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April 2014 (March 14, 2014-April 10, 2014)

In This Issue:
Banking and Financial Markets

Monetary Policy

 What’s behind the Decline in Tri-party Repo
Trading Volumes?
 Tracking Recent Levels of Financial Stress
 Money Market Mutual Funds and Financial
Stability

 The Yield Curve and Predicted GDP Growth,
March 2014

Inflation and Prices
 Cleveland Fed Estimates of Inflation
Expectations
 Methods for Evaluating Recent Trend Inflation

Regional Economics
 Annual Revisions to Metro-Level Jobs Data Shed
New Light on Job Growth in Fourth District Metro
Areas

Banking and Financial Markets

What’s behind the Decline in Tri-party Repo Trading Volumes?
04.03.14
by Mahmoud Elamin and William Bednar
The tri-party repo market is a platform where
security-rich borrowers are matched with cash-rich
lenders. The borrowers pledge their securities as collateral for the cash they want to borrow. It is called
tri-party because the transactions are settled on the
books of two banks: The Bank of New York Mellon
(BNYM) and JPMorgan Chase (JPMC), which act
as third-party custodians for the collateral securities. These banks provide, among other things,
settlement services to finalize the transaction.

Total Collateral Value
Trillions of dollars
2.0

1.9

1.8

1.7

1.6

1.5
2010

2011

2012

2013

Source: Federal Reserve Bank of New York.

Total Collateral Value by Asset Class
Billions of dollars
1,000
Agency securities

At its peak, around $2 trillion worth of securities
changed hands daily in this market. Often referred
to as the bloodline and plumbing of the financial system, the tri-party repo market motivated a
number of policy interventions during the recent
financial crisis after the potential for disruptions in
the market threatened to interrupt funding flows.
Here we look at what is happening currently in this
important market.
Total collateral value is an estimate of the market
value of the underlying securities involved in the
deals that are made in a market. Total collateral
value in the tri-party repo market rose steeply after
2011, peaked toward the end of 2012, and then fell
steeply.

800
Treasury securities
600

400

200
2010

Other

2011

2012

2013

Source: Federal Reserve Bank of New York.

Tri-party repos can be classified according to the
type of asset that acts as collateral. We can decompose total collateral value into its respective assetclass categories to see which asset class was most
responsible for the decline. When we do this, we
see that the decline in the total is mainly due to a
decline in agency securities that are used for triparty collateral, while the value of Treasury securities and other securities seems to have held roughly
steady. The submarket for agency securities has
experienced a steep decline of almost 40 percent
since mid-2012.
The agencies referred to here are government-supported enterprises or GSEs (Fannie Mae, Freddie
Mac, Ginnie Mae), which are supported by the US

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

2

government to help the housing market. Agency
securities are the sum of three different types of
securities: agency collateralized mortgage obligations (CMOs), agency debentures and strips, and
agency mortgage-backed securities (MBS). The
decline in agency securities traded is mainly the
result of a decline in agency MBS, which represent
a big chunk of the agency securities traded in the
tri-party market.

Total Collateral Value: Agency Securities
Billions of dollars
1,200
1,000

Agency CMOs
Agency debentures and strips
Agency MBS

800
600
400

Next, we present data on repo rates. These are the
interest rates charged on the loans supported by the
collateral. We see that concurrent with the drop in
the collateral value traded, there is a drop in rates
charged for the repo transactions.

200
0
2010

2011

2012

2013

Source: Federal Reserve Bank of New York.

One possible explanation for these concurrent
declines in repo rates and in total tri-party collateral
value traded is Federal Reserve purchases of securities from the open market. As part of its policy
response in the aftermath of the financial crisis, the
Fed started buying securities for its own account.
Asset holders who previously funded their assets
in the tri-party repo market can now sell them to
the Fed instead, reducing demand in the tri-party
market.

GCF Repo Rate Index
Percent
0.35
MBS

0.30
0.25
0.20
0.15
0.10

Treasuries
0.05
0.00
2010

Agency
2011

2012

2013

2014

Source: Depository Trust and Clearing Corporation.

Total Collateral Value: Agency Securities
Billions of dollars

Billions of dollars

1800

1,100

1,000

Collateral value
of agency securities

1600

1400

900

800

600
2010

1200

Federal Reserve
holdings of agency
securities

700

1000

800
2011

2012

In fact, there is some evidence that supports the
story of the Fed playing a role in the tri-party
market decline. The chart below shows the Federal
Reserve’s holdings of agency securities along with
the agency securities used as collateral in tri-party
repos. These two series show a strong negative
correlation. When Fed holdings declined or held
steady, there was a rise in the volume of agency
securities in the tri-party repo market. A steep increase in Fed holdings beginning in 2011 happened
at the same time that this type of repo collateral
began its steep decline. To put the numbers in this
figure into perspective, we next analyze changes in
the total share of the MBS market going to the Fed
and to tri-party repo collateral.

2013

Source: Federal Reserve Bank of New York; Board of Governors of the Federal
Reserve System.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

One of the new securities being purchased on
the open market by the Fed is agency MBS. The
Fed owned about 20 percent of the MBS market
around the beginning of 2010. The Fed’s share of
total market declined slightly to about 15 percent
around mid-2012. After that, we see a clear upward
trend in the Fed’s holdings of these securities, coin3

Share of Agency Mortgage-Backed
Securities Held by the Federal Reserve
Percentage of total agency MBS
30

ciding with the decline in the tri-party repo volumes. Currently, the Fed owns about 25 percent of
the market, having increased its share by 10 percent
since mid-2012.
Only about 8 percent to 12 percent of the total
MBS market is traded in the tri-party market. This
is a small amount of the total market. But given
that the MBS market is a huge market, this share
translates into a pretty big number.

25
20
15
10
5
0
2010

2011

2012

2013

Sources: Board of Governors of the Federal Reserve System; Securities Industry
and Financial Markets Association; authors’ calculations.

Ratio of Collateral Value to Outstanding
Mortgage-Backed Securities
Percentage of total agency MBS
14
12

As we saw with agency securities in general, the upward trend in Fed purchases and holdings of MBS
coincides with the decline in the share of MBS
traded in the tri-party market. This is surprising,
particularly because the Fed increased its market
share of these securities by only 10 percent of the
total market since mid-2012, and the tri-party
MBS constituted only about 12 percent of that
market at the time. These observations suggest that
Fed purchases were from market participants who
were otherwise willing to borrow in the tri-party
market. If the Fed purchases dipped into the almost
90 percent of the market not trading in the triparty repo, we might not see such a strong negative
correlation between Fed purchases and the drop in
the MBS tri-party repo.

10
8
6
4
2
0
2010

2011

2012

2013

We have presented some evidence that the increase
in Fed purchases and holdings of agency securities might have been responsible for some of the
decline in the volume of agency securities traded
in the tri-party repo market. With the Fed tapering its purchases, it will be interesting to see if the
tri-party repo market experiences a rebound as Fed
purchases start to fade away.

Sources: Board of Governors of the Federal Reserve System; Securities Industry and
Financial Markets Association; authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

4

Banking and Financial Markets

Tracking Recent Levels of Financial Stress
04.03.14
by Amanda Janosko

Cleveland Financial Stress Index
Standard deviation
3

January FOMC
meeting

March FOMC
meeting

2

Grade 4

1
Grade 3
0
Grade 2
-1
-2
-3
1/2014

Grade 1
2/2014

3/2014

4/2014

Source: Oet, Bianco, Gramlich, and Ong, 2012. "A Lens for Supervising the Financial
System," Federal Reserve Bank of Cleveland working paper no. 1237.

Equity Market Contribution to Stress
Points

Units of stress

Increased contributions of the equity market to
overall financial stress accounted for the majority of
the uptick in the CFSI in early February. From the
beginning of January to early February, the contribution of the equity market to overall financial
stress increased. Toward the end of the quarter, the
equity market’s contribution began to wane, and
the overall index fell as a result.

1900

20
S&P 500

1850

15
10

Equity market
component

1800
1750

5
0
1/2014

The Cleveland Financial Stress Index (CFSI)
remained in a Grade 1 or “low stress” period
throughout most of the first quarter of 2014. As
January progressed, the index trended upward
until it reached its recent peak in early February
and crossed into a Grade 2 or a “normal stress”
period. Since that time, the index has subsided
while remaining at an elevated level within Grade
1. As of April 1, the index stands at −1.06, which is
4.15 standard deviations below the historical high
in December 2008 and 1.03 standard deviations
above the historical low in January 2014. The index
is down 0.87 standard deviations from this time
last year.

2/2014

3/2014

1700
4/2014

Note: These contributions refer to levels of stress, where a value of 0 indicates the
least possible stress and a value of 100 indicates the most possible stress. The sum
of these contributions is the level of the CFSI, but this differs from the actual CFSI,
which is computed as the standardized distance from the mean, or the z-score.
Sources: Author’s calculations; Haver Analytics.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

Of the remaining financial markets measured by
the CFSI, the credit, funding, foreign exchange,
and real estate markets contributed to stress at
relatively constant levels over the first quarter of
2014. The securitization market showed moderate
increased contributions to stress in early February, which were sustained through the end of the
quarter.
The Cleveland Financial Stress Index and all of
its accompanying data are posted to the Federal
Reserve Bank of Cleveland’s website at 3 p.m. daily.
For a brief overview of how the index is constructed
see this page. The CFSI and its components are
also available on FRED (Federal Reserve Economic

5

Data), a service of the Federal Reserve Bank of St.
Louis. FRED allows users to download, graph, and
track more than 200,000 data series.
For more on the Cleveland Financial Stress Index, visit
http://www.clevelandfed.org/research/data/financial_stress_index/.

Stress-Level Contributions of Component
Markets to CFSI
100
Credit
Funding
Equity

50
40

CFSI

Foreign exchange
Real estate
Securitization

30
20
10
0
1/2014

2/2014

3/2014

4/2014

Note: These contributions refer to levels of stress, where a value of 0 indicates the least possible
stress and a value of 100 indicates the most possible stress. The sumof these contributions is
the level of the CFSI, but this differs from the actual CFSI, which is computed as the
standardized distance from the mean, or the z-score.
Source: Oet, Bianco, Gramlich, and Ong, 2012. "A Lens for Supervising the Financial
System," Federal Reserve Bank of Cleveland working paper no. 1237.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

6

Banking and Financial Matkets

Money Market Mutual Funds and Financial Stability
04.03.14
by Lakshmi Balasubramanyan

Money Market Mutual Fund Assets
Billions of dollars
1,400
1,200
Prime institutional
1,000
800
Prime retail
600
Lehman falls (9/15/2008)
Reserve Primary Fund
breaks the buck (9/16/2008)

400
200
0
2000

2002

2004

2005

2008

2010

2012

In the wake of Lehman Brothers’ failure in September 2008, a money market mutual fund (MMMF)
called the Reserve Primary Fund experienced
substantial outflows. Investors were concerned
about the fund’s credit exposure to Lehman. More
specifically, investors were concerned that losses
from the Lehman exposure would cause Reserve
Fund to “break the buck” (that is, redeem shares for
less than one dollar) and violate MMMFs’ implicit
promise of being as safe as bank deposits. Problems
at Reserve Fund also triggered large withdrawals
from other MMMFs. In response to these runs,
the Treasury Department and the Federal Reserve
stepped in with the Exchange Stabilization Fund
and the ABCP Money Market Mutual Fund Liquidity Facility (AMLF), respectively. These programs considerably mitigated the outflows.

Source: iMoneyNet.

Weighted Average Portfolio Composition of
Prime Institutional Money Market Mutual Funds
2005:Q1
12%

11%

19%

2008:Q1
4%
14%

13%
23%

4%

3%
9%

20%

7%

7%

6%
24%

24%

2014:Q1
4% 4%

10%
13%

13%

10%
2%

22%
22%

Asset-backed commercial paper
Domestic bank obligations
First-tier commercial paper
Floating rate notes
Foreign bank obligations
Repos
Time deposits
US Treasury
US other

Source: iMoneyNet.

Five years after the crisis, where do MMMFs stand?
Are they taking on sources of risk that could pose a
problem in the future? Are they sufficiently liquid
to deal with sudden outflows or runs? The riskiness of the funds and their ability to meet sudden
liquidity requirements are two litmus tests of stability and resiliency for the financial industry. In this
article, we address these questions by comparing
the aggregate portfolios of two types of MMMFs,
prime institutional and prime retail funds, before
and after the crisis. Prime funds are MMMFs that
are invested primarily in private credit instruments
as opposed to US Treasuries and federal agency
and tax-exempt securities. The terms institutional
and retail refer to the investors—institutions or
individuals. During the 2008 financial crisis, prime
funds were the most affected type of MMMF and
suffered the most disruption due to losses in private
credit investments. We also examine the liquidity
position of prime funds in 2011 (when the data
became available).
Looking at the average composition of prime institutional MMMFs’ portfolios, we can see that commercial paper holdings have clearly declined below

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

7

Weighted Average Portfolio Composition
of Prime Retail Money Market Mutual Funds
2008:Q1

2005:Q1
11%

9%

11%

9%
9%
1%
5%
5%

22%

9%
6%
40%

2014:Q1
5%

10%
9%

15%

5%
2%
14%

30%

2%

18%

36%

10%

7%

Turning to the portfolio composition of prime
retail MMMFs, we can see patterns similar to those
of the prime institutional funds. Foreign bank
obligations have risen steadily from 5 percent to
14 percent. In addition, the share of foreign bank
obligations in the portfolios of both retail and institutional funds has steadily risen since 1995, from 6
percent to over 17 percent.

Asset-backed commercial paper
Domestic bank obligations
First-tier commercial paper
Floating rate notes
Foreign bank obligations
Repos
Time deposits
US Treasury
US other

Source: iMoneyNet.

Prime Funds’ Foreign Bank Obligations
(as a Share of the Portfolio)
Percent
18
14
16
12
10
8
6
4
2
0
1995

1997

pre-crisis levels. Well before the crisis, in 2005:Q1,
asset-backed commercial paper (ABCP) constituted
12 percent of the average portfolio of prime institutional MMMFs, while Tier-1 commercial paper
excluding ABCP made up 24 percent of the portfolio (jointly 36 percent). Just prior to the crisis,
Tier-1 and asset-backed commercial paper formed
about 43 percent of the institutional portfolio. Currently, Tier-1 commercial paper and ABCP jointly
constitute 32 percent of the institutional portfolio.
Holdings of floating-rate notes have also declined
from 23 percent to 13 percent for prime institutional funds. Foreign bank obligations have risen
steadily from 7 percent in the pre-crisis period to
22 percent as of 2014:Q1.

1999

2001

2003

2005

2007

2009

2011

Source: iMoneyNet.

2013

To assess liquidity conditions in the MMMFs,
we use data from new reports that MMMFs are
required to file. The Securities and Exchange Commission (SEC) started collecting information on
prime funds’ liquidity positions in 2011 through
Form N-MFP. Data gathered from this form suggest that the liquidity positions of prime funds
have weakened somewhat since 2011. Daily liquid
assets formed 30 percent of the prime portfolio in
2012:Q3. Weekly liquid assets formed 45.4 percent
of the prime portfolio in 2012:Q4. As of 2014:Q1,
daily liquid assets comprised 23.2 percent of the
prime portfolio, and weekly liquid assets comprised
36.7 percent of the portfolio. The liquidity of assets
is likely to fluctuate based on varying maturities of
the assets held. However, it is important to ensure
that there are no huge fluctuations in the daily and
weekly liquidity positions of prime portfolios.
Given their current aggregate portfolios and liquidity positions, MMMFs seem to pose no serious
threats to financial stability at the moment. However, we must keep a vigilant watch on the MMMFs’
holdings of liquid funds. Large fluctuations in

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

8

liquid-fund holdings can pose a threat in the event
of financial stress, which can in turn lead to financial instability.

Prime Funds’ Daily and Weekly Liquidity
Holdings as a Percentage of Total Assets
Percent of total assets
50

Weekly liquid assets

45

References

40

Rosengren, Eric, (2012), Money Market Funds and Financial
Stability: Remarks at the Federal Reserve Bank of Atlanta’s 2012
Financial Markets Conference, Stone Mountain, Georgia.

35
Daily liquid assets

30
25

Ennis, H.M., and Haltom, R., (2014), Reforming Money Market
Mutual Funds: A Difficult Assignment, Federal Reserve Bank of
Richmond Economic Brief, EB14-02.

20
15
10
5
0
2011

2012

2013

2014

Sources: Investment Company Institute (www.ICI.org), SEC Form N-MFP.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

9

Inflation and Prices

Cleveland Fed Estimates of Inflation Expectations
News Release: March 18, 2014
The latest estimate of 10-year expected inflation is
1.74 percent, according to the Federal Reserve Bank
of Cleveland. In other words, the public currently
expects the inflation rate to be less than 2 percent
on average over the next decade.

Ten-Year Expected Inflation and
Real and Nominal Risk Premia
Percent
7
6

The Cleveland Fed’s estimate of inflation expectations is based on a model that combines information from a number of sources to address the
shortcomings of other, commonly used measures,
such as the “break-even” rate derived from Treasury
inflation protected securities (TIPS) or survey-based
estimates. The Cleveland Fed model can produce
estimates for many time horizons, and it isolates
not only inflation expectations, but several other
interesting variables, such as the real interest rate
and the inflation risk premium.

5
Expected inflation

4
3
2

Inflation risk premium

1
0
1982

1986

1990

1994

1998

2002

2006

2010

2014

Source: Haubrich, Pennacchi, Ritchken (2012).

Real Interest Rate

Expected Inflation Yield Curve

Percent

Percent

12

2.5

10
2.0

8

February 2014

6

March 2013

1.5

4
2

1.0

0
-2

March 2014

0.5

-4
0.0

-6
1982

1986

1990

1994

1998

2002

2006

2010

2014

1 2 3 4 5 6 7 8 9 10 12

15

20

25

30

Horizon (years)
Source: Haubrich, Pennacchi, Ritchken (2012).
Source: Haubrich, Pennacchi, Ritchken (2012).

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

10

Inflation and Prices

Methods for Evaluating Recent Trend Inflation
03.28.14
by William Bednar and Todd Clark

CPI-Based Inflation Measures
Year-over-year percent change
4.0
CPI
3.5
3.0

Median CPI
excluding OER

2.5
2.0
1.5
1.0

Core CPI

Median CPI

0.5
0.0
2010

2011

2012

2013

2014

Source: Bureau of Labor Statistics.

Forecasts of PCE Inflation
Year-over-year percent change
3.0
Forecast
2.5
Survey-based forecast

2.0
1.5
1.0

PCE price index

Model 2 forecast
Model 3 forecast

0.5
0.0
2010

2011

2012

2013

2014

2015

2016

Source: Bureau of Economic Analysis; authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

The Federal Reserve’s Federal Open Market Committee (FOMC) has set a long-run objective for
consumer price inflation of 2.0 percent. However,
most measures of inflation in the US have declined
over the past year and are running consistently
below this objective. For example, in February, the
year-over-year percent change in the Consumer
Price Index (CPI) was just 1.1 percent, and the percent change in the CPI excluding food and energy
(core CPI) was just 1.6 percent. One measure of
inflation that has been relatively steady around 2
percent is the median CPI produced by the Federal
Reserve Bank of Cleveland. However, the higher
rate of inflation in the median CPI is driven largely
by the Owner’s Equivalent Rent (OER) component
of the index. If this component is omitted, inflation in the median CPI (excluding OER) was 1.5
percent in February, following a trajectory similar
to that of core CPI inflation.
The FOMC’s preferred inflation indicators, which
are based on the Personal Consumption Expenditures (PCE) price index, have also been persistently
below 2.0 percent. In January, the most recent
month for which data are available, the year-overyear percent change in the PCE price index was 1.2
percent, and the percent change in the core PCE
price index was 1.1 percent. Each of these indicators has been running below 2.0 percent since early
in 2012. More broadly, inflation in the core PCE
price index has been consistently below 2.0 percent
since the middle of the most recent recession, apart
from a few months in the beginning of 2012.
The long-running pattern of core PCE inflation
falling short of 2 percent raises a fundamental
question: has the longer-term trend rate of inflation
declined, or are we simply experiencing an extended period of inflation running below its unchanged
trend? Trend inflation can be thought of as the rate
of inflation that would be expected to prevail if
there were no temporary factors, such as a level of
economic activity below the economy’s potential,
11

influencing the inflation rate. Put another way,
trend inflation is the inflation rate that we would
expect after temporary factors subside.

PCE-Based Inflation Measures
Year-over-year percent change
3.0
PCE price index
2.5
2.0
1.5
Core PCE price index
1.0
0.5
0.0
2010

2011

2012

2013

2014

There are a number of ways to measure or estimate trend inflation. Different approaches can be
reasonable because, with the available data, it can
be difficult to distinguish a change in trend from
a persistent deviation of inflation from the trend.
One model might attribute a long-running change
in inflation to a change in the trend, while another
attributes the change to a persistent deviation of
inflation from an unchanged trend. Both models
may nonetheless predict a similar path of inflation
in the future.

Source: Bureau of Economic Analysis.

Survey-Based Trend Inflation: CPI
Year-over-year percent change
6.0
5.0
Consumer Price Index
4.0
Estimated
trend inflation

3.0
2.0
1.0

3 Measures of Trend Inflation

0.0
-1.0
-2.0
2005

2006

2007

2008

2009

2010

2011

2012

2013

Sources: Bureau of Labor Statistics; authors’ calculations.

Survey-Based Trend Inflation: PCE
Year-over-year percent change
4.0
3.5

PCE price index

3.0

Estimated
trend inflation

2.5
2.0
1.5
1.0
0.5
0.0
-0.5
-1.0
2005

Recent research (see Clark and Doh 2014) compares how well different models or measures of
trend inflation fare in forecasting inflation from
1975 through 2012. Several measures stand out for
forecasting relatively well, yet they are quite different. We apply three of these measures to quarterly
data through 2013:Q4 to assess what each says
about whether trend inflation may have declined in
recent years and what each implies for the inflation
outlook.

2006

2007

2008

2009

2010

2011

2012

2013

Sources: Bureau of Economic Analysis; authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

One approach to measuring trend inflation is to
define it as the long-run forecast of professional
forecasters. The forecast used is the 1-10 year ahead
average inflation forecast from the Survey of Professional Forecasters (SPF). By this measure, trend
inflation has remained stable: the survey estimates
of long-run inflation haven’t changed much in recent years. This definition of trend inflation implies
that the recent decline in inflation is a persistent
deviation from an unchanged trend, rather than a
change in the trend itself.
A second approach to quantifying trend inflation
relies on a simple statistical model that decomposes
inflation into a trend component and noise—very
temporary deviations from trend (see Stock and
Watson 2007 for details). According to this approach, trend inflation has fallen noticeably. However, the estimate of trend from this model has
been quite variable over time, and it tends to move
somewhat in line with actual inflation. As a result,
12

by this method the recent disinflation looks to be
caused by both the decline in the trend and temporary deviation from it.

Trend Inflation from Model 2: CPI
Year-over-year percent change
6.0
5.0
Estimated trend
inflation

4.0
3.0
2.0
1.0
0.0

70% confidence interval
around trend estimate
Consumer Price Index

-1.0
-2.0
2005

2006

2007

2008

2009

2010

2011

2012

2013

Sources: Bureau of Labor Statistics; authors’ calculations.

Implications for the Inflation Outlook

Trend Inflation from Model 2: PCE
Year-over-year percent change
4.0
70% confidence interval
around trend estimate

3.5
3.0
2.5
2.0
1.5
1.0
0.5

Estimated trend
inflation
PCE price index

0.0

A third measure of trend inflation comes from a
model that decomposes inflation into a trend component and somewhat persistent deviations from
trend (see Cogley and Sargent 2005 for details).
Estimates of the trend from this model fall somewhere in between those of the first two measures.
By this measure, trend inflation has moved down
gradually in recent years. So, like the second approach, this one implies that recent low inflation is
the result of both a lower trend inflation rate and a
temporary fall of inflation below the trend.

Overall, these three trend inflation measures are
a bit like the choices facing Goldilocks when she
wandered into the home of the three bears: one
measure implies trend inflation has changed very
little, another that it has fallen by a little, and the
third that it has declined by relatively a lot. Since
they all have been similarly successful in predicting future inflation in the past, it is not easy to say
which will give the most accurate forecast going
forward. They do imply slightly different outlooks
for inflation over the next few years.

-0.5
-1.0
2005

2006

2007

2008

2009

2010

2011

2012

2013

Sources: Bureau of Economic Analysis; authors’ calculations.

Trend Inflation from Model 3: CPI
Year-over-year percent change
6.0
5.0

Estimated trend
inflation

4.0
3.0
2.0
1.0
0.0

70% confidence interval
around trend estimate

Consumer Price Index

-1.0
-2.0
2005

2006

2007

2008

2009

2010

2011

2012

2013

Sources: Bureau of Labor Statistics; authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

Let’s start with the forecasting approach that defines
trend inflation as the long-run forecast of professional forecasters. In the model that uses this measure of the trend, inflation depends on this trend
and past departures of inflation from the trend.
This specification yields a forecast of PCE inflation
gradually rising over time to about 2 percent and
a forecast of CPI inflation rising slightly above 2
percent. This is not surprising given that the inflation trend estimated by this method has been stable
around these levels.
The models based on the other two trend inflation estimates yield forecasts that are relatively flat
around the recent estimate of the trend rate, with
the forecasted inflation rate from the model with
the smoother trend (using the third measure) a bit
higher than the forecasted rate from the model with
the most variable trend (using the second measure).
Putting all of this together, by any measure we have
13

considered, recent inflation trends suggest inflation
is likely to remain low in coming quarters.

Trend Inflation from Model 3: PCE
Year-over-year percent change
4.0
Estimated trend
inflation

3.5
3.0
2.5
2.0
1.5
1.0
0.5
0.0

70% confidence interval
around trend estimate
PCE price index

-0.5
-1.0
2005

2006

2007

2008

2009

2010

2011

2012

2013

We have considered only a few of the ways that
trend inflation can be estimated. Though simple,
the models we have considered are competitive in
terms of forecast accuracy with more sophisticated
models that include information on more than just
inflation. Still, the models we have considered are
limited in that they do not include other information on some of the factors that may impact inflation over the business cycle, such as employment
and wages. Other recent research, such as Clark and
Zaman 2013, which uses forecasting models that
include a broader set of indicators, has projected a
gradual rise in inflation toward 2 percent.

Source: Bureau of Economic Analysis; authors’ calculations.

References

Forecasts of CPI Inflation

Clark, T.E., and Doh, T. (2014). Evaluating Alternative Models of
Trend Inflation. International Journal of Forecasting, 30, 426-448.

Year-over-year percent change

Clark, T.E., and Zaman, S. (2013). Forecasting Implications of the
Recent Decline in Inflation. Federal Reserve Bank of Cleveland,
Economic Commentary.

4.0
Forecast
3.5
3.0
Survey-based forecast

2.5

Stock, J.H., and Watson, M.W. (2007). Has US Inflation Become
Harder to Forecast? Journal of Money, Credit, and Banking, 39,
3-33.

2.0
1.5
1.0

Cogley, T., and Sargent, T.J. (2005). Drifts and Volatilities: Monetary
Policies and Outcomes in the Post-World War II US. Review of Economic Dynamics, 8, 262-302.

Consumer Price
Index

Model 2 forecast
Model 3 forecast

0.5
0.0
2010

2011

2012

2013

2014

2015

2016

Source: Bureau of Labor Statistics; authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

14

Monetary Policy

Yield Curve and Predicted GDP Growth, March 2014
Covering February 15, 2014–March 21, 2014
by Joseph G. Haubrich and Sara Millington
Overview of the Latest Yield Curve Figures

Highlights
March

February

January

Three-month Treasury bill rate (percent)

0.06

0.04

0.04

Ten-year Treasury bond rate (percent)

2.74

2.75

2.86

Yield curve slope (basis points)

268

271

282

Prediction for GDP growth (percent)

1.4

1.3

1.3

Probability of recession in one year (percent)

1.81

1.74

1.48

Sources: Board of Governors of the Federal Reserve System; authors’ calculations.

Yield Curve Predicted GDP Growth
Percent
Predicted
GDP growth

4
2
0
-2

Ten-year minus three-month
yield spread

GDP growth
(year-over-year
change)

-4
-6
2002

2004

2006

2008

2010

2012

2014

Sources: Bureau of Economic Analysis, Board of Governors of the Federal Reserve
System, authors’ calculations.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

The yield curve flattened slightly over the past
month, with the three-month (constant maturity)
Treasury bill rate inching up to 0.06 percent (for
the week ending March 21) from February’s 0.04
percent, which was even with January’s reading.
The ten-year rate (also constant maturity) dropped
a mere one basis point to 2.74 percent, just down
from Feburary’s 2.75 percent and down a bit more
from January’s level of 2.86 percent. This dropped
the slope to 268 basis points, down from February’s
271 basis points and January’s 282 basis points.
The steeper slope had a negligible impact on projected future growth. Projecting forward using past
values of the spread and GDP growth suggests that
real GDP will grow at about a 1.4 percentage rate
over the next year, just up (mainly due to rounding) from the 1.3 percentage rate seen in February,
which was even with January’s rate. The influence
of the past recession continues to push towards relatively low growth rates. Although the time horizons
do not match exactly, the forecast is slightly more
pessimistic than some other predictions, but like
them, it does show moderate growth for the year.
The slope change had only a slight impact on the
probability of a recession. Using the yield curve to
predict whether or not the economy will be in recession in the future, we estimate that the expected
chance of the economy being in a recession next
March at 1.81 percent, up a bit from the February’s
estimate of 1.74 percent and a bit more January’s
1.48 percent. So although our approach is somewhat pessimistic with regard to the level of growth
over the next year, it is quite optimistic about the
recovery continuing.

15

The Yield Curve as a Predictor of Economic
Growth

Recession Probability from Yield Curve
Percent probability, as predicted by a probit model
100
90
Probability of recession

80
70
60

Forecast

50
40
30
20
10
0
1960 1966

1972 1978 1984 1990 1996 2002 2008

2014

Note: Shaded bars indicate recessions.
Sources: Bureau of Economic Analysis, Board of Governors of the Federal Reserve
System, authors’ calculations.

Yield Curve Spread and Real GDP Growth
Percent
10
8

GDP growth
(year-over-year change)

6

More generally, a flat curve indicates weak growth,
and conversely, a steep curve indicates strong
growth. One measure of slope, the spread between
ten-year Treasury bonds and three-month Treasury
bills, bears out this relation, particularly when real
GDP growth is lagged a year to line up growth with
the spread that predicts it.
Predicting GDP Growth
We use past values of the yield spread and GDP
growth to project what real GDP will be in the future. We typically calculate and post the prediction
for real GDP growth one year forward.
Predicting the Probability of Recession

4
2
0
10-year minus
three-month yield spread

-2
-4
-6
1953

The slope of the yield curve—the difference between the yields on short- and long-term maturity
bonds—has achieved some notoriety as a simple
forecaster of economic growth. The rule of thumb
is that an inverted yield curve (short rates above
long rates) indicates a recession in about a year, and
yield curve inversions have preceded each of the last
seven recessions (as defined by the NBER). One of
the recessions predicted by the yield curve was the
most recent one. The yield curve inverted in August
2006, a bit more than a year before the current
recession started in December 2007. There have
been two notable false positives: an inversion in late
1966 and a very flat curve in late 1998.

1960

1967

1974

1981

1988

1995

2002

2009

Note: Shaded bars indicate recessions.
Source: Bureau of Economic Analysis, Board of Governors of the Federal Reserve
System.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

While we can use the yield curve to predict whether
future GDP growth will be above or below average, it does not do so well in predicting an actual
number, especially in the case of recessions. Alternatively, we can employ features of the yield curve
to predict whether or not the economy will be in a
recession at a given point in the future. Typically,
we calculate and post the probability of recession
one year forward.
Of course, it might not be advisable to take these
numbers quite so literally, for two reasons. First,
this probability is itself subject to error, as is the
case with all statistical estimates. Second, other
researchers have postulated that the underlying de16

Yield Spread and Lagged Real GDP Growth
Percent
10
One-year lag of GDP growth
(year-over-year change)

8
6
4
2
0

Ten-year minus
three-month yield spread

-2
-4
-6
1953

1965

1977

1989

2001

2013

terminants of the yield spread today are materially
different from the determinants that generated yield
spreads during prior decades. Differences could
arise from changes in international capital flows and
inflation expectations, for example. The bottom line
is that yield curves contain important information
for business cycle analysis, but, like other indicators, should be interpreted with caution. For more
detail on these and other issues related to using the
yield curve to predict recessions, see the Commentary “Does the Yield Curve Signal Recession?” Our
friends at the Federal Reserve Bank of New York
also maintain a website with much useful information on the topic, including their own estimate of
recession probabilities.

Note: Shaded bars indicate recessions.
Sources: Bureau of Economic Analysis, Board of Governors of the Federal Reserve
System.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

17

Regional Economics

Annual Revisions to Metro-Level Jobs Data Shed New Light on Job
Growth in Fourth District Metro Areas
04.01.14
by Joel Elvery and Christopher Vecchio

Mean Absolute Revisions by Population
for US Metro Areas
Mean absolute revision as a percentage of employment
1.5

1.0

0.5

0.0
<250,000

250,000−
500,000

500,000−
1,000,000

1,000,000

Source: Authors’ calculations from Current Employment Statistics State and
Metro-Area Employment, Hours, and Earnings accessed through Haver Analytics.

On March 21, the Bureau of Labor Statistics (BLS)
released benchmarked State and Metro-Area Employment, Hours, and Earnings (SAE) data. The
benchmarked data, which come out once a year,
are the most accurate employment statistics available for metropolitan areas. Previous versions of the
metro-level jobs data, like the initial SAE estimates
released five weeks after the close of each month,
can often be revised substantially when the benchmarked data come out.
So the release of the benchmarked SAE is a moment of truth for the BLS and for metro areas. For
the BLS, the size of the revisions to the initial SAE
shows how accurate the earlier estimates were. For
metro areas, the benchmarked SAE provides a reliable and complete estimate of their employment
through September 2013.
Every month, the initial SAE estimates how many
jobs states and metro areas had two months earlier.
These initial estimates are based on a combination
of responses to the Current Employment Survey
and imputation models for areas where the sample
size is too small to generate reliable estimates. Even
if done perfectly, estimates from survey data or
models are subject to errors. Once a year, the SAE
data are benchmarked to the Quarterly Census of
Employment and Wages (QCEW), which provides counts of jobs based on administrative data
covering 98 percent of employment. These data
come from a census of jobs, so they are more accurate than the initial SAE. (For more detail on the
benchmarking process, the reliability of the initial
estimates, and the advantages of using the QCEW
to measure employment growth, see “Which Estimates of Metropolitan-Area Jobs Growth Should
We Trust?”)
We assess the magnitude of the latest revisions by
comparing final and benchmarked jobs estimates
for September 2013. We focus on this month

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

18

because the most recent benchmarking revised the
SAE data from October 2012 to December 2013,
but the QCEW is only available through September 2013. The SAE estimates for October 2013 to
December 2013 are subject to additional revisions
with the next round of benchmarking in March
2015. We define revisions as the difference between
the benchmarked SAE and the initial SAE.
For all metro areas in the US, the average revision in the benchmarked data is plus or minus 1.2
percent of employment. So if a metro area with
500,000 jobs had the average revision, benchmarking would add or subtract 6,000 jobs to or from
the initial estimate. Revisions are typically larger
for small metro areas than large ones, in percentage
terms. The average revision for metro areas with
populations below 250,000 is plus or minus 1.6
percent, double that of metro areas with populations above one million.

Initial and Revised Change in Jobs
for Metro Areas in the Fourth District,
September 2012−September 2013
Revised year-over-year percent change
4

We now turn our attention to a dozen metropolitan
areas in the Fourth Federal Reserve District. Their
revisions ranged from −2.0 percent in Lexington to
+2.7 percent in Lima. Only Akron, Dayton, and
Youngstown had smaller revisions than the national
average.

3
Columbus
Lexington

2

Wheeling CincinnatiToledo

1

Lima

Akron

Cleveland
Pittsburgh

0

Dayton

Youngstown
Erie

−1
−1

0

1
2
3
Initial year-over-year percent change

4

Source: Authors’ calculations from Current Employment Statistics State and
Metro-Area Employment, Hours, and Earnings accessed through Haver Analytics.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

The revisions can have a big impact on a metro
area’s year-over-year change in jobs. If the initial
SAE shows that the number of jobs in a metro area
grew 1.0 percent, then the average revision would
change that to either a loss of 0.2 percent or a gain
of 2.2 percent.
The chart below compares the initial and revised
percent change in jobs from September 2012 to
September 2013 for these Fourth District metro areas. The horizontal axis is the initial year-over-year
percent change in jobs, and the vertical axis is the
revised year-over-year percent change in jobs. The
initial estimates underestimated the jobs growth of
the metro areas above the diagonal line and overestimated the growth for the metro areas below the
line. The further away the point is from the line,
the more impact the revision had on the year-overyear change in jobs. To see the exact figures for
each metro area, look at the last two columns in the
table below.
19

What do these revisions in the year-over-year
changes mean in terms of jobs? The initial SAE said
that the Cleveland metro area lost 7,200 jobs from
September 2012 to September 2013, but it actually gained 7,400 jobs. Columbus gained almost
twice as many jobs as originally estimated, 25,900
instead of 12,900. Revisions giveth, revisions taketh
away: Pittsburgh gained 2,400 jobs, not the 20,000
jobs suggested by the initial estimate. (See the table
below for the numbers for the other Fourth District
metro areas.)

Revisions to September 2013 Jobs
Estimates for Metro Areas in the
Fourth District
Lima
Wheeling
Columbus
Cincinnati

In the table below, the metro areas are ordered by
the percent change in employment from September
2012 to September 2013 based on the revised data.
Overall, metro areas in the US had jobs growth of
1.9 percent over this time. Columbus and Lexington both grew faster than metro areas overall. With
gains between 1.7 and 1.8 percent, jobs growth in
Wheeling, Cincinnati, and Toledo was just under
that of US metro areas as a whole. In Lima, Akron, Cleveland, and Pittsburgh, jobs grew but less
than half as fast as metro areas overall. Dayton and
Youngstown had no change in the number of jobs,
and Erie lost 0.3 percent of its jobs over the 12
months.

Cleveland
Toledo
Youngstown
Dayton
Akron
Pittsburgh
Erie
Lexington
−2

−1

0

1

2

3

Revision as a percentage of employment

Source: Authors’ calculations from Current Employment Statistics State and
Metro-Area Employment, Hours, and Earnings accessed through Haver Analytics.

Initial and Revised Estimates of Jobs in Fourth District
Metro Areas
Jobs in September 2013 Year-over-year change in jobs Year-over-year percent change
Metro area

Initial

Revised

Initial

Revised

Initial

Revised

Columbus

967,200

988,800

12,900

25,600

1.3

2.6

Lexington

266,900

261,800

9,500

6,300

3.6

2.4

Wheeling

66,500

68,200

100

1,200

0.2

1.8

Cincinnati

1,015,200

1,033,500

6,700

17,800

0.7

1.7

Toledo

310,700

314,900

3,100

5,400

1.0

1.7

Lima

51,400

52,800

−400

500

−0.8

0.9

Akron

330,800

328,100

3,000

2,900

0.9

0.9

Cleveland

1,013,800

1,030,800

−7,200

7,400

−0.7

0.7

Pittsburgh

1,181,100

1,162,400

20,000

2,400

1.7

0.2

Dayton

378,900

378,700

600

0

0.2

0.0

Youngstown

227,300

227,300

1,400

0

0.6

0.0

Erie

132,700

130,400

1,200

−400

0.9

−0.3

Source: Authors’ calculations from Current Employment Statistics State and Metro-Area Employment, Hours, and
Earnings accessed through Haver Analytics.

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

20

People are naturally interested in the first set of jobs
estimates that are made available, but they should
be equally interested in the revisions to those estimates. The initial estimates are like a rough sketch,
giving the general outline. The benchmarked estimates are like a good photograph, showing exactly
what is.
Elvery, J., and Vecchio, C. (2014). Which Estimates of MetropolitanArea Jobs Growth Should We Trust? Federal Reserve Bank of
Cleveland, Economic Commentary.
http://www.clevelandfed.org/research/commentary/2014/2014-05.
cfm
To see a spreadsheet with revised job growth estimates for all
metro areas in the US, please visit
http://www.clevelandfed.org/research/trends/2014/0414/01regecoX.
xlsx

Federal Reserve Bank of Cleveland, Economic Trends | April 2014

21

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