainty over the financial condition of the Big Three auto
manufacturers in 2009, major NRSROs were reluctant to
permit captive auto finance companies to issue auto dealer
floorplan ABS with AAA ratings until it became clear that the
bankruptcies of Chrysler and GMAC would proceed in an
orderly fashion. Similarly, the rating agencies’ uncertainty over
how the FDIC’s “safe harbor” from repudiation would operate
in the FAS 166/167 accounting regime shut down the issue of
TALF-eligible credit card ABS for several months in late 2009
until the FDIC grandfathered new-issue transactions through
the end of TALF in March 2010. As a final example, no rental
fleet lease ABS came to TALF, as the weak condition of issuers
in that very cyclical industry made them unable to meet the
TALF rating requirement.
In addition to the rating requirement, legacy CMBS that
were junior in credit to any other bond were excluded. From
about 2005 on, AAA-rated CMBS had been divided into
16
See Moody’s, “Default and Loss Rates of Structured Finance Securities:
1993-2009, Exhibit 40.”

48 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

tranches labeled AJ, AM, and AS; the latter is often referred to
as “super-senior.” While all were rated AAA, the AJ and AM
tranches take write-downs before the super-seniors and so,
being at nontrivial risk of downgrade or default, were excluded
from the TALF legacy CMBS program.

4.2 Risk Mitigation from Bond Credit
Enhancement
Credit enhancement takes hard and soft forms. Hard credit
enhancement is funded up front, in contrast to soft
enhancement, which accumulates over time. Hard credit
enhancement refers to the presence of subordinated tranches
sold to investors or retained by the issuer, or overcollateralization obtained by issuing an amount of debt smaller than the
loan pool, or through reserve accounts funded at the time of

Hard credit enhancement refers to the
presence of subordinated tranches sold to
investors or retained by the issuer, or
overcollateralization obtained by issuing
an amount of debt smaller than the loan
pool, or through reserve accounts funded
at the time of issue. The typical soft credit
enhancement is excess spread—the
difference between interest on the loan
pool and on the bonds.
issue. The typical soft credit enhancement is excess spread—
the difference between interest on the loan pool and on the
bonds. As losses have to be larger than excess spread before
hitting the lowest remaining tranche, excess spread can be an
important risk mitigant. However, its efficacy depends not just
on the amount of losses, but also on their timing, since excess
spread must accumulate before it can cover losses. With $10 in
excess spread per year, $20 in losses can be absorbed over two
years without writing down a tranche; however, if losses all
occur in the first year, impairment of the ABS will occur.
In an amortizing ABS trust (that is, auto loans), there is a
static pool of loans, and principal repaid by the borrowers is
used to pay down the balance of the bonds. For these
transactions, the credit enhancement required by the rating
agencies for AAA-rated bonds is generally a multiple of three to

five times a baseline level of expected loss over the life of the
pool. A higher multiple is generally applied to a lower level
of baseline loss. When loss expectations rise in response to
a deteriorating economic environment, as occurred in 2009,
additional credit enhancement could be as much as three
to five times the increase in baseline loss expectation. For
example, the senior class of CarMax 2008-2 had initial loss
expectations of 2.75 percent and hard credit support of
10.25 percent, providing loss coverage of 3.73x. In contrast,
the senior class of CarMax 2009-1 had initial loss expectations
of 4 percent and hard credit support of 16.5 percent, providing
loss coverage of 4.13x. In this case, an increase in baseline losses
of 1.25 percent led to an additional 6.5 percent of hard credit
enhancement.
In a revolving ABS trust (for example, credit cards),
repayments of principal by borrowers are used to purchase new
receivables and not to pay down the balance of the bonds. For
these transactions, required credit enhancement for AAA-rated
bonds is generally based on analysis of the trust wind-down
following an early amortization event. Such a wind-down takes
place when the payment rate, defined as the rate at which
borrowers in the pool repay their loans, falls below a trigger
level. The trust is then no longer permitted to purchase new
receivables and must use all principal received to pay down
the tranches. Greater charge-offs during early amortization
correspond to greater pool losses, consequently requiring
greater credit enhancement for a given rating level.
While higher credit enhancement requirements would
normally manifest themselves in new issuance, several credit
issuers took the unexpected step of adding credit enhancement
to their master trusts during 2009 to avoid downgrade actions
driven by increases in charge-offs. Issuers can take a range of
actions to increase credit enhancement, such as creating cash
infusions through additional subordinate bond tranches,
increasing overcollateralization, and strengthening excess
spread by removing charged-off collateral. For example, the
senior class of American Express Credit Account Master Trust
Series 2008-1 had credit enhancement of 12 percent with
annual charge-offs near 4 percent in January 2008, but Series
2009-1 had credit enhancement of 17.5 percent as annual
charge-offs increased to 11 percent in June 2009.
The typical recent-vintage fixed-rate conduit commercial
real estate deal is secured by loans to more than 100 different
borrowers, with the top ten loans often corresponding to
40 percent of the pool. The underlying loans have fixed interest
rates, and often had interest-only options, but are balloon loans
that amortize over a thirty-year term but mature much more
quickly. The typical loan had a ten-year maturity, but loan
pools generally also have loans with five-year and seven-year

maturities. Super-senior CMBS tranches had hard credit
subordination of 30 percent. With a loss severity of 50 percent,
well outside the post-World War II experience for commercial
real estate cycles, it would take defaults on the order of
60 percent of the pool to cause a super-senior CMBS loss.
The most senior CMBS, the AS class, is generally timetranched into at least four classes, A1 through A4. When loans
are performing, the A4 class receives principal payments last,
but if credit enhancement of the super-senior class is exhausted
by losses, the cash flow waterfall switches from sequential to
pro rata, and all super-senior tranches share in principal and
credit losses. Moreover, recoveries that are typically around
50 percent on defaulting loans are first used to pay down the A1
and A2 (first and second pay) super-senior tranches until they
are fully repaid, which means that even in dire credit loss
scenarios, the A1 and A2 bonds are very difficult to break.
However, the A1 and A2 bonds are subject to significant
extension risk, because in an environment with little liquidity
for refinancing maturing balloon loans or purchasing
foreclosed properties, the best option for the trust may be to
extend loans until the economic environment improves. The
A4 (last pay) super-senior bonds generally have an average life
at issue of about ten years, while the second-pay A2 bonds
generally have an average life of five years. The average life of
AM and AJ bonds, which are junior to the AS class in both
payment and credit priority, is also ten years.
Apart from credit enhancement, TALF-eligible bonds are
also protected by other structural features that vary greatly by
collateral type and issue. For most structured credit products,
in addition to the senior bonds’ priority in credit, the
prepayments, amortization, and recovery payments flow first
to the most senior bonds. Another feature is that issuers of
revolving trusts have historically provided recourse (an issuer
guarantee) to their securitizations in order to avoid downgrades of existing notes. While the prospect of recourse is not
taken into account in setting the level of required credit
enhancement, it has had a significant positive effect on the
ratings history of these asset classes.

4.3 Risk Mitigation from Haircuts
ABS losses are not binary, but incremental, building up over
time at a pace depending on the extent and timing of losses in
the collateral pool. In most ABS, it is a near certainty that at
least some collateral losses will occur in the pool; the question
is whether they will exceed the attachment point—that is, the
credit subordination of a particular bond. Ideally, in order to

FRBNY Economic Policy Review / November 2012

49

measure risk, one would like to perform a risk analysis on each
loan in the collateral pool to estimate distribution of losses at a
specific time horizon and then apply the cash flow waterfall to
derive the distribution of credit losses of each bond.
In the case of ABS collateral, even when the underlying loans
are granular, there is usually not enough historical data to
estimate with accuracy the distribution of losses and, in
particular, the performance of the loans during severe
economic downturns. Credit card receivables, securitized since
1987, have the longest history of securitization other than
residential mortgages. In the subsequent two decades, the
credit characteristics of a typical receivables pool have evolved
as credit card accounts have proliferated, effectively shortening
the available history that would be useful in estimating loss
distributions. Between 1987 and 2007, there were only two
economic downturns in the United States, neither extremely
severe. Credit card receivables are the most granular ABS asset
class and have the longest data history, but the capacity to draw
inferences about tail events is nonetheless limited.
For other securitization asset classes, the prospects of
estimating loss distributions for the pools of underlying loans
are even bleaker. Commercial mortgages are at the other end of
the granularity spectrum from credit card receivables. CMBS
generally have, at most, a few hundred loans in the collateral
pool, and delinquency of a small number of loans can often

The use of haircuts, or the practice of
lending less than the value of the
collateral, was a key risk mitigant as well
as an incentive to potential borrowers to
use the TALF program and make capital
available to securitization issuers.
make the difference between a security being impaired or not.
Moreover, the loans are very different from one another in size
and other characteristics. Each loan is unique; it is not feasible
to forecast the loss distribution of a commercial mortgage
using the performance history of a set of different loans.
One key difficulty in applying such ground-up approaches
to risk measurement of ABS is the role of default correlation,
a measure of the likelihood of two different loans in the
underlying collateral pool defaulting over a given time horizon.
It captures systematic risk—the risk of a severe economic
downturn in which an unusual number of underlying loans
default simultaneously. This risk drives the tails of the
distribution and is particularly relevant to TALF, which

50 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

endeavored to reduce the probability of credit loss to a very low
level. As with all financial assets, expected losses can be
estimated with some accuracy, but the tails of the distribution
are extremely difficult to gauge because large losses are rare
events and long histories are needed to generate even a few
observations on them. Of course, the tails of the distribution
are what is most relevant to risk measurement.
To see the impact of correlation, we return to the simple
ABS example analyzed in the previous section using the singlefactor credit risk model. The senior bond will suffer
impairment only if the pool losses are so high as to wipe out the
equity entirely. Equivalently, the senior bond will be impaired
if the loan proceeds at maturity are insufficient to pay its
principal and interest. The probability of a pool loss reaching
that level or greater can be computed within the single-factor
model for any pair of parameters  (loan pool default rate) and
 (correlation parameter). These probabilities of impairment
of the senior bond are expressed in percent below:

 = 0.025
 = 0.035
 = 0.070
 = 0.105

0.00
0.00
0.00

 = 0.35

 = 0.99

0.17
2.48
9.19

4.36
8.52
12.58

The correlation parameter  has a large impact. If
correlation is low, there is a negligible likelihood that even
a high default rate will break the senior bond, given its
12.5 percent credit subordination and the 5.5 percent spread
between the loan interest rate and 4 percent bond coupon. If
correlation is medium or high, the senior bond has a higher
likelihood of impairment even at a relatively low default rate.
The use of haircuts, or the practice of lending less than the
value of the collateral, was a key risk mitigant as well as an
incentive to potential borrowers to use the TALF program and
make capital available to securitization issuers. Haircuts
enabled borrowers to take leveraged positions in TALF-eligible
ABS; the reciprocal of the haircut is the leverage ratio. The
leveraged return has two parts: 1) the net spread—or the
difference between the coupon and TALF lending rate,
multiplied by the leverage ratio, minus the interest paid on
the TALF loan, and 2) the bond’s price appreciation times
the leverage ratio.
The capital invested by the borrower in the form of a haircut
is a first-loss position. Because the loan is nonrecourse, the
maximum the investor can lose is 100 percent of that capital.
Losses in excess of the haircut diminish the Federal Reserve’s
interest and fee income and, if large enough, can cause a net
loss to the TALF’s public sector funding. If, for example,
spreads widen significantly but not drastically, and the bond
price drops by, say, 2 points and the leverage ratio is 10, the

investor will suffer a 20 percent mark-to-market loss. A drastic
widening leading to a 10-point decline will wipe the investor
out.17 At the other end of the return distribution, the investor
can keep any gains from spread tightening. The haircuts were
designed to provide high leveraged returns while protecting the
Federal Reserve and Treasury. Haircuts were risk sensitive,
varying by the underlying asset class and the security’s weighted
average life.
In the absence of adequate data on the credit quality of the
underlying loans, and thus the ability to accurately estimate
loss distributions “from the ground up,” other approaches to
quantitative risk measurement were explored and ultimately
deployed. These approaches attempt to fully exploit the
historical data on defaults and market pricing, or to take
account of the credit characteristics of the collateral pool
underlying a particular bond.
The first approach is to use historical data on ABS bond
impairment to estimate future losses. These data represent the
fraction of bonds in a given category, such as asset class and
credit quality, that have suffered a material impairment over a
given time horizon—say, one or five years. Data also exist on
the expected loss on each bond, conditional on the occurrence
of impairment. The impairment rate and loss given
impairment can then be treated analogously to corporate or
sovereign default and loss-given-default rates.
The second approach is to extract risk-neutral ABS loss rates
from credit spreads on ABS. The credit spread is the
compensation, expressed as a rate, that the market or typical
investor requires as compensation for the risk of holding ABS.
It has several components: the mean impairment rate and loss
given impairment, the product of which gives the loss rate the
market actually expects, and the risk premium, which is the
compensation the market requires to bear all the risks of
investing in ABS, including the tail credit risk, market spread
fluctuations, and liquidity.
The third and final approach is to apply stress scenario
analysis. In this approach, a stress scenario is defined that is
more adverse than expected. The scenario can be defined in
terms of macroeconomic variables; the severity of the scenario
depends on the risk appetite of the program. A model is
required to translate the scenario into losses in the collateral
pool, which in turn, through the cash flow waterfall, can be
used to compute losses on the bonds.
All of these approaches share model risk—namely, the risk
of incorrectly estimating the parameters of the model and thus
over- or underestimating the risk of the bonds. Additional
conservatism was built into the TALF risk models in order
to protect against model risk.
17

The investor will, however, not put the bond prior to the maturity of the
TALF loan as long as the cash flow from the transaction remains positive.

Using haircuts as a risk mitigant creates the potential for
adverse selection, a problem that would affect any nonrecourse
collateralized lending program. Adverse selection arises
because a TALF borrower has an incentive to invest in bonds
with a higher spread within an asset class and weightedaverage-life category, since they would have the same haircut
under the TALF terms and conditions as bonds with lower
spreads. Weaker bonds would have higher spreads and thus
higher leveraged returns, but also higher tail risk—that is, a
higher probability that the collateral value would fall below the
loan amount at the maturity of the TALF loan. Nonrecourse
permits the borrower to shift the risk of an extreme loss to the
lender. In the new-issue ABS program, adverse selection could
manifest itself in a tendency for weaker issuers, or issuers in
asset classes that are weaker in ways that are hard to mitigate
through additional credit enhancement, to use the program.
In the legacy CMBS program, adverse selection would express
itself in a tendency for borrowers to borrow against legacy
bonds of lower credit quality.18

4.4 Risk Mitigation through Credit Reviews
In the past, one answer to the difficulties of risk measurement
for structured credit had been credit ratings. The credit rating
agencies (CRAs) reviewed aspects of the deal relevant to credit
quality, such as the quality of the underlying loans, the
bankruptcy-remoteness of their sale into the trust, and the
financial strength of the issuer. Most crucially, the CRAs
opined on whether the attachment points of the bonds were
consistent with the imperviousness to credit write-downs that
investors should expect to be associated with various ratings.
However, in November 2008, structured product ratings
were largely discredited. Subprime residential had performed
execrably, with most bonds suffering downgrades; expected
pool losses were many times the projected tail losses, and it
became obvious that the ratings models, which had attributed
a probability of zero to the event of house price declines, had
been fundamentally flawed. The performance of ratings with
respect to CMBS was far better, but still poor; senior bonds in
late-vintage CMBS deals had, in some cases, been given ratings
as high as bonds in earlier deals with far better underwriting
standards. However, the CRAs appeared to have done a
18

There are additional restrictions for financing subsidiaries of a public-private
investment fund (PPIF) established pursuant to the Legacy Securities PublicPrivate Investment Program. In particular, in order to prevent double
leveraging, these borrowers may participate in the legacy CMBS only if the
PPIF is receiving Treasury-supplied debt financing equal to or less than
50 percent of the PPIF’s total equity (including private and Treasury-supplied
equity) and satisfies all other borrower eligibility requirements.

FRBNY Economic Policy Review / November 2012

51

reasonably accurate job on nonmortgage ABS. A further
difficulty was that for securitizations, as opposed to corporate
bonds, the probabilities of default are based on sparse historical
data sets and therefore are less reliable than corporate ratings,
which can take into account a long history of corporate default
experience.
A final problem was that the CRAs might well set credit
enhancement levels or other ratings criteria at significantly
more stringent levels than in the past, in order to repair their

To address the potential risk and problem
with program effectiveness posed by the
use of CRA ratings, the Fed conducted
internal credit reviews before accepting
bonds as collateral. This review provided a
layer of due diligence beyond that of the
credit rating agencies and investors,
putting the public sector in a better
position to manage adverse selection.

In addition to formal risk assessments, the Federal Reserve
revised its approach to selecting the set of CRAs whose ratings
could be used to determine TALF eligibility. Initially confined
to “major NRSROs,” the set was expanded to include
additional CRAs beginning in November 2008. Moreover,
rather than drawing from a fixed list of CRAs, the Fed set
criteria, enshrined in a rule, for determining the set of CRAs
whose ratings could be used to determine TALF eligibility for
each TALF asset class.19

Nonmortgage ABS
Beginning with the November nonmortgage ABS
subscription,20 the New York Fed performed its own risk
assessment of nonmortgage ABS proposed as TALF-eligible
loan collateral. To facilitate this review, the Fed asked sponsors
or issuers of proposed TALF-eligible ABS to provide all data on
the ABS or its underlying exposures that had been provided
to any NRSRO well in advance of the applicable TALF
subscription date.

New-Issue CMBS
damaged reputations by overcompensating for the lower
underwriting standards of late-vintage deals. In fact, credit
enhancement levels have tended to be higher for 2009 and later
ABS deals than in the recent past. In part, this has been a
response to higher expected losses and to investor demand
for higher credit enhancement. However, ratios of credit
enhancement levels to expected losses have also risen.
In view of these risk management challenges and the
urgency of constructing a program as quickly as possible, it
was hard to dispense with CRAs. Over time, their role in
TALF evolved. Initially, with ABS being the only TALFeligible asset class, the eligibility requirements focused on
credit ratings. As additional asset classes were contemplated,
the disinclination to rely too heavily on ratings grew. For
legacy residential MBS, for example, ratings were nearly
devoid of information content.
To address the potential risk and problem with program
effectiveness posed by the use of CRA ratings, the Fed
conducted internal credit reviews before accepting bonds as
collateral. This review provided a layer of due diligence beyond
that of the credit rating agencies and investors, putting the
public sector in a better position to manage adverse selection.
The reviews have been somewhat different for the three
program segments.

52

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

A more intensive risk review was associated with the new-issue
CMBS program, which included not only an analysis of the
underlying loan pool and trust structure, but also a review of
key legal documents. In addition, certain protections for the
public sector were to be incorporated in the trust structure of
single-borrower deals, in which one borrower places loans on a
number of properties it owns and operates into the CMBS trust
(unlike a conduit or fusion CMBS, in which the underlying
properties are owned by many borrowers). Pooling of cash
flows across properties reduces the probability that any one
property will default on its mortgage, but concentrates
property ownership and management, potentially amplifying
conflicts of interest between the owner and bondholders.
Single-borrower transactions therefore typically have lower
loan-to-value ratios than conduit deals and include only
investment-grade bonds. (Conduit deals, however, include
B-rated bonds.)
The Federal Reserve retained the right to reject individual
loans from a proposed pool in the new-issue CMBS program.
Intermediaries were reluctant to add rather than reduce assets
19

The announcement of the rule can be found at http://
www.federalreserve.gov/newsevents/press/monetary/20091204a.htm.
20
For a description of TALF’s operations schedule, see the subsection TALF
Operations (3.6).

in the post-Lehman environment, especially given CRE credit
risk. Potential CMBS issuers were therefore uneasy about
originating loans with a view to a TALF-eligible securitization
that might be rejected by the Fed after the issuer funded the
loans. Consequently, issuers initially endeavored to securitize
single-borrower pools, for which TALF eligibility could be
clarified more easily in advance of funding.
As part of its credit review, the Federal Reserve was also
attentive to potential conflicts of interest within the governance
structures of potential new-issue CMBS deals. An important
example is the role of the special servicer, a firm entrusted with
the administration and disposition of delinquent properties. In
a typical CMBS transaction, the special servicer is instructed
under a servicing agreement to make decisions in the interest of
the trust as a whole, according to an industry standard. In latevintage CMBS transactions, however, the most junior bond
class, which absorbs losses first, was typically given consent
rights and the right to replace the special servicer, giving the
junior investor leverage over decision making. Allocating these
rights to the junior investor has the function of disciplining the
special servicer, benefiting all investors. However, this
mechanism also creates scope for abuse owing to the conflicts
between junior and senior tranches, particularly regarding the
decision to foreclose versus extend a loan. Typically, the junior
tranches prefer to extend troubled loans, thus preserving the
“option value” of possible recovery, while the senior tranches
prefer rapid foreclosure, reducing the potential for further
deterioration of recovery value. Senior investors’ concerns
about such conflicts are amplified by the often limited
transparency of the rationale behind the special servicer’s
decisions. In its capacity as lender to the senior investor,
TALF shared these concerns.
In the event, only one new-issue CMBS transaction, a
single-borrower issue sponsored by Developers Diversified
Realty (DDR) in November 2009, was supported by TALF. The
DDR trust agreement addressed governance concerns through
these features:
• Enhanced reporting to all investors regarding the
rationale behind major decisions (particularly an
analysis of whether the action would produce the
largest net present value) and disclosure of relevant
assumptions in the calculation. In principle, this
communication should provide transparency into why a
special servicer has taken a particular course of action,
providing additional discipline on servicer behavior and
increasing the confidence investors have in the integrity
of the transaction.
• No individual tranche has either consultative rights or
the right to replace the special servicer. With the
advantage of junior-tranche investors removed, there is

no scope for them to intimidate the special servicer into
taking their preferred course of action. While it resolves
the conflict, this feature does remove an important
check on the special servicer’s behavior. In order to
rectify this, the transaction introduced the concept of an
independent operating advisor (OA), who represents the
trust and has consultative rights over major decisions by
the special servicer. The OA can recommend to investors
that the special servicer be replaced, and a majority vote
of each class is required to overturn this recommendation. A regime giving any one class a veto would mean
that the class benefiting from the special servicer’s
decision would be able to block the OA’s attempt to
remedy the situation and thus protect the interest
of the trust as a whole.

Legacy CMBS
For the legacy CMBS program, the New York Fed conducted
a risk assessment of loan requests in the period between the
subscription date and the settlement date. In particular, the Fed
worked with collateral monitors to estimate stress valuations
for the collateral behind each loan request. These are forward

The risk review process was an important
check on adverse selection by TALF
borrowers, despite the low rejection rate
of 13 percent.

valuations of the submitted collateral, measured at TALF loan
maturity in a severe credit and spread environment. These
stress valuations are compared with the loan amount in order
to identify loan requests where the borrower would be likely to
put the collateral. The New York Fed disclosed the outcome of
the risk review to the market in order to prevent the process
from creating information asymmetries (between the borrower
and other investors) that would reduce market liquidity.
The risk review process was an important check on adverse
selection by TALF borrowers, despite the low rejection rate of
13 percent.21 Its effectiveness in inducing monitoring of
collateral quality by TALF borrowers is evidenced in dealers’
calls, during TALF’s active lending phase, for greater
transparency into the “black box” of the legacy CMBS risk
review and, in particular, for the Fed’s publication of a list of
21

This rate is measured as the ratio of the number of rejected CUSIPs to the
total number tendered during the nine legacy CMBS subscriptions.

FRBNY Economic Policy Review / November 2012

53

eligible legacy CMBS CUSIPs prior to subscriptions. Had the
program done so, market participants would have had an
incentive to submit lower-quality collateral chosen from that
list. The TALF portfolio would then be weighted toward the
lower-quality end of the generally high credit quality supersenior spectrum. The possibility of CUSIP rejection motivated
borrowers to perform their own due diligence on the bonds
and refrain from submitting bonds from deals with serious
known problems, as they would then have risked either holding
the bonds or selling them into the market at a loss following
rejection. While this may have limited liquidity support by the
program for the most risky super-senior bonds, it avoided
funding a portfolio of the riskiest eligible bonds.
Beyond the impact on risk taken by the public sector,
publishing a list of eligible bonds might also have reduced the
informativeness of market prices. In particular, there was a risk
that the program would attract investors with little experience
in the sector who would then “free ride” on the private
expertise, buying bonds on the basis of yield in the sector with
little appreciation for risk. While this would be a positive for
the current owners of eligible bonds, spread differentiation
related to risk would diminish, raising the question of whether
the program was having a net benefit on the market. The threat
of rejection was likely a factor in keeping uninformed investors
on the sidelines, preventing the harm that would ensue from
uninformed bond buying.

experience of the eligible asset classes.22 Second, the high loan
rate is also an important part of the exit strategy. As historical
spreads on the senior-most new-issue ABS and CMBS were
significantly less than 100 basis points, the loan rate would

The interest rate on TALF loans is
generally high relative to the historical
coupon rate on ABS and CMBS. This high
rate serves two important purposes. First,
it is an important source of credit
enhancement to the public sector.
Second, the high loan rate is also an
important part of the exit strategy.
make the facility uneconomic as new-issue spreads reverted
toward their historical norms. Thus, the need for the facility
would diminish as the markets recovered. TALF borrowers
would also have an incentive to repay loans prior to maturity
since, at tighter spreads, the likelihood of a sharp widening
would increase relative to the likelihood of a sharp further
tightening, increasing the risk of a large mark-to-market loss.

The Premium Payment

4.5 Risk Mitigation from Borrower Payments
Risk mitigants from payments made by the borrower include
the loan rate, premium payment, carry cap, and the small
administration fee earned by the Fed for operating the
program.

The TALF Loan Rate
The interest rate on TALF loans is generally high relative to the
historical coupon rate on ABS and CMBS. This high rate serves
two important purposes. First, it is an important source of
credit enhancement to the public sector. The difference
between the loan rate, typically one-month Libor plus 100 basis
points for floating-rate loans, and the Federal Reserve’s cost of
funds, measured at OIS plus 25 basis points, accumulates in
TALF LLC, the entity writing the put option to the borrower.
With the Libor-OIS spread close to its normal level of zero,
75 basis points of spread is set aside each year to build a reserve
against losses, a large number relative to the historical loss

54

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

As described above, the premium payment is intended to
prevent the loan-to-value ratio for bonds presented at a
premium price from declining over the life of the loan. The
need for a premium lending regime was originally motivated
by the desire to support small-business lending through the
Small Business Administration. However, it was recognized
that if the program wanted to provide liquidity support to
other asset classes of new-issue ABS in subsequent
subscriptions, it would have to accept TALF-eligible collateral
at above-par prices, as spreads were likely to narrow over time.
The SBA offers guarantees on the principal balance of smallbusiness loans originated by SBA-approved lenders. It offers
fixed-rate loans to fund the purchase of equipment through its
504 program and floating-rate loans to fund working capital
through its 7a program. In both programs, the originating
lender retains a portion of the balance of each loan, typically
about 85 percent, and the SBA-guaranteed portion is sold to a
22

As described above, the three-year cumulative loss is 8 basis points, or fewer
than 3 basis points per year. See Moody’s, “Default and Loss Rates of
Structured Finance Securities: 1993-2009, Exhibit 40.”

pool assembler, who securitizes the pool into a pass-through
security. Risk retention by the originator aligns its incentives
with the SBA’s in order to prevent adverse selection of
underlying loans. The presence of SBA credit guarantees on
the securitized balance implies that the main risk to the
investor is prepayment rather than credit risk, which comes
in the form of voluntary prepayments by the borrower as well
as accelerations—that is, immediate repayment by the SBA
of defaulted loans. Given the low-interest-rate environment
in which recently originated loans were underwritten, there
is little risk of voluntary prepayment. However, the weak
economic environment has adversely affected the credit quality
of small businesses, which are more vulnerable to the economic
cycle, and may ultimately result in historically high levels of
acceleration by the SBA.
As a historical convention, SBA loan originators want to be
compensated up front for their costs of origination, which
requires the loans, and consequently the SBA certificates, to
be priced at a premium, typically around $105, at issue. In
other words, the issuer sells the pool to investors for $105
and buys the loans from the originator at $104, pocketing $1
for underwriting expenses and compensating the originator
$4 immediately for origination costs. The premium price is
justified by the absence of credit risk on the underlying loans
as well as an above-market rate of interest for a security
without credit risk. This premium price is simply the net
present value of the above-market interest payments,
calculated over the average life of the security, which is defined
as the time until the average principal payment is remitted to
the investor. In order to calculate the average life, it is necessary
to make an assumption about prepayment speeds, which is
the most important variable in determining valuation. If
prepayment speeds accelerate faster than expected at issue, the
premium price will fall because the average life is shorter and
the investor receives above-market interest rates for a shorter
amount of time.
The premium price generates prepayment risk for TALF.
If the prepayment speed on the collateral is much faster than
anticipated, the premium price reverts toward par. If there is
enough acceleration, and the TALF has loaned in excess of par,
it is conceivable—though unlikely—that the market value of
the bond could fall below the loan amount even with no change
in interest rates. Given the nature of the SBA asset class, the
TALF program has a number of important mitigants in place
to ensure the proper trade-off between the goal of facilitating
small-business lending (which requires lending at an above-par
price) and the desire to minimize prepayment risk.
The first mitigant to prepayment risk is the presence of
haircuts, which generally exceed the premium. The average

life of SBA 7(a) certificates is typically seven to eight years based
on the TALF assumed conditional prepayment rate (CPR)
of 14 percent (“14 CPR”), implying that 14 percent of the
remaining balance of the pool will repay each year. The
corresponding TALF haircut is 6 to 7 percent. The average life
on fixed-rate SBA 504 certificates is typically ten years at the
TALF prepayment speed of 5 CPR, which corresponds to a
TALF haircut of 8 percent. When the haircut is larger than
the premium, there is no prepayment risk on the TALF loan
because the SBA will have guaranteed repayment of an amount
larger than the loan amount.23
The second mitigant to prepayment risk is the presence of
a cap on the value of the collateral at $110, which limits the
maximum loss severity of TALF. In an extreme scenario, if an
entire pool priced at $109 and with a haircut of $7 defaulted on
the day after issue, the haircut would be inadequate and the
program would take a loss of $2. The cap on price limits loss
severity to the difference between the cap and the haircut.
However, this risk is very low, as such rapid acceleration is far
outside the range of historical experience. Moreover, with a
typical five-year loan term, there will generally be adequate
loan spread generated to offset this exposure. For example, for
a loan against 7(a) collateral, the loan rate is the five-year swap
rate plus 50 basis points. Given a Federal Reserve cost of funds
equal to OIS plus 25 basis points and a five-year swap rate at
250 basis points, TALF LLC is compensated 250 basis points
per year in spread income, which should be enough to offset
the $2 of maximum prepayment exposure after just one year.
The program’s final risk mitigant is the requirement that
investors make an additional payment each month, called a
“premium payment,” to account for the expected reversion
of the price back toward par over time. Without this payment,
the loan-to-value (LTV) and the leverage of the loan would
increase as above-market interest was distributed to the
investor, leaving the TALF program more vulnerable to a put
at loan maturity. To mitigate this, the investor must make an
additional payment that amortizes the premium over the
average life of the security. The formula employed is
conservative, so if the TALF assumption on prepayment speed
is realized, premium payments cause the LTV to decline
modestly over time. However, if prepayment speeds were much
higher than expected, these payments would not suffice to keep
the LTV from increasing over time. The premium payment
limits the potential loss severity to a level easily covered by
spread income, minimizing the risk of loss to the program.
23

The CPR assumptions and haircuts can be found in “Term Asset-Backed
Securities Loan Facility: Frequently Asked Questions,” available at http://
www.newyorkfed.org/markets/talf_faq.html.

FRBNY Economic Policy Review / November 2012

55

The Carry Cap
The carry cap was a feature designed to mitigate adverse
selection in the legacy program and to manage the policy risk
to the Federal Reserve of committing its balance sheet far into
the future under a five-year TALF loan. In particular, the
investor could not receive more than 25 percent of the original
equity investment per year in the first three years of the loan. In
the fourth and fifth years, the percentages drop to 10 percent
and 5 percent, respectively. Any net carry—interest received
from the ABS or CMBS minus interest paid on the TALF
loan—in excess of this amount would be used to pay down
the TALF loan and delever the transaction.
Illustrating the first rationale, initial surveys of how market
participants would value leverage provided against legacy
securities suggested that many would “price to the put.” In
other words, they would start with the assumption that the
collateral would be surrendered at TALF loan maturity and that
their equity would be wiped out. Despite this assumption,
investors expected the leverage provided to have a significant
effect on prices given how wide spreads were, which would
permit the borrower to earn more than enough carry over the
life of the loan to offset the complete loss of TALF borrower
equity. The problem with this behavior is obvious, as it would
incentivize investors to choose risky collateral that had the
most carry. The risk to the public sector of providing leverage
on those terms was clearly unacceptable.
The carry cap addressed this problem by obliging TALF
borrowers to keep at least some capital at risk through the life
of the loan. Note that the sum of these annual caps is equal to
90 percent of the TALF borrower’s equity; the borrower
receives no upside until the loan to the public sector is repaid.
If spreads tightened enough, the investor could realize a capital
gain by repaying the TALF loan and selling the collateral in the
market. But if spreads remained wide, returns from interestrelated cash flows could not exceed the investor’s equity. With
the cap in place, the investor was unable to “price to the put,”
as such an assumption would result in losses. By effectively
subordinating the investor’s upside to the TALF loan, the carry
cap provided a strong incentive to select good collateral and
reduced the scope for adverse selection.
Regarding the second rationale, the Federal Reserve was not
eager to provide a TALF loan maturity of five years, as this
would commit its balance sheet, and thus the monetary base,
five years into the future. While the Fed has tools to address the
size of its balance sheet, longer-term TALF loans could increase
the challenge in the event the economy had fully recovered,
and the Fed viewed inflation as a serious risk. On the other
hand, legacy fixed-rate CMBS generally had an average life at
issue of five to ten years, and investors appeared reluctant to

56

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

bear the refinancing risk associated with funding long-term
debt with short-term leverage. In order for the legacy program
to succeed, it was necessary to find some middle ground. This
was accomplished through the step-down in the carry cap to
10 percent and 5 percent in the fourth and fifth years of the
TALF loan. In the event that markets had recovered by then,
investors would have the incentive to seek alternative funding
or sell the collateral. However, if the economy and financial
markets were still weak, investors could keep the funding
through five years and hope for improvement. The step-down
in carry cap incentivized the investor to seek alternative private
funding when it was most likely to be available and most
desirable for the Fed from a monetary policy standpoint for
them to do so.

5. Impact of TALF on Term ABS
and CMBS Markets
This section reviews the impact of the TALF on the new-issue
ABS, legacy CMBS, and new-issue CMBS markets. The
program was designed to prevent a sustained shutdown of the
securitization channel of credit intermediation by supporting

The low level of TALF usage reflected
the strong risk mitigants the program
incorporated as well as the rapid
improvement in market conditions in
the term ABS and CMBS markets.
liquidity in the ABS and CMBS markets, and it should be
evaluated in terms of its intended effects. We therefore assess
TALF by observing volumes and patterns of ABS and CMBS
issuance as well as liquidity conditions in these markets.
Overall, the improvement in market conditions and
liquidity in the term ABS and CMBS markets in 2009 was
dramatic, particularly in view of the lower-than-expected
volume of lending through TALF. A total of $71.1 billion in
TALF loans was requested (Table 7) and the volume of
outstanding loans peaked in March 2010 at $48.2 billion
(Chart 4), although the program was authorized to reach
$200 billion and at one point up to $1 trillion in loan volume
was envisioned.24
24

See the Federal Reserve Board announcement of February 10, 2009, available
at http://www.federalreserve.gov/newsevents/press/monetary/20090210b.htm.

Table 7

TALF Loans by Subscription and Asset Class
Millions of Dollars, Except as Noted

Panel A: March-October 2009
2009
March

April

May

June

July

August

September

October

Auto

1,908.9

796.9

2,310.9

2,945.9

2,830.7

555.3

1,159.8

190.8

Credit card

2,804.5

890.8

5,514.7

6,022.7

1,459.1

2,553.6

4,399.1

224.4

Equipment

NA

0.0

445.6

590.2

0.0

0.0

110.6

38.8

Floorplan

NA

0.0

0.0

0.0

0.0

0.0

0.0

0.0

Premium finance

NA

0.0

0.0

0.0

0.0

0.0

Servicing advances

NA

438.6

34.4

107.5

0.0

475.2

NA

NA

0.0

0.0

Small business

0.0

0.0

86.5

29.4

62.2

147.4

161.9

262.5

Student loan

0.0

0.0

2,281.5

226.7

986.8

2,444.7

177.1

287.7

10,717.3

5,373.2

6,814.0

6,538.5

2,366.0

0.0

0.0

0.0

0.0

0.0

635.8

2,148.3

1,351.1

1,930.6

4,713.4

1,687.7

10,639.2

New-issue CMBS

ABS total

NA

NA

NA

Legacy CMBS

NA

NA

NA

CMBS total

NA

NA

NA

NA

0.0

635.8

2,148.3

1,351.1

1,930.6

Amount of loans

4,713.4

1,687.7

10,639.2

10,717.3

6,009.0

8,962.3

7,889.6

4,296.6

Number of loans

136

83

205

275

165

294

200

170

Panel B: November 2009-June 2010
2009
November
Auto

2010
December

January

February

March

April

May

June

Total

0.0

0.0

0.0

91.0

0.0

NA

NA

NA

12,790.2

Credit card

63.1

1,528.7

242.2

205.0

409.2

NA

NA

NA

26,317.1

Equipment

57.1

199.2

0.0

31.1

139.3

NA

NA

NA

1,611.7

Floorplan

0.0

0.0

0.0

0.0

0.0

NA

NA

NA

0.0

Premium finance

0.0

0.0

0.0

0.0

0.0

NA

NA

NA

0.0

Servicing advances

0.0

137.7

0.0

114.8

0.0

NA

NA

NA

1,308.1

408.7

274.6

332.4

37.7

349.5

NA

NA

NA

2,152.9

85.0

665.1

0.0

54.4

1,760.1

NA

NA

NA

8,969.1

1,059.3

2,977.4

1,067.5

973.6

4,097.8

NA

NA

NA

59,024.9

72.2

0.0

0.0

0.0

0.0

0.0

0.0

0.0

72.2

1,329.5

1,282.4

1,326.0

1,133.0

857.0

NA

NA

NA

11,993.8

Small business
Student loan
ABS total
New-issue CMBS
Legacy CMBS

1,401.8

1,282.4

1,326.0

1,133.0

857.0

0.0

0.0

0.0

12,066.1

Amount of loans

CMBS total

2,461.1

4,259.8

2,393.5

2,106.6

4,954.8

0.0

0.0

0.0

71,091.0

Number of loans

117

144

109

105

149

0

0

0

2,152

Source: Federal Reserve Bank of New York: http://www.newyorkfed.org/markets/talf.html.

FRBNY Economic Policy Review / November 2012

57

but with no potential for direct TALF support, was also
a sign of recovery in the sector.

Chart 4

Outstanding TALF Loans

• Within the latter category, issuance of subordinate
bonds (bonds with credit quality lower than what was
required for TALF eligibility) was particularly
significant.

Billions of dollars

50
40

30

20
September
(11.3)

10
0
2009

2010

2011

Source: Federal Reserve Statistical Release H.4.1, “Factors Affecting
Reserve Balances, Table 1.”

The low level of TALF usage reflected the strong risk
mitigants the program incorporated as well as the rapid
improvement in market conditions in the term ABS and CMBS
markets. As spreads narrowed, the balance of risk and reward
in levered positions in ABS and CMBS shifted, at least partly
offsetting the benefit of term financing with positive net carry.
At tighter spreads, the potential for further capital gains from
tightening must be weighed against the potential for losses
induced by widening. These considerations reduced incentives
to borrow through TALF and led some borrowers to repay
TALF loans prior to maturity, which they are permitted to do
at no cost.

Chart 5 displays total ABS issuance in new-issue ABS and
CMBS asset classes included in the TALF program, the volume
of TALF-eligible bonds, and the amount of bonds actually
pledged as collateral against TALF loans.25 The fraction of total
ABS issuance directly supported by TALF loans was high at the
start of the program and close to half during the program’s first
six subscriptions, but fell dramatically over time, especially in
major asset classes, averaging around 20 percent in the last six
subscriptions. While early on, about two-thirds of total ABS
issuance was TALF eligible, and most of that was actually
pledged—by the end of the program more than half of ABS
issuance in TALF asset classes was financed away from TALF
or held unlevered.
These trends suggest that as market conditions improved,
cash investors were induced to participate in the term ABS
market, and private sector financing became more available to
levered investors, permitting TALF to operate as a backstop
rather than a form of direct support. In addition, as ABS
spreads narrowed during the course of 2009, the balance of risk

As market conditions improved, cash
investors were induced to participate in
the term ABS market, and private sector
financing became more available to
levered investors, permitting TALF to
operate as a backstop rather than a form
of direct support.

5.1 Issuance Impact of TALF
While greatly reduced compared with results from prior years,
term ABS and CMBS issuance did not collapse in 2009. The
initial post-Lehman transactions in each sector were TALFeligible and drew at least partly on TALF liquidity support,
indicating that TALF contributed to keeping the securitization
channel functioning. The effect of TALF can be seen not only
in the volume of securities financed by the program, but also
in the following:
• The volume of TALF-eligible securities marketed
without TALF financing increased, a sign that the sector
had grown less dependent on TALF financing and was
likelier to thrive without public sector support.
• ABS and CMBS in TALF-eligible asset classes were
issued, but with features that made them ineligible TALF
collateral. Issuance of ABS in TALF-eligible asset classes,

58

The Federal Reserve’s Term Asset-Backed Securities Loan Facility

in leveraged investment in ABS and CMBS shifted, reducing
incentives to put on such trades: At very wide spreads, the
likelihood of further widening and capital losses is smaller
relative to the likelihood of tightening and capital gains than
when spreads have narrowed.
Table 8, panel A, displays the volume of term ABS issuance
for the major TALF-eligible asset classes—credit cards, auto
loans and leases, equipment loans and leases, and private
student loans—since 2005:
• Auto ABS issuance had peaked at $85 billion in 2005
and declined somewhat through 2007, likely because
25

Table 7 displays TALF loans at each subscription by ABS and CMBS sector.

Chart 5

Asset-Backed Security Issuance, 2007-11
Total Issuance in TALF-Eligible Classes and Breakdown of TALF Issuance
Billions of dollars

80
Total issuance (eligible classes)
TALF-eligible new issuance
Amount pledged to TALF

70
60
50
40
30
20
10
0

2007

2008

Percent

100

2009

2010

66.4

73.6

86.3

51.9

39.3

40.5

6.1

29.2

26.9

10.4

2011

TALF-eligible percent of total
Percentage of TALF-eligible
pledged to TALF

80

Percentage of TALF-eligible
not pledged

60

40
59.5

93.9

70.8

73.1

89.6

20
0
2007

2008

2009

2010

2011

Sources: Board of Governors of the Federal Reserve System; Bloomberg Financial L.P.; discount window data.
Note: Eligible classes exclude legacy commercial-mortgage-backed-security transactions.

of the loss of vehicle market share by ABS-dependent
U.S. auto manufacturers.26 However, issuance collapsed
to $5 billion in the second half of 2008, bringing the
2008 total to $36 billion. Following the introduction
of TALF, 2009 issuance was more than $60 billion.
• In contrast, credit card ABS issuance had been
increasing from less than $70 billion in 2005 to almost
$100 billion in 2007, then fell to $60 billion in 2008.
No credit card ABS were issued in the fourth quarter of
26

Auto ABS fund static pools of loans and leases, so issuance is closely related
to the amount of lending, which in turn is closely related to sales of new and
used vehicles. In contrast, card ABS fund revolving pools of receivables, so the
amount of issuance depends more on the maturity profile of the trust and
normally has a less immediate relationship to the volume of lending.

2008. Card issuance rebounded to $46 billion for 2009,
one-fourth outside the program. Most major issuers
were able in 2009 to issue enough to refinance maturing
ABS, although with shorter terms than they likely
preferred. Card issuance came to a complete halt in late
2009, largely on concerns by credit rating agencies about
the impact of FAS 166/167 on bank-sponsored
securitization volume.27
• Student loan ABS issuance continued its volume decline
since 2005 and was relatively dependent on direct TALF
support. Investors initially hesitated to assume the
refinancing risk associated with three-year TALF
financing of longer-dated student loan ABS. Beginning
in June, five-year TALF loans became available.

FRBNY Economic Policy Review / November 2012

59

Table 8

Volume of New Issuances
Billions of Dollars
Panel A: Major Asset Classes
Asset Class

2005

2006

2007

2008

Auto–non-TALF

84.9

81.9

74.1

36.2

Auto–TALF
Credit card–non-TALF

67.8

66.9

99.5

59.1

10.4

8.8

5.8

3.1

Credit card–TALF
Equipment–non-TALF
Equipment–TALF
Student loan–non-TALF

2009

2010

2011

Total

45.8

387.8

6.2

339.7

13.8

51.1

41.6

2.7

32.8

7.4

29.1

0.3

0.9

4.3

6.5

0.6
13.5

44.2
29.4
6.3

39.5

13.7

258.7

7.1

63.2

67.1

61.4

28.2

11.6
7.4

2.2

CMBS

181.1

235.7

245.6

17.8

11.9

25.0

34.4

751.4

Total

415.0

451.2

494.5

149.3

165.8

128.6

144.4

1,867.4

Asset Class

2005

2006

2007

2008

2009

2010

2011

Total

Floorplan–non-TALF

12.9

13.3

6.9

1.2

0.7

10.7

5.8

51.5

4.3

3.4
0.2

23.8

Student loan–TALF

9.6

Panel B: Minor Asset Classes

Floorplan–TALF
Small business–non-TALF

8.7

7.7

1.9
3.8

0.6

4.4

2.9

5.7

3.4

0.1

0.1

0.5

12.7

1.2

1.2

2.4

0.2

0.3

0.3

0.3

1.4

2.2

4.7

1.5

0.2

21.4

28.0

18.3

3.5

12.8

18.7

Small business–TALF
Insurance–non-TALF
Insurance–TALF
Servicer–non-TALF
Servicer–TALF
Total

7.7

5.3

1.7
6.0

108.7

Sources: JPMorgan Chase; Bloomberg Financial L.P.
Note: Commercial-mortgage-backed-security (CMBS) data exclude agency issuances.

• Equipment ABS is the smallest of the major sectors, with
$10 billion or less in issuance between 2005 and 2007.
Issuance in this sector also evaporated in the second half
27

In particular, the FDIC has the authority to repudiate contracts when
resolving a failed bank, and that power includes the right to take securitized
assets back on to the balance sheet. In 2000, the FDIC implemented a rulemaking suggesting that as long as a securitization transaction met accounting
true sale requirements, it would benefit from a safe harbor from this resolution
authority. However, under the new accounting regime, most credit card
revolving master trusts would no longer benefit from true sale accounting
treatment and, consequently, would no longer benefit from the 2000 safe
harbor. As the change in accounting rules introduced sponsor credit risk into
what was supposed to be a bankruptcy-remote transaction, the credit rating
agencies refused to rate the senior notes of credit card master trusts with AAA
ratings unless the sponsor had a AA credit rating. Given downgrades of major
financial institutions below that level, this put their trusts at risk of downgrade.
Moreover, given the AAA-rating requirement of TALF, this prevented major
issuers from being able to issue through the program. The FDIC in late
November extended the 2000 regime through the end of March until the
end of TALF.

60 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

of 2008. It has returned to pre-crisis levels, but appears
to have been more dependent on the TALF support.
As seen in Table 8, panel B, ABS issuance by minor sectors—
servicing advances, dealer floorplan, insurance premium
receivables, and small-business loans—actually rose in 2009
compared with recent years, suggesting that TALF had a
significant impact on funding liquidity. The pattern of loan
requests suggests that it took some time for these sectors to
come to market. In the case of auto-dealer floorplan, it was
particularly difficult for issuers to secure AAA ratings given the
bankruptcy risk of the largest domestic auto manufacturers.
Overall, term ABS issuance in 2009 was about half that in
2005. Issuers had a lower need to issue ABS, since lending was
reduced by both the recession and higher credit standards,
while bank issuers, at least, had alternative sources of cheap
funding. Some issuers also had difficulty securing AAA term
credit ratings for their securitizations.

Table 9

New Issuances of Commercial Mortgage-Backed Securities, 2009
JPMCC 2009-IWST
Size
(Millions of Dollars)

Ratings
(RP/S)

Debt Yield
(Percent)

LTV
(Percent)

WAL

Initial Px Guidance

Final Pricing

A1

58.3

AAA/AAA

18.90

45.80

5.62

S+150-165

S+150

A2

330.6

AAA/AAA

18.90

45.80

9.95

S+205-220

S+205

B

24.1

AA/AA

17.80

48.60

9.95

S+360-385

S+360

C

42.9

A/A

16.10

53.70

9.95

S+410-435

S+420

D

44.0

BBB-/BBB-

14.70

58.90

9.95

8.25-8.50 percent

9.00 percent

X

10.0

AAA/AAA

NA

NA

NA

Size
(Millions of Dollars)

Ratings
(RP/S)

Debt Yield
(Percent)

LTV
(Percent)

WAL

Initial Px Guidance

Final Pricing

A

350

AAA/AAA

22.00

39.20

6.67

S+190-210

S+225

B

30

AA/AA

20.30

42.50

7.11

S+385-405

S+400

C

33

A/A

18.70

46.20

7.11

S+435-455

S+450

D

47

BBB-/BBB-

16.80

51.50

7.11

8.25-8.50 percent

8.75 percent

Size
(Millions of Dollars)

Ratings
(RP/S)

Debt Yield
(Percent)

LTV
(Percent)

WAL

Initial Px Guidance

Final Pricing

A

323.5

AAA/Aaa/AAA

20.50

41.80

4.62

S+175-200

S+140/3.810 percent

B

41.5

AA/Aa/AA

18.10

47.20

4.89

7.5-8.5 percent

S+335/5.737 percent

C

35.0

A/A/A

16.50

51.70

4.89

8.5-9.5 percent

S+385/6.230 percent

Class

BALL 2009-FDG
Class

DDR1 2009-DDR1
Class

Sources: Bloomberg Financial L.P.; security prospectus supplements.

While only one TALF-eligible, new-issue CMBS transaction
was brought to market—a single-borrower issue sponsored
by DDR—it appears to have had a large and positive impact
on market conditions. At the time of issuance, the DDR
transaction was the first U.S. CMBS issue in more than
eighteen months. The market impact of the transaction can
be seen in several ways. TALF received $72 million in loan
requests, compared with $323 million in AAA-rated bonds
issued, and spreads on all bonds in the DDR deal were
progressively tightened during the preissuance marketing
period. This evidence that the transaction was well supported
by cash buyers, together with the data it provided on the
pricing levels for new CMBS backed by recently and
conservatively underwritten loans, led within weeks to two
non-TALF, single-borrower CMBS transactions. These deals,
sponsored by LWest and Flagler, were of comparable size,
$350 million and $390 million, versus $325 million for DDR
(see Table 9 for a summary of the terms of these transactions).

The underwriters responded to improved market conditions
by seeking higher proceeds and longer underlying loan
maturities. The non-TALF transactions were tranched down
to a BBB rating, compared with single-A for DDR. The AAA
tranche of the non-TALF deals had loan-to-values of
39.2 percent and 45.8 percent, compared with 42 percent for
DDR. Despite the greater deal leverage and longer weighted
average life, spreads at issuance for the non-TALF AAA
tranches were only 50 to 75 basis points wider than DDR’s.
Despite the program’s success in facilitating these
transactions, as of this writing, issuance in the CMBS market
has remained subdued compared with pre-crisis levels. As is
the case for nonmortgage ABS, this owes in part to reduced
underlying lending activity. Also, some large real estate
investment firms that are potential sponsors of singleborrower deals have been able to access both the unsecured
debt and equity markets, reducing the need for secured
financing.

FRBNY Economic Policy Review / November 2012

61

TALF also had an impact on the ABS and CMBS investor
base. A higher fraction of the smaller volume of issuance from
2009 on was taken up by asset managers and hedge funds than
in prior years. Much of this new investment took place through
relatively small specialized funds managed by large asset or
hedge fund management companies that borrowed from the
TALF and invested only in TALF-eligible securities. The
fraction of ABS and CMBS issuance taken up by participants in
securities lending programs and by off-balance-sheet vehicles
such as SIVs, largely sponsored by banks, declined sharply.
While TALF was premised on the need to continue providing
leverage to a sector that had come to rely on it, the overall
extent of leverage employed by ABS and CMBS investors likely
fell as this shift in the investor base occurred. Table 1 displays
data on the investor base for term ABS before and after the
implementation of TALF in 2009.
As the investor base has shifted, TALF and recent non-TALF
ABS and CMBS deals have, in important respects, stepped back
from some of the more baroque features of late-stage pre-crisis
securitization. The complexity of ABS and CMBS structures
has been reduced—no longer, for example, do they feature
microtranching, the practice of issuing very thin tranches,
particularly in the mezzanine part of the liability structure.
These bonds were created to appeal to particular clienteles
seeking high yields alongside high systematic risk: When losses
in the loan pool are great enough to affect these thin tranches,
their loss given default can be close to 100 percent.
The Federal Reserve’s requirements as a nonrecourse
secured lender with a low risk appetite also had an influence on
deal structures. The Fed’s announcement of the introduction
of formal risk assessments for nonmortgage ABS reiterated its
criteria of “transparency, and simplicity of structure.”28 These
criteria were aligned with the market’s own recoil from the
complexity and opacity of pre-crisis ABS structures.

5.2 Liquidity Impact of TALF
Secondary-market credit spreads are a key indicator of liquidity
conditions as well as of credit risk. Spreads on structured credit
products widened dramatically in the fall of 2008 and tightened
almost as dramatically in the early months of TALF operations.
Term ABS spreads continued to narrow throughout early 2010,
in line with unsecured corporate spreads.
One cannot say with certainty how much of this improvement is attributable to TALF rather than to a more positive
view on credit risk. But the suddenness and rapidity of the
tightening suggest that TALF had a disproportionate effect
28

See http://www.federalreserve.gov/newsevents/press/monetary/
20091005b.htm.

62 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

on liquidity. The provision of liquidity may have had a
proportionally greater impact on new-issue ABS, where
liquidity was the primary problem, and less of an immediate
and evident impact on legacy and new-issue CMBS, where
problems were related to credit as well as liquidity. It is difficult
to ascertain the relative contribution of TALF versus a more
general reduction of spreads and risk premiums. Other factors
at work include the following:
• massive public sector support for the financial system;
• abatement of risk aversion, expressed particularly by
opportunistic investors buying oversold assets; and
• portfolio balance effects arising from increasing supplies
of low-risk government bonds and the drastic reduction
in supply of credit-risky bonds, including
securitizations.
As seen in the top panel of Chart 3, secondary-market
spreads on short-dated, AAA-rated credit card and prime auto
loan ABS widened to over 600 basis points, from near zero.
Relative to their extremely tight starting point, ABS spreads
widened more than the spreads on AAA-rated corporates with
similar duration.
While the new-issue ABS TALF did not support the
secondary market directly, there are several channels through
which support of primary markets could have contributed to
the tightening in the secondary market. Relative-value

One cannot say with certainty how much
of this improvement is attributable to TALF
rather than to a more positive view on
credit risk. But the suddenness and
rapidity of the tightening suggest that
TALF had a disproportionate effect
on liquidity.
arbitrage forces secondary-market spreads to narrow in
anticipation of new issuance at tighter spreads. In addition,
regaining access to term nonmortgage ABS funding reduced
the risk of nonbank issuer insolvency arising from inability to
roll over maturing funding. This would lower secondarymarket spreads, since issuers are generally the servicers of
nonmortgage ABS, and good financial condition of servicers
is associated with good loan pool performance.
Additional evidence for the program’s positive impact on
liquidity is the decline in utilization relative to the total volume
of new ABS issuance. As early as the fall of 2009, for major asset
classes, most new-issue ABS investors were not using TALF,

Chart 6

TALF Commercial-Mortgage-Backed-Security
Loan Requests
Millions of dollars

2,500

2,283

Legacy

New issue

2,125

2,000

1,500

1,402

1,400

1,453
1,325

1,256

1,256

1,000
669

500

2009

y
ar

M
ar
ch

y
ar

br
u
Fe

nu
Ja

em

De
c

N

ov

em

be
r

ob
er
ct

be
r
O

m
pt
e
Se

Au

gu

st

ly

be
r

72

0
Ju

either because they were cash investors or because (to a minor
extent) they had obtained leverage elsewhere. The program
thus served predominantly as a backstop for issuers, generating
significantly less volume and public sector risk exposure than
originally envisioned.
The bottom panel of Chart 3 chronicles the behavior of
fixed-rate conduit CMBS spreads on what were originally AAA
tranches from August 2008 through the end of November
2009. Spreads spiked in November 2008, and again in March,
the low point for many credit- and equity-risk asset prices,
peaking around the announcement of the legacy TALF
program. In addition to the overall flight from risky assets
between September 2008 and March 2009, which affected all
securitizations, the CMBS market had to cope with recognition
of low underwriting standards in many late-vintage CMBS
deals and with the difficulty of refinancing CRE loans in the
new-issue CMBS market.
The rollout of the legacy TALF program coincided with a
dramatic decline in spreads, although news of a change in
Standard and Poor’s fixed-rate conduit CMBS ratings criteria
unnerved markets in the weeks before the program started.
As seen in the bottom panel of Chart 3, the peak in spreads
coincided with the March 2009 announcement that TALF
would include CMBS, and the most rapid decline in spreads
commenced with the posting of details on the new-issue and
legacy CMBS programs in May 2009.
Chart 6 shows loan requests for legacy CMBS over the life
of the program. The first legacy subscription occurred in
July 2009, with loan requests of just under $670 million.
Monthly loan requests varied between $1.3 billion and
$2.3 billion, for a total over the life of the program of
$13 billion in loan requests. The extent of secondary-market
spread tightening in 2009 and early 2010, displayed in Chart 3,
is noteworthy in view of the comparatively small volume
of TALF lending.
However, it is hard to isolate the impact of the program,
as spreads tightened not only for TALF-eligible super-senior
(AS) tranches, but also for AM and AJ tranches, which were
not eligible. While spreads on all CMBS AAA-rated bonds
narrowed steadily from early 2009, spreads for AM and
AJ bonds narrowed more than those of super-senior bonds.
Together with the general narrowing of risk spreads, this
indicates the impact of factors other than TALF. In
March 2009, for example, the U.S. Treasury announced the
Legacy Securities PPIP program, targeted at a far broader range
of securities, by asset type and credit quality, than TALF.
Although it became clear on May 19, 2009, that AM and
AJ bonds would be excluded from TALF, spreads for all
three classes of bonds continued to narrow.

2010

Source: Federal Reserve Bank of New York: http://www.newyorkfed
.org/markets/cmbs_operations.html.

Additional insights into the impact of TALF on liquidity can
be obtained from the response of legacy CMBS spreads to
TALF subscription results. As noted above, the New York Fed
had the right to reject legacy TALF loan requests if it believed
that the loan amount would be larger than the bond’s stress
value (its value in a severe economic stress scenario). It
identified specific bonds accepted and rejected following a risk
assessment, but otherwise gave the market limited insight into
how it assessed the risk of the bonds. Accordingly, the
announcements generally contained some news. Chart 7 shows
the number of CUSIPs submitted at each operation and the
fraction rejected during the risk assessment.
If the TALF program were having an important impact
on spreads, one might expect the acceptance or rejection
announcement to have a lasting impact on the prices at which
bonds were traded. In fact, Campbell et al. (2011) find such an
impact, particularly that of rejections. Loan rejections appear
to have had a stronger impact on secondary-market spreads in
the early months of the program, while later rejections had a
more transitory impact on spreads, suggesting that a significant
amount of non-TALF liquidity had entered the market. The
surge in loan requests in the last (March 2010) legacy CMBS
operation is consistent with this observation. Purchasers of
eligible CMBS in the secondary market would have been more
reluctant to bear the risk of loan rejection had they expected a
sharp widening of the spread to result.
As with new-issue ABS, secondary-market spreads have
come in without the program taking a significant amount of

FRBNY Economic Policy Review / November 2012

63

exposure, and it has been able to do so in the presence of
conservative haircuts for the underlying credit risk and strong
mechanisms to limit adverse selection.

6. Conclusion
In several key respects, the public policy posture and intent
of TALF have been easy to misunderstand. TALF appears on
its face to provide direct credit support for either certain
categories of lending, such as consumer credit card and auto
loans or commercial real estate investors, or certain ABS issuers
who would otherwise have had enormous difficulty carrying on
their businesses.
The distinction between liquidity support and credit
support is key to understanding the design of TALF. Preventing
the shutdown of lending to consumers and small businesses
was the goal. But the means was not having the Fed take on
material credit risk in those loans. Rather, it was to encourage
private investors to do so, by providing them with liquidity in
the form of access to leveraged financing of investments, and
to the market in the form of pricing benchmarks.
TALF might also have been misinterpreted as a validation of
the “shadow banking system,” or of the particular forms taken
by securitization of credit over the past decade. There was,
however, no intent to signal satisfaction with securitization as
it existed. The design of TALF was intended to counter some
undesirable features insofar as they were relevant to the Federal
Reserve as a nonrecourse lender collateralized by senior bonds,
such as overreliance on ratings, trust structures that could
disadvantage senior bonds in certain situations, and opaque
structures generally. TALF was designed to use an existing
securitization channel of credit intermediation in an
emergency, regardless of its imperfections or of any intention
to institute reforms in the future.
Insofar as the TALF program was intended to provide
liquidity rather than credit support to the market, it is
consistent with the classical doctrine on central banks’ lenderof-last-resort policy during a crisis: Lend at a penalty rate on
good collateral. It was unusual in providing that liquidity
support to the market as a whole, through investors in a class
of securities, rather than to financial intermediaries.29
However, the balance between credit risk and program
objectives was delicate. If the credit risk tolerance had been set
too low—through haircuts, lending rates, or other terms and
conditions—the program would not have been effective. It was
not obvious ex ante that there was a program design that would
29

See Madigan (2009) and Sack (2010) for further discussion of these issues.

64 The Federal Reserve’s Term Asset-Backed Securities Loan Facility

lead to new issuance of ABS without exposing the Federal
Reserve to more credit risk than desired.
The implementation of TALF for nonmortgage new-issue
ABS was associated with a dramatic recovery in secondarymarket spreads, outpacing the broad recovery in spreads across
credit markets. While there was also a sharp recovery in
issuance volumes in 2009, issuance has not returned to its
pre-crisis levels, no doubt reflecting the poor overall state of
the economy, among other factors. Although spreads have
come in, the market is no longer dominated by levered buyers.
The stronger presence of cash investors suggests that this
nontraditional exercise of the lender-of-last-resort function
did not simply pump up ABS and CMBS prices, but rather
helped markets solve a coordination problem.
The rollout of the legacy TALF program also corresponded
to a dramatic decline in spreads. While news of the change
in Standard and Poor’s fixed-rate conduit CMBS criteria
unnerved markets in the weeks before the program started,

The most impressive achievement of the
TALF program is how much it was able
to accomplish with so little exposure
and with such conservative terms.

and loan rejection had a dramatic impact on spreads in the
early months of the program, later loan rejections appear to
have had only a transitory impact on secondary-market
spreads, suggesting a recovery of non-TALF liquidity in the
market. The high rejection rate in the final legacy CMBS
subscription in March 2010 (Chart 7) confirms investors’
confidence in their ability to finance positions without TALF.
As with new-issue ABS, secondary-market spreads came in
without the program taking a significant amount of exposure,
and it has been able to do so in the presence of conservative
haircuts for the underlying credit risk and strong mechanisms
to limit adverse selection.
Finally, the new-issue CMBS program had remarkable
success in bringing the first transaction to market in more than
eighteen months, which was quickly followed by other singleborrower transactions. It was able to accomplish this with
minimal program exposure, tight loan underwriting standards,
and a conservative trust structure that protects senior investors.
However, the impact of the program on the supply of
commercial real estate credit has clearly been much smaller
than the impact of the new-issue ABS program on the supply
of consumer and commercial credit.

Chart 7

Legacy Commercial-Mortgage-Backed-Security
CUSIP Rejection Rate
Percent

Number

35

34.5 90

Rejection rate
86

86

(Left scale)

30

80

CUSIPs

70

(Right scale)

25

60
59

20

58

56

55

51

15

50
40

45
36

30

10

20

ar
ch
M

br
u

ar

y

ry
Fe

be
r

ua
Ja
n

em

em
De
c

N

ov

m

O
ct

t
us

pt
e

Au
g

Se

2009

be
r

0
ob
er

0
be
r

10
Ju
ly

5

2010

Source: Federal Reserve Bank of New York: http://www.newyorkfed
.org/talf_cusips_archive.html.
Note: The chart shows the total number of CUSIPs submitted and
rejected CUSIPs as a fraction of the total (in percent).

One interpretation of events is that the provision of liquidity
can alleviate funding constraints created by illiquidity.
However, it is much more difficult for liquidity provided under
prudent terms to have a significant impact on markets where

deeper structural issues exist. The fundamental uncertainty
about the depth of the commercial real estate cycle, combined
with poor performance of the rating agencies in CMBS,
suggests that liquidity has not been the only problem limiting
the supply of CRE credit.
The most impressive achievement of the TALF program is
how much it was able to accomplish with so little exposure and
with such conservative terms. Its impact on market conditions
raises important questions about how liquidity works. TALF
will remain an interesting data point in understanding the
nature of liquidity, suggesting that it may be related as much
to multiple equilibria (investor psychology) as to leverage
(the supply of credit). To the extent that TALF had an impact
on liquidity, and in view of the low lending volume of the
program, how was that impact transmitted? Among the
possible mechanisms are the following:
• A handful of benchmark transactions conveyed
important information about market-clearing spreads
to the market, encouraging issuers.
• Provision of term funding induced investors to
participate, permitting the financing of entire new
trusts.
• TALF’s credit standards supported the marketplace’s
more stringent requirements around credit quality
and structure.
These and other issues related to this complex emergency
liquidity program are worth exploring in the future.

FRBNY Economic Policy Review / November 2012

65

References

Agarwal, S., J. Barrett, C. Cun, and M. De Nardi. 2010. “The AssetBacked Securities Markets, the Crisis, and TALF.” Federal Reserve
Bank of Chicago Economic Perspectives 34, no. 4 (fourth
quarter): 101-15.
Ashcraft, A., N. Gârleanu, and L. Pedersen. 2010. “Two Monetary
Tools: Interest Rates and Haircuts.” NBER Working Paper
no. 16337, September.
Campbell, S., D. Covitz, W. Nelson, and K. Pence. 2011. “Securitization
Markets and Central Banking: An Evaluation of the Term AssetBacked Securities Loan Facility.” Journal of Monetary
Economics 58, no. 5 (July): 518-31.
Dudley, W. 2009. “A Preliminary Assessment of the TALF.” Remarks
delivered at the Securities Industry and Financial Markets
Association and Pension Real Estate Association’s Public-Private
Investment Program Summit, New York City, June 4. Available at
http://www.newyorkfed.org/newsevents/speeches/2009/
dud090604.html.

Madigan, B. 2009. “Bagehot’s Dictum in Practice: Formulating
and Implementing Policies to Combat the Financial Crisis.”
In Financial Stability and Macroeconomic Policy,
Jackson Hole Symposium, Federal Reserve Bank of Kansas City,
August 10-11. Available at http://www.kc.frb.org/publicat/
sympos/2009/papers/Madigan-2009.pdf.
Robinson, K. 2009. “Jump-Starting the Securitization Markets.”
Federal Reserve Bank of Dallas Economic Letter 4, no. 6
(August).
Sack, B. 2010. “Reflections on the TALF and the Federal Reserve’s Role
as Liquidity Provider.” Remarks delivered at the New York
Association for Business Economics, New York City, June 9.
Available at http://www.newyorkfed.org/newsevents/speeches/
2010/sac100609.html.
Vasicek, O. 1991. “Limiting Loan Loss Probability Distribution.”
KMV Corporation, August 9. Available at http://
www.moodysanalytics.com/~/media/Insight/QuantitativeResearch/Portfolio-Modeling/91-08-09-Limiting-Loan-LossProbability-Distribution.ashx.

Other Electronic Sources
Board of Governors TALF Site
Factors Affecting Reserve Balances (H.4.1)
Independent Auditors Annual Report (FRBNY)
Financial Stability Information
Monthly Transparency Reports

http://www.federalreserve.gov/newsevents/reform_talf.htm
http://www.federalreserve.gov/releases/h41/
http://www.ny.frb.org/aboutthefed/annualreports.html
http://www.financialstability.gov
http://www.federalreserve.gov/monetarypolicy/bst.htm

The views expressed are those of the authors and do not necessarily reflect the position of the Federal Reserve Bank of New York
or the Federal Reserve System. The Federal Reserve Bank of New York provides no warranty, express or implied, as to the
accuracy, timeliness, completeness, merchantability, or fitness for any particular purpose of any information contained in
documents produced and provided by the Federal Reserve Bank of New York in any form or manner whatsoever.
66 The Federal Reserve’s Term Asset-Backed Securities Loan Facility