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THE
LUMBER INDUSTRY
o f the

PACIFIC COAST

Supplement to

MONTHLY REVIEW




DECEMBER, 1950

FEDERAL RESERVE BANK
OF
SA N FRANCISCO




• • CONTENTS

• •
Page

PART I. THE RESOURCE B A S E * .................................1
Forest areas of the Pacific C o a s t ...............................................

1

Problems of the resource b a s e .................................................... 5

PART II. P RO D U C TIO N .......................................... 9
Lumber characte ristics.................................................................. 9
Lumber o u t p u t ............................................................................10
Structure of the i n d u s t r y ............................................................. 13
Changes in s t r u c t u r e .................................................................. 14
Log supply and d i s p o s i t i o n .........................................................16
Costs of producing l u m b e r .........................................................17
Recent problems in lumber p r o d u c t io n ...........................................18

PART III.

MARKETS AND D E M A N D .......................... 19

Marketing f a c t o r s ....................................................................... 19
Sources of lumber d e m a n d .........................................................19
P r ic e s ..........................................................................................22
I n v e n t o r i e s ................................................................................ 24
C o n c lu s io n s ................................................................................ 25
*This section previously appeared in the Monthly Review, November 1949.

Prepared by Harry S. Schwartz, Economist,
under the direction and review of officers
of the Research Department.

PART I. THE RESOURCE BASE
tics of the Pacific Coast lumber industry from those in
the country as a whole. The predominance of virgin tim­
ber in dense stands of very large trees on the Pacific
Coast, the greater average size of saw mills than in the
country as a whole, and more modern equipment on the
Pacific Coast have contributed to the apparent difference
between Pacific Coast lumber operations and those in
most other parts of the country.
Not only does the Pacific Coast provide a substantial
part of the national timber supply, but Pacific Coast for­
est industries also produce 95 percent of the softwood
plywood, 24 percent of the woodpulp, and significant
quantities of other forest products. This study, however,
is confined to the lumber industry. Despite a common
resource base with other industries and even some com­
mon problems, it is sufficiently different in many of its
characteristics to merit separate treatment. Lumber is the
principal product of American forests and it is used for
many purposes.
The problems of this industry cannot be discussed
merely in terms of the producion mechanisms and the
market structure. The industry is dependent upon an
adequate supply of timber, a renewable resource which
can be grown as a crop despite its long rotation period.
Failure to treat the timber resource as a crop results in
denuding of forest lands and affects markedly the con­
tinuity, prosperity, and structure of the industry as well
as the economic well-being of the region. Proper manage­
ment of this resource base is essential to the economy of
the Pacific Coast. In recent years good forestry practices
have been adopted by increasing numbers of operators.
The first section of this study deals with resource base
problems and a description of the forest regions of the
Pacific Coast. The saw timber stand is the focal point of
the discussion. The second section of the study will deal
with production of lumber, the structure of the Pacific
Coast industry, and the types of wood produced from
Pacific Coast forests. In the final section of the study, the
market forces affecting the industry will be analyzed.

in Virginia and Maine during early colonial
days, the lumber industry has spread from one part of
the nation to another. The first significant center of lum­
ber production was in the North Atlantic states, princi­
pally in Maine. It shifted to New York in 1850 and Penn­
sylvania in 1860. As the most accessible forests in that
area were depleted the center of production moved to the
Great Lakes region about 1870, then to the southern states
in the 1890’s, and finally to Oregon and Washington in
the early 1900’s. California has also been one of the lead­
ing lumber producing states since that time. Washington
became the leading lumber producing state of the nation
in 1905 and, except for 1914, continued in that position
until 1937. In 1938 Oregon production exceeded the
Washington output, and Oregon has continued to lead
the nation since then. California has ranked second since
1948.
ta r tin g

S

The Pacific Coast lumber industry is almost entirely a
producer of softwoods. Hardwoods are found in Pacific
Coast forests, but production of this type of lumber ac­
counts for less than 1 percent of the total output. In the
early period of Pacific Coast lumbering, Douglas fir in the
Pacific Northwest and redwood and ponderosa pine in
California were the principal species from which lumber
was produced. In the last 25 years the output of ponderosa
pine and western hemlock has increased in the Pacific
Northwest, and Douglas fir, sugar pine, and white fir pro­
duction in California has also become important.
Ever since the early 1900’s, the lumber industry has
been a mainstay of the Pacific Coast economy. Even
though the war years intensified the diversification of
Pacific Coast industry, lumber is still the leading industry
in Oregon and Washington. In .1947 Pacific Coast ship­
ments of sawed lumber, not including any other forest
products such as plywood, pulp, shingles, cooperage, or
split products, amounted to almost $1 billion. The lumber
industry accounted for over 11 percent of the value of
products added by manufacture, over 10 percent of the
number of persons employed in manufacturing, and over
10 percent of manufacturing payrolls on the Pacific Coast.
In Oregon the industry accounted for roughly 40 percent
of value of product added by manufacture, employment,
and payrolls during 1947. In Washington the industry
accounted for about 20 percent of the manufacturing out­
put, employment, and payrolls, and in California for about
4 percent.
Though the Pacific Coast has only 13 percent of the
area of commercial timber land in the United States, the
timber volume on these lands represents over half the
national saw timber. With less than 6 percent of the active
sawmills in the United States and just under 25 percent
of the number of employees engaged in lumber produc­
tion nationally, the Pacific Coast produced 40 percent of
the national output of lumber in 1947. While these figures
point up the importance of the Pacific Coast as a producer,
they also indicate a marked difference in the characteris­




Forest Areas of the Pacific Coast
Approximately half of the 205 million acres of the three
Pacific Coast states is considered forest land. A large
acreage, principally in California, is unsuitable for com­
mercial growth and some land, 2.5 million acres in the
C o m m e r c i a l F o r e s t L a n d b y C h a r a c t e r o f G r o w t h , 1945
(millions o f acres)

Pacific Northwest . . ,
California ................... .
Total Pacific C o a st..,
United S t a t e s ............ .

Total
46.2
16.4
62.6
461.0

Saw
timber
26.3
10.9
37.2
205.2

Pole
timber
7.5
3.4
10.9
95.0

Seedling
and
saplings
6.2
.1
6.3
85.5

Poorly
stocked.
nonstocked,
or burned
over1
6.2
2.0
8.2
75.3

1 Includes recently cut-over land which may be found to be restocking at a
later date.
Source: United States Department of Agriculture, A Reappraisal of the
Forest Situation: Gauging the Timber Resource of the United States, Report 1,
1946, p. 48. Figures are as of early 1945.

l

F o re st A r e a s o f t h e P a c ific C o a st a n d T h e ir S a w

R e s o u r c e s o f t h e D o u g l a s F ir R e g io n b y S p e c ie s — S a w

T i m b e r S t a n d , 1945

T im b e r V o l u m e

, T. .

Commercial
forest area

Total saw
timber stand

Virgin
timber
stand

(m illions of
acres)

(billions o f
b d ft .)1

(billions of
b d ft .)1

631
505
126
228
859
1,601

513
408
105
180
693
840

Pacific N o rth w e st...........................
46.2
Douglas fir r e g i o n ....................
26.0
Ponderosa pine r e g io n .............
20.2
C a lifo rn ia ............................................
16.4
Total Pacific C o a s t ......................
62.6
United S t a t e s .................................. 461.0

(billions of board feet)

January
19461

January
1947 2

Douglas f i r ...............
Balsam f i r s ...............
W estern hemlock .
Sitka s p r u c e ............

261
40
80
7
21
14
3

Other softwoods . .
H a r d w o o d s ...............

1 Measurements here are based on mill tally.
Source: United States Department of Agriculture, A Reappraisal of the
Forest Situation: Gauging the Timber Resource of the United States, Report 1,
1946, pp. 48-49. Figures are as of early 1945. In working with inventory
figures for timber stands, it must be remembered that the data presented
represent the best estimates the issuing agency can make. Experience has
proven estimates in particular cases to be markedly conservative. A s a
consequence, it is held by some authorities that the over-all estimates may
be too low as well.

426
1 Corps of Engineers, Department of the A rm y , N orth Pacific Division,
Review Report on Columbia River and Tributaries, Appendix N , Part 3, O c­
tober 1948, Appendix table A . Figures are based on log scale, Scribner
rule.
* Saw Timber Volum e Estimates, Pacific N orthw est Forest and Range E x ­
periment Station, M ay 1948.

commercial forest land. About 40 percent of these lands
are owned by the Federal Government and 10 percent by
state or local governments. The area supports, according
to the most recent statistics, a stand of 426 billion board
feet of saw timber based on log scale measurements.1
In addition to Douglas fir, the dominant species in the
region, the forest contains western hemlock, Sitka spruce,
balsam firs, cedars, and a minor quantity of hardwoods.
Douglas fir constitutes more than 60 percent of the total
stand. It is also the most favored species for lumber. West­
ern hemlock and Sitka spruce are favored for pulp pro­
duction. The stand of hemlock is just under 20 percent
of all species. The expansion of the pulp industry and the
decline of available Sitka spruce has increased the em­
phasis on western hemlock as the raw material for pulp.
In recent years 74 percent of the logs used for pulp have
been western hemlock. Balsam firs are also used for pulp.
Western red cedar is used principally for shingles. Port
Orford white cedar is used extensively for battery sepa­
rators.

three states combined, has been withdrawn from cutting
by Federal and state statutes. Only 60 percent of the forest
land is suitable for commercial timber growth. The forest
lands in California, Oregon, and Washington comprise
only 13 percent of the total commercial forest land in the
United States. Yet the Pacific Coast forests contain over
half the national saw timber stand including more than 80
percent of the virgin timber in the country.
Almost half the commercial forest area of the Pacific
Coast is in the hands of the Federal Government, about 5
percent is owned by states and local subdivisions, and the
remainder is in private hands. The private holdings are
usually on the most accessible lands, and for that reason
these are the lands on which cutting has been the heaviest.
The timber resources of the Pacific Coast may be con­
veniently divided into three areas. Western Oregon and
Western Washington may be considered as a unit because
of the preponderance of Douglas fir, and the area is usu­
ally referred to as the Douglas fir region. This area lies
west of the summit of the Cascade Mountains and in­
cludes 26 million acres of commercial timberland. The
ponderosa pine region of Eastern Oregon and Washing­
ton lies east of the summit of the Cascade range and in­
cludes 20 million acres of commercial timberland. Cali­
fornia comprises the third area with several important
species, principally pine, Douglas fir, true firs, and red­
wood. Commercial forest lands in California total over
16.4 million acres.

O w n e r s h ip of S a w

T i m b e r b y S p e c ie s — - D o u g l a s F ir R e g io n
J a n u a r y 1, 1 9 4 6
(.billions o f board feet)

Federally
owned or
managed
Douglas f i r ..........
Pulp species
Other softwoods ............................................
Hardwoods ..........

12.1

Other*
122.8
68.9
12.0
2.3
2.1

Total
270.0
129.5
21.8
14.4
3.4

208.1

439.1

The Douglas Fir Region

The Douglas fir region in Western Oregon and West­
ern Washington covers an area of 26 million acres of

^Includes state, county, and private ownership.
Source: Pacific Northwest Loggers Association and W e s t Coast Lumber­
m en’s Association, More Timber, January 1947, p. 31. Figures are log scale,
Scribner rule. Data by ownership as of January 1, 1947 not available.

C o m m e r c ia l F o r e s t L a n d i n t h e D o u g la s F i r R e g io n b y
S t a t u s o f O w n e r s h i p a s o f J a n u a r y 1, 1945

Federal agencies own or manage 53 percent of the
timber stand in the Douglas fir region measured in board
feet. Though private owners own considerably more acre­
age than the Federal Government, their volume of timber
is less than that in Federal ownership because of the
heavier cut on private lands in the past. Somewhat more
than half of the old growth timber is in Federal owner-

(millions of acres)

AH
ownerships
,.
Poles
burned over

...
and
...

13.2
4.4
3.0
5 .4 1

Federally
owned or
managed
7.3
1.2
.8

State
and
local
.9
.5
.5

Private
5.0
2.7
1.7

.9

.7

3.8

10.2

2.6

13.2

1 This figure varies from the mill tally figure of 505 billion board feet cited
earlier because of technical differences in the methods of calculation. The
introduction of the log scale measurement is necessary in order to take ad­
vantage of detailed statistics not prepared on a mill tally basis.

es of recent cut-overs which may be found to be
satisfactorily restocked at a later date.
Source of basic data: Tables supplied by Pacific Northwest Forest and
Range Experiment Station, U . S. Forest Service.




2

species is essential to the development of a desirable geo­
graphic and species distribution.

ship. The second growth volume, however, on private
lands is considerably greater than on Federal lands.

A high proportion of virgin timber is on public lands;
little cutting has taken place in these stands. Yet, they
account for a substantial part of the total stand and for­
ested acreage. Greater cutting of these stands would serve
several purposes.1 Mature and over-ripe trees would be
removed and acreage would be released for new growth.
The large volume of government timber could be used to
encourage private owners to follow better practices on
their own land. Cooperative sustained yield agreements,
described on page 7 are one method of approaching this
problem. There is, however, one difficulty with reference
to Federally owned and managed lands that is frequently
overlooked. National forests and other Federally con­
trolled lands are frequently on remote sites or on rough
terrain. Timber on such lands is more costly to harvest
than that on readily accessible lands. This situation tem­
pers to some extent the reliance that can be placed on
Federally owned timber.

Distribution of timber and cutting

The present pattern of timber stand reflects to a signicant extent the cut taken from the Douglas fir forests in
the past. Until 1938 most of the timber cut came from the
Douglas fir forests of Washington. Particularly heavy
cutting occurred in the Puget Sound area and to a some­
what smaller extent along the Washington Coast. The
present geographic distribution of timber stand shows a
much greater predominance of virgin timber and large
and small second growth in Oregon than in Washington.
During the past 25 years the cut taken from various
subareas of the region has been disproportionate to the
stand. The Puget Sound area, the Washington Coast area,
the Columbia River areas of Oregon and Washington,
and the North Oregon coast have in the past been cut
more intensively than the areas of Southern and South­
western Oregon. For the most part these areas are still
yielding a higher percentage of the saw logs than the per­
centage of their saw timber stand to the region’s total. At
the same time, however, because the most accessible tim­
ber in these areas has been reduced, the industry in the
past decade has been migrating into Southern and South­
western Oregon where virgin timber stands are still very
heavy. The areas around the Willamette, Rogue, and
Umpqua Rivers and along the Southern Oregon Coast
produced 53 percent of the sawlogs of the entire region
in 1946.
The species cut have also tended to be out of proportion
to the stand. This is apparent if one compares the ratio of
Douglas fir logs to total log production with the ratio of
the Douglas fir stand to the total timber stand. In recent
years Douglas fir has accounted for over 60 percent of
the saw logs produced in Western Washington. Yet, in
early 1945 the Douglas fir saw timber stand was little
more than 35 percent of the total saw timber stand in
Western Washington. The lack of balance between cut
and stand for Douglas fir has been much less noticeable
in Oregon. The drain of Sitka spruce has been greater
than its proportion to the stand in both Oregon and
Washington. Western hemlock, on the other hand, has
not been cut as intensively as its ratio to the total saw
timber stand. The reduction in other species has caused
somewhat greater use of hemlock in recent years. A d­
justment of cutting budgets both geographically and by
D is t r ib u t io n of O ld G r o w t h a n d S e c o n d G r o w t h

Cutting practices in the
Douglas fir region

While there are mixed stands of Douglas fir and other
species, many Douglas fir forests tend to be homogeneous.
Selective cutting— that is, removal of mature trees or high
quality trees only— is not the desirable practice in such
stands. Douglas fir tends to grow in uniform age stands
and requires a considerable amount of sunlight. Regenera­
tion requires clear-cutting the land in such a manner as
to permit adequate reseeding and adequate sunlight for
the young stand. This practice is now followed on most
well-managed operations by clear-cutting in blocks from
40 to 100 acres and leaving seed trees in fairly substantial
blocks about the cut-over area. Some controversy exists
as to the size of the area that should be cut over, but in
general the principle of clear-cutting is accepted. Leaving
seed trees dispersed over the area, which might suffice in
other stands, will not do for Douglas fir. Trees not pro­
tected from the wind tend to blow over, except on gravelly
soils, because of the root structure of Douglas fir. The
practice of leaving the seed trees adjacent to the area has
proved to be the most satisfactory method. In both Ore­
gon and Washington state laws require that at least 5
percent of each quarter section (160 acres) harvested be
well stocked with seed trees.
Ponderosa Pine Region

The ponderosa pine region is generally described as
those counties in Oregon and Washington east of the Cas­
cade summit. As so defined, it covers an area of 20.2 mil­
lion acres of commercial forest land supporting a growth
of approximately 114 billion board feet of saw timber.
The dominant species is ponderosa pine, which tends to
grow in pure stands with only minor quantities of other
species. About one-fourth to one-third of the ponderosa

Stan ds—

D o u g l a s F ir R e g io n
(thousands of acres)

Western
Oregon
Old g r o w t h ............................. . . .
Large second growth
...
Small second growth
...
Seedlings and saplings . . .

6,628
1,908
3,179
927

-1933---------------^ ,--------------1945Western
Western
Western
Washington
Oregon Washington
5,057
5,778
3,570*
729
1,657
554
2,303
3,426
2,567
1,556
1,203
1,836

1 During the period being compared, the Federal Government withdrew ap­
proximately 500,000 acres from cutting.
Source: Burt P. Kirkland, Joint committee on Forest Conservation; Forest
Resources of the Douglas Fir Region, Portland, Oregon, Tables A -5 and
A -15.




1 See Forest Resources of the Douglas Fir Region, Burt P. Kirkland, Joint
Committee on Forest Conservation, Portland, Oregon, July 1946, pp. 24-26,
and “ Forests and National Prosperity,” U S D A , Miscellaneous Publication
N o. 668, August 1948, p. 4.

3

conditions the more dense and more extensive forest areas
are concentrated in Oregon in the area around the Des­
chutes River, the Klamath Plateau, and the southern Blue
Mountains. The plateau characteristics of the east slope
of the Cascades in Oregon provide excellent forest land.
By contrast the area of north central Washington, north
and east of the Okanogan River, while having large stands
of virgin timber, is rugged and inaccessible and the timber
quality is relatively poor. As a result cutting in this area
has been limited.

R e s o u r c e s o f t h e P o n d e r o s a P i n e R e g io n b y S p e c ie s
S a w T im b e r V o l u m e
,
x

Januai

(.billions of board feet)

1946

Ponderosa p i n e ...................................................................................................
Douglas fir ...........................................................................................................
Sugar p i n e .............................................................................................................
W estern white p i n e ..........................................................................................
Lodgepole p i n e ...................................................................................................
W estern l a r c h ......................................................................................................
C e d a r s .......................................................................................................................
Other so ftw o o d s .................................................................................................

68.3
18.6
.6
1.1
2.0
9.6
.8
15.8

T o t a l ....................................................................................................................

113.8

Source: Corps of Engineers, Department of the Arm y, North Pacific Divi­
sion, Review Report on Columbia River and Tributaries, Appendix N , Part 3,
October 1948, Appendix table A . Figures are based on log scale, Scribner
rule.

The major areas of timber stand in eastern Oregon
have a very high proportion of ponderosa pine. The Des­
chutes River area has approximately 12 billion board
feet, the Klamath Plateau 19 billion board feet, and the
south Blue Mountain unit 15 billion board feet. Douglas
fir is less important here than in Washington where it is
almost as plentiful as ponderosa pine. The volume of
ponderosa pine in all of eastern Washington is only 15
billion board feet. A favorable factor for the whole area is
that only a small portion— about 4 percent— of the com­
mercial forest land area is poorly stocked or denuded.

pine stands are interspersed with other species. Douglas
fir is second in importance in this region, but does not
have the high quality characteristics of the region west of
the Cascade summit.1 The miscellaneous softwoods in the
region include quantities of western hemlock, the balsam
firs, Englemann spruce, and mountain hemlock. These
species are suitable for pulp production.
Less than one-fourth of the timber stand is in private
hands. A little over 55 percent of the timber, based on
board foot volume, is in national forest and slightly more
than 20 percent is in other public ownership. Comparison
of figures for 1946 with those for 1936 reveals that the
drain on private lands has been much greater than on
public lands. In 1936 private holdings of ponderosa pine
totaled 27.2 billion board feet, but 10 years later the vol­
ume had declined to 16.6 billion board feet. Even after
allowing for some transfer of private holdings to public
agencies, the drain has been considerable. In the same
period national forest stands declined only slightly.
O w n e r s h ip o f S a w

Most of the cut of saw timber in the ponderosa pine
region has come from the Klamath Plateau and Deschutes
River areas. Not only the density of stands, but also their
accessibility both from the point of view of cutting and
transportation facilities have been responsible for the large
drain. At present the proportion of the regional timber
cut produced by these areas exceeds their share of the
timber stand. In the Deschutes River unit and the Klam­
ath Plateau cutting has tended to draw down consider­
ably the amount of merchantable timber in private owner­
ship. It appears likely that the cut in these areas will de­
cline further since the second growth trees will probably
not be suitable for saw timber for some years.

T im b e r b y S p e c ie s — P o n d e r o s a P i n e

R e g i o n , J a n u a r y 1946
(billions o f board feet)

National
forests
Ponderosa p i n e ...................................................
Douglas fir ..........................................................
Sugar pine ...........................................................
W estern white p i n e ..........................................
Lodgepole pine .................................................
W estern l a r c h ............................................ ....
Cedars ....................................................................
Other so ftw o o d s.................................................
T o t a l ....................................................................

Other
public

Private

35.0
10.7
*1
.9
-8
4.8
-4
10.8

16.7
3.4
-2
.1
.1
1.3
.1
1.9

16.6
4.5
.3
.1
.2
1.5
.2
3.0

63.5

23.8

26.4

Cutting practices

Partial or selective cutting has been a common practice
in most areas of the ponderosa pine region for a consider­
able time. The emplo}^ment of partial cutting does not al­
ways assure that the best cutting practices are being ob­
served. For example, if all trees of positive value are
removed, some trees may be taken which would have a
considerable growth if permitted to stand for a longer
period.

Source: Corps of Engineers, Department of the Arm y, North Pacific D ivi­
sion, Review Report on Columbia River and Tributaries, Appendix N , Part 3,
October 1948, Appendix table A . Figures are based on log scale, Scribner
rule.

Since the ponderosa pine forests are largely mixed age
stands, selective cutting is favored by the circumstances.
The goal should be to remove all mature trees (not only
for their timber value, but also to reduce possible insect
loss), stimulate growth of thrifty trees, and hasten re­
production. Trees having a potential high value growth
increment should be permitted to stand for cutting in the
future. It appears that these aims might make for a lighter
cut than has heretofore been the practice on a substantial
portion of the operating lands. On a number of operations
light cutting is already the practice. Policies in exchang­
ing Federal stumpage for private lands may make the
extension of the practice more feasible.

Though Federal agencies have been actively engaged in
selling public timber, the cut in part of this area, where
the stands are chiefly virgin timber, is much lighter than
could be sustained. Opening up these stands, many of
which are reasonably accessible now, to cutting in ac­
cordance with good practices would stimulate growth.
With a larger stumpage supply, private operators could
probably be induced to engage in longer-range planning.
Distribution of timber and cuffing

About 65 percent of the remaining saw timber of the
ponderosa pine region is in Oregon. Because of climatic
1 Forest Resources of the Ponderosa Pine Region, U S D A , 1942, p. 27.




4

feet of Douglas fir with minor quantities of other species.
Of the total volume of 228 billion board feet about 16 bil­
lion are considered to be in areas more valuable for pur­
poses of recreation than for commercial timber cutting.
The forest areas of California, like those in the Pacific
Northwest, include a large volume owned by public agen­
cies. Of the 8.8 million acres of publicly owned commer­
cial forest land, 8.1 million is in Federal ownership. Ap­
proximately 104 billion board feet of saw timber is under
Federal control, about 0.2 billion board feet in state and
local hands, and 123 billion board feet is privately owned.

California

California’s 16.4 million acres of unreserved commer­
cial timber land support a variety of lumber species.
Prominent among the several types are Douglas fir, ponderosa pine, redwood, sugar pine, and white and red firs.
The commercial forest area (including land withdrawn
from cutting) totals 17.1 million acres.
F o r e s t R e s o u r c e s o f C a l i f o r n i a a s o f J a n u a r y 1945
(in millions of acrcs)

Pine ....................................................... ......................
Redwood ..............................................
Douglas f i r ...........................................
Fir ..........................................................
Pine, Douglas fir, fir ................... ......................

Public
2.3

.................1

Total

4.2

................................................

Private
2.1
1.8
1.3
.3
2.8
8.3

Total
4.4
1.9
2.6
1.2
7.0

A g e and geographic distribution

The California forests include 180 billion board feet of
virgin saw timber, 30 billion board feet of large second
growth, and 2 billion board feet of small second growth.
The Coast Range, Douglas fir, and redwood subregions
all have virgin timber well in excess of 80 percent of the
total stand. The Westside subregion has about 66 percent
in virgin timber, and the Eastside subregion just under
80 percent.
Most of the timber cropland is in the northern part
of the state. Heavy concentrations occur along the north
coast, in the counties along the Oregon border, and on the
west slope of the Sierras with the volume declining as one
moves south. On the east side of the Sierras, only the
counties north of Lake Tahoe have major forest stands.
One of the main problems with reference to California
forests is the rough terrain on which a good many are
located. Access roads are badly needed to open up these
areas. In fact, California is the only Pacific Coast area
that the Forest Service believes can increase its cut sub­
stantially in the next 20 years. This attitude is predicated
on the large blocks of timber which have not yet been
tapped, but for which extensive road systems are neces­
sary. Cutting in California has been at a lower rate in
comparison with the total timber stand than is true for
the Pacific Northwest. This apparently reflects the more
limited accessibility of stands in California in the past.

17.1

Source: Forest Areas, Timber Volumes and Vegetation Types in California,
Table 2, California Forest and Range Experiment Station, Berkeley, Cali­
fornia, March 1946.

Based on species and geographic characteristics, the
state is conveniently divided into five forest subregions.
These areas supported a stand in 1945 of almost 228 bil­
lion board feet1 of timber. In the Eastside Sierra pine
region, totaling 3.8 million acres, there are approximately
34 billion board feet of timber consisting chiefly of ponderosa pine and white and red firs. The Westside Sierra
pine area, comprising 5.5 million acres, supports a growth
of 78 billion board feet of timber consisting chiefly of
ponderosa pine, sugar pine, and true firs. It is the prin­
cipal sugar pine area. A considerable amount of Douglas
fir is interspersed among the other species. Like much of
the Coast Range pine subregion, the Westside subregion
stands are largely mixed, including all the species men­
tioned and some incense cedar. On the extreme western
edge of the region there are relatively pure pine stands,
and in the north there are several pure stands of true firs.
The Coast Range subregion covers approximately 2.7
million acres supporting a stand of 29 billion board feet.
Though the species are intermingled, Douglas fir is much
more prominent than in the Westside Sierra pine region.
C a li f o r n ia F o r e s t R e s o u r c e s by S u b -R e g io n s — S a w

Problems of the Resource Base

T im b e r

The foregoing figures show a large volume of timber in
the Pacific Coast states. It must be remembered, however,
that timber is a crop— though the production cycle is very
long— and that failure to encourage new growth will re­
sult in exhaustion of the resource base. Estimates made
by the Forest Service of the United States Department of
Agriculture indicate that the utilization and loss has been
and still is faster than the growth.1 In 1944, timber cut
for all purposes was estimated by the Forest Service at an
annual rate of 2.9 billion cubic feet, losses from fire and
insects at .2 billion cubic feet and growth at an annual
rate of 1.6 billion cubic feet. The cut of saw timber trees
was estimated to be at a rate of 3 times the annual saw
timber growth.

V o l u m e a s o f J a n u a r y 1, 1945
(billions of board feet)

Recreation
areas
Eastside Sierra p i n e ..............................................
W estside Sierra p i n e ...........................................
Coast Range p i n e ..................................................
Douglas f i r .................................................................
R e d w o o d ......................................................................

2.2
3.4
2.7
.9
6.7

A ll su b re g io n s.....................................................

15.9

Total
volume
33.7
78.2
29.5
29.3
56.9
227.6

Source: Forest Areas, Timber Volumes and Vegetation Types in California,
California Forest and Range Experiment Station, Berkeley, California,
March 1946, table 26.

The Douglas fir subregion covers 2.6 million acres sup­
porting a stand of 29 billion board feet of timber. The
stands are almost pure Douglas fir with small quantities
of ponderosa pine, sugar pine, true firs, and redwood also
present. The redwood region covers 1.9 million acres sup­
porting 38 billion board feet of redwood and 18 billion

1 Growth estimates are those of the United States Forest Service. Differences
of opinion exist concerning the applicable growth tables, especially in the
Douglas fir region. For a detailed discussion of method see Forest Re­
sources of the Douglas Fir Region, Burt P. Kirkland, Joint Committee on
Forest Conservation, Portland, Oregon, pp. 14-15, July 1946.

1 Mill tally. See note page 2.




5

While fires usually account for a small percentage of
the annual drain on the resource base, they have more
serious indirect consequences. Forest fires impede forest
regeneration through the destruction of seed trees and
young growing stands. There have been forest fires which
were major catastrophies. For example, in the Oregon
fire of 1933, called the Tillamook burn,1 over 10.5 billion
board feet of saw timber trees were killed. A surprising
amount of this timber has been salvaged. Though fires are
more spectacular, insects and disease do more damage to
standing timber in most years. In each of these cases,
however, the combined efforts of public and private agen­
cies have resulted in increasingly effective control of these
losses. More cooperation from the general public while
in forest areas, improvement of fire prevention techniques
on logging operations, and better methods of slash dis­
posal would help to reduce further the fire damage.
The major drain on the resource base is from cutting.
Improvements in logging techniques can reduce destruc­
tion of uncut trees to a minimum. More significant for
long-range purposes, however, is the use of cutting meth­
ods which not only provide desirable logs, but at the same
time improve the stand or create conditions making for
prompt natural forest regeneration.

M a j o r I t e m s o f F o r e s t W i t h d r a w a l a n d L o s s b y R e g i o n , 1944
(in millions of cubic feet)

Region
Lumber
Pacific Northwest . . . 1,934
372
California ......................
Total Pacific C o a s t .. 2,306

Fuel
wood
36
2
38

Other
Pulp commodwood
ities1 Fire
309
232
44
..
22
29
309
254
73

Insects
63
65
128

Total
2,618
490
3,108

1 Includes veneer logs, hewn ties, mine timbers, shingles, split products,
and other small items.
S ource: Forests and National Prosperity, United States Department of A g ri­
culture, Miscellaneous Publication 668, 1948, p. 30.

Withdrawal and loss
vs. growth

Several factors may mitigate the excess of drain over
growth. Young forests not yet classed as saw timber will
increase the volume of saw timber and the growth cred­
ited to saw timber on reaching merchantable size. The
increased interest in forest management during recent
years will help convert existing mature stands into grow­
ing stands as old timber is withdrawn. In addition, some
areas which have not been included in recent inventories
as growing timber may be restocked naturally or by arti­
ficial reforestation in the course of time. The program of
the state of Oregon for the Tillamook burn is a good
example of the latter. These several factors could produce
sufficient additional growth to offset the current, or per­
haps even a somewhat larger, drain. Some foresters main­
tain that a larger cut could be taken currently under a
sustained yield program.1

Cutting practices and
sustained yield

Cutting practices are of prime importance in creating
and preserving a growing stock. If sound cutting prac­
tices are followed, it is quite possible to log a forest and at
the same time lay the ground work for an adequate
growth. Operating a forest on a sustained yield basis
implies that the logging operation will be so scheduled
through time that when the first rotation of cutting the
entire area is completed, there will be adequate second
growth standing to permit the starting of a second cycle
of cutting. One type of sustained yield plan is one in which
1 percent of a forest is cut annually so that at the end of
100 years the acreage cut first will have 100-year old trees
standing. In these circumstances, cutting practices must
be such that adequate seed stock is left and the cutover
area is tolerant to a natural reseeding process. Further­
more, where practicable, the removal of suppressed or
deformed trees will permit more vigorous or, as the indus­
try calls them, thrifty trees to add their maximum growth.
Good cutting practices independent of any sustained
yield program will serve a much better purpose than hap­
hazard practices aimed at liquidating existing stands.

The current lack of balance between drain and growth
is due in large part to the fact that most of the timber (80
percent) in the Pacific Coast states is still in virgin stands.
These stands usually contain mature and over-ripe trees.
Growth for such stands may be nil and according to some
authorities negative because rot and mortality affecting
some trees may offset growth in others. The present tim­
ber stand in this area is estimated as being 1 times the
necessary growing stock for sustained yield management.
Only 20 percent, however, is second growth timber which
is adding a significant annual increment. Most of the cur­
rent annual growth is occurring on privately-held lands.
Data for the Pacific Northwest show that annual growth
on private lands is 2^4 times the rate of growth on public
lands where most of the stands are still in virgin timber.
In addition to the distribution of stands between mature
and growing timber, there is the problem associated with
lands suitable for growth of commercial forests which are
denuded, burned over, or very poorly stocked. These areas
cover over 8 million acres or about one-eighth of the land
area suitable for commercial forests. Some of these lands
are fairly recent cut-overs, and may be found to be satis­
factorily restocked in future surveys. In California there
are an additional 3 million acres of very open stands on
which a much denser growth could be maintained. Re­
stocking the denuded lands or developing conditions
which will permit more dense growth in open stands
would add an area equivalent to the present second
growth stand in the three Pacific Coast states.

An example of the benefits of good cutting practice has
been noted in California. In the early days of the Califor­
nia lumber industry, trees were cut on a very selective
basis. Only the most mature and highest quality trees
were removed. The equipment was quite light, and even
if a fairly thorough cut was made young trees were not
destroyed. As a result, some areas logged more than 50
years ago have good second growth stands. As the indus1 The state of Oregon is now taking measures to reforest this area. A n issue
of $10,000,000 in general obligation bonds was authorized in 1948 to re­
forest this area.

f o r e s t Resources of the Douglas Fir Region, Burt P. Kirkland, pp. 21-28.




6

try progressed, the steam donkey and cable system of
logging came into use. The cost of the equipment and its
size dictated intensive cutting and deterred selective or
partial cutting. This method of operation proved quite
destructive of young growth; many trees which were not
logged were pulled down in the logging operation. In
recent years, tractors have been used to an increasing
extent. Tractor logging does considerably less damage to
uncut trees and permits a greater degree of flexibility in
tree selection.
Good cutting practice implies the logging of trees in
such a manner that the remaining stand will produce a
vigorous growth of desirable species. Just what consti­
tutes satisfactory cutting, however, varies with the type
of stand, its condition, and age distribution.

yield, a relatively large block of timber is required. Many
foresters maintain that a small block of timber might be
managed successfully on a profitable sustained yield basis.
This position is correct if the scale of operations is com­
mensurate with the timber volume available. In general,
however, an industrial operation of any size uses logs in
sufficiently large quantities to require substantial timber
holdings if a continuous operation on a sustained yield
basis is to be achieved. The small timber block may not
provide a sufficient basis for a full-scale industrial opera­
tion under a sustained yield program, but it can produce
saw logs and other forest products which could be sold to
sawmills, pulp mills, and other wood-using industries and
at the same time provide for continuous operation. Pacific
Coast foresters, whether in universities, government, or
industry, are striving to develop forestry techniques suit­
able to small land holdings. If small land holders can be
taught to operate their timber holdings at a profit, on a
sustained yield basis, the certainty of a continuing ade­
quate timber supply will be enhanced. Some success along
these lines has been recorded in recent years.
Of the 28 million acres of commercial forest land in
private ownership in the three Pacific Coast states, 56
percent was in the hands of some 90 thousand small own­
ers early in 1945. The average holding for this group
was only 174 acres. Over 4.5 million acres were in farm
woodlands having active timber management on only 15
percent of the acreage. Very small owners may not have
sufficient capital to permit them to engage in practices
conducive to growing trees on a long-term basis. Fre­
quently in small holdings, other than farm woodlots, each
acre must return a sufficient yield to satisfy the pressure
that the owner is under to develop adequate current in­
come. In addition, the danger of capital loss will lead to
rapid liquidation in periods of rising prices. The problem
of finding a technique which will encourage good man­
agement on small holdings as well as large blocks of land
offers a real challenge.

The growth period and rotation of cutting

In managing forests to obtain a continuous crop, the
growth rate of trees and the rotation period of cutting the
crop are basic economic considerations. In the Douglas
fir region about 70 to 100 years are required to grow a
tree which is of desirable saw log size. Even after this
period, second growth trees do not have the same fine
grained characteristics as virgin timber several centuries
old. The tree, however, would yield a lumber product with
a reasonable percent of the cut high grade. In the red­
wood area of California, 100 years would also be required
to raise a tree of saw log size. The characteristics of red­
wood second growth compared with virgin timber are
even less favorable than for Douglas fir. The redwood
forest, however, will support a mixed age stand whereas
the Douglas fir stand tends to be of uniform age. It is pos­
sible to arrange redwood cutting to obtain somewhat
older trees because the stand may have a sufficiently wide
age distribution to permit economic cutting by age and
size group. Similar considerations concerning age and
size distribution apply to the pine areas. Selective cutting
can be arranged to take only those trees of a desirable age
and size category. In any case, in this area, trees under
120 years old are not likely to produce desirable saw log
material.
So far the discussion of cutting rotation has empha­
sized saw logs. In any young second growth stand and
even in older stands there is a possibility of obtaining
trees which yield needed forest products other than saw
logs while at the same time improving the growth process
of saw log trees. Thinning of growing immature stands
for suppressed or dormant trees or trees in danger of
mortality will yield considerable pulpwood, posts, poles,
piling, or wood fibre products. This type of harvesting
will permit the more thrifty trees to attain their most
rapid rate of growth and will also produce income for the
forest manager, private or public, which will substan­
tially defray management and other tree growing costs.

Action taken to improve forest
practices

Federal, state, and private groups have taken action to
improve management practices on forest land. The Pacific
Coast states have adopted forest practice laws requiring
that adequate numbers of seed trees be left in cut-over
areas and in California the law also provides for setting
up of rules by local groups to prevent undue cutting of
immature trees. The Federal Government, owning sub­
stantial quantities of virgin timber, sells mature stumpage to private operators who harvest it in accordance with
Federal forestry regulations.
The Government also joins with private owners to pro­
vide for cooperative sustained yield operations. The
authorization for the latter program was given by Con­
gress in 1937 for revested land grants and in 1944 for all
Federally owned or managed lands.1 The 1944 law states
it is aimed “ to promote the stability of forest industries,

Land ownership and its relationship
to forest management

The problems presented so far indicate that to sustain
a particular annual cut of timber and provide for sustained




1 Public Law 405— 75th Congress; Public Law 273— 78th Congress.

7

of employment, of communities, and of taxable forest
wealth, through continuous supplies of timber ; . .
The
law permits the Secretaries of Agriculture and Interior
to enter into cooperative agreements with private owners
to set up sustained yield units. Only one such agreement
has been completed, however, involving 158,760 acres of
private land and 111,466 acres of public land in Western
Washington to be managed on the basis of a 100-year
rotation. Because of the duration of the contract and the
capital necessary to carry it out, some small operators
have opposed the expansion of these agreements because
it threatens their ability to acquire stumpage from Fed­
eral lands.
The forest industries initiated a movement some years
ago to set up “ tree farms.” The program has since been
widely adopted. Sponsors of the program on the Pacific
Coast are the West Coast Lumbermen’s Association, Pa­
cific Northwest Loggers Association, and the Western
Pine Association. The tree farm program was started to
promote and encourage high order forestry practices. The
several associations inspect the tree farms which they
have certified to determine whether the lands are being
managed for continuous production. By the end of August
1949, 4.8 million acres of Pacific Coast private timber
land were in tree farm management.
The foregoing programs have been oriented mostly
toward the large or medium-sized timber operations,
though a substantial number of small land owners have
joined the tree farm program. Programs are also being
developed for the small operation and the farm wood lot.
The “ More Trees Program” is devised to instruct farmers
how to get a cash return from their woodland while grow­
ing trees for future harvests. Because some of the woodlots are exceedingly small, some farmers have formed
cooperatives in order to spread the costs of management
and to obtain forest products in marketable quantities.
The three Pacific Coast states in cooperation with the
Federal Government have initiated farm forestry pro­
grams based on the Norris-Doxey Act. Technical assist­
ance is offered by state foresters to farm and other small
timber owners.

lem, therefore, goes far beyond dividing the present stand
by the net drain. The problem, at least in part, is to regen­
erate desirable species on accessible forest land near pres­
ent communities.
Competition for stumpage

One of the major problems confronting the lumber
industry is the competition for stumpage. Even though
figures show a large stand in the Pacific Coast area, the
most accessible timber has been drawn on heavily. At the
same time, the plywood and pulp industries have in­
creased their use of timber supplies. Plywood production
requires large high-grade logs, though the pulp industry
can use smaller, lower-grade logs and salvage material
from saw mills. Nevertheless the several demands for logs
create a situation, especially between plywood and lum­
ber, in which logs will tend toward the use bringing the
highest return. Since plywood plants, pulp plants, and
saw mills all require varying amounts of investment, the
activity with the largest capital outlay will tend to exer­
cise the most effective competitive efforts for obtaining
a long-run supply of stumpage. Its influence will be felt
throughout the area from which it can economically draw
timber supplies. In the short run non-integrated owners
will sell stumpage or logs to the highest bidder. Bids for
these supplies will be affected by the short-run outlook
for profit, as well as the desire for integrated producers
to acquire a long-run supply of timber. There has been,
in recent years, a tendency toward blocking up of hold­
ings on the part of large timber operators, pulp mills, and
plywood plants. It has been suggested by some individuals
in both industry and government that there is sufficient
relationship between lumber and pulp operations (because
pulp mills can use very small logs and mill waste) to
integrate the operations. Several successfully integrated
operations now exist.
Waste

There are no satisfactory figures on waste of forest
products destroyed or not used which are economically
and technically usable. The Forest Service estimates,
based on its definition of waste as any wood product not
used regardless of its economic value, that 35 percent of
the timber cut or damaged in cutting is not used at all
and 22 percent is used for fuel (other than cord wood cut
for fuel) in a relatively uneconomical manner. Much of
this waste may not prove to be usable at any time in the
near future. It appears likely, however, that substantial
quantities could be used for pulp or other fibre products.
In fact, some of the larger operators have invested con­
siderable sums in equipment to produce by-products and
obtain as near complete utilization of forest products as
present day techniques will permit. More work remains
to be done in this area. The Forest Products Laboratory
of the United States Forest Service, the laboratories or
forestry schools at the state universities in California,
Oregon, and Washington, and private industry may be
able to make even greater progress than heretofore.

Geographic and species distribution

It is not enough to say, for example, that the present
stand of saw timber in the Pacific Coast states is 859
billion board feet and that at the current rate of net drain
(cut and loss from fire and insects less growth) there is
sufficient timber to last 100 years. The accessibility of
various stands, their relationship to existing saw mill
locations and industrial communities, and the species and
quality of timber available alter significantly the prospect
for industrial continuity. If industry must shift to new
locations for its timber supply, entire communities may
be left without their basic industry. In addition, move­
ment into less accessible areas increases the cost of opera­
tion. Furthermore, cutting has been concentrated on the
most marketable species, and in many cases species left
behind do not offer so satisfactory a product. The prob­




8

PART il.

PRODUCTION

Lumber Characteristics
forests of the Pacific Coast yield logs for a number
of uses, including lumber, ties, cooperage, pulpwood,
plywood, Venetian blinds, battery separators, and shin­
gles. Sawed lumber also serves as the basis for a variety
of products, including construction lumber, cabinet wood,
box shook, mouldings, trim, sash, doors, and furniture.
The different species of trees yield products with a wide
range of characteristics. In the accompanying table the
importance of the major species in lumber production of
the three Pacific Coast states is apparent. Comparisons
of the characteristics and uses of the several species, along
with the data on volume of production, are an important
part of the background for examining production of lum­
ber on the Pacific Coast.

T

he

L u m b er P r o d u c tio n — O reg o n , W a s h i n g t o n , an d
C a l i f o r n i a , 1948
(m illions o f board feet)

Oregon
Douglas fir ........................... 5,977.4
Ponderosa pine ................. 1,330.2
H em lock ................................
241.0
140.4
True firs ...............................
Redwood ...............................
Sugar pine ...........................
78.1
Cedars ....................................
22.3
Spruce ....................................
30.5
Other .......................................
22 5
Total softw ood...............

7,842.4

W ash.
2,430.4
357.3
540.4
25.0

168.6
82.1
55.7
3,659.5

Calif.
925.4
1,458.1
0.2
471.1
793.3
236.9
69.6
7.5
0.8

Total
Pacific Coa
9,333.2
3,145.6
781.6
636.5
793.3
315.0
260.5
120.1
89.0

3,962.9

15,674.8

Douglas fir

Western hemlock

Western hemlock yields a product of moderate weight,
of intermediate strength, and low shock resistance. Its
shrinkage rate is moderately large and it requires a long
drying period. Its properties make it very suitable for
pulping by the sulphite process and three-fourths of the
logs cut enter into this use. There has been a strong preju­
dice against the use of western hemlock as lumber be­
cause it does not have the strength of Douglas fir, or even
as good decay-resistance. In recent years, however, it
has become more acceptable as the result of investigation
which has proved it useful for boxes and crates, sheath­
ing, siding, subflooring, planking, and rafters. Very little
is employed as a heavy construction lumber or where
considerable resistance to decay is necessary.
White fir

Douglas fir is the major saw timber species, based on
volume of stand, in the United States and is second in
lumber production. It still exists in large stands of virgin
timber. The trees are large, some reaching diameters of
10 feet and 300 feet in height. Young-growth timber 100
years old may be 200 feet high and two to three feet in
diameter. Douglas fir is used for plywood, pulpwood,
cooperage, poles, piling, and ties, as well as lumber. Its
strength, stiffness, and moderate shrinkage make it a
popular source of construction lumber. It has a wide
variety of other applications as lumber, being used for
doors, box car construction, boxes and crating, flooring,
and many other common uses. Its nail-holding ability is
quite good, but it ranks low in paint-holding qualities and
has only moderate resistance to decay.

“ White fir” is the name applied commercially to a va­
riety of true firs, including white fir, grand fir, Pacific sil­
ver fir, California red fir, Noble fir and Alpine fir. Though
the true firs are low in strength properties and decay
resistance, they are quite useful in light construction, par­
ticularly of small homes. Select Noble fir, however, was
largely used in airplanes during the war. White fir is used
for boxes, crates, and butter tubs. A large portion of the
log output in the Pacific Northwest is used for pulp. It
yields various grades of printing paper and a high grade
of wrapping paper.
Redwood

Redwood might be described as the glamour species
of the Pacific Coast and perhaps even of the United
States. In addition to yielding high-quality lumber, the
mature tree is large. Some exceptional trees in virgin
stands are 20 feet in diameter and 350 feet high, and the
grandeur of the stands so impressive that some sites have
a very high recreation and tourist value. The wood itself
is also striking. The heartwood varies from a light cherry
color to a deep mahogany-like hue. In addition, the wood
is moderately light, low in shrinkage, fairly strong, good
in nail-holding ability, and high in paint-holding qualities.
It has, however, a low shock resistance. Perhaps its most
striking quality is its great ability to resist decay. Red­
wood lumber is applied in a number of important uses in
building construction. It is used for siding, decorative
panelling, and in some areas for decorative fences. A

Ponderosa pine

Ponderosa pine is not so large a tree as Douglas fir.
The largest trees attain a height of 200 feet and diameters
of six feet. Second growth is fairly slow on dry sites; in
100 year old stands the trees average about 13 inches in
diameter in Oregon, but on the west slope of the Sierra
Nevadas in California the growth is considerably more
rapid and compares favorably with that for Douglas fir.
The principal products of this species are lumber and box
shook, with small quantities entering into plywood. In
recent years, some of the California ponderosa pine has
been cut into chips for fibreboard production. Ponderosa
pine is the third most important species nationally in
lumber production. The tree yields a product which is




quite soft and uniform in texture. In addition, the wood
is straight-grained and is subject to little shrinkage. Pon­
derosa pine tends to be weak and low in shock resistance
in comparison with Douglas fir. Its favorable character­
istics, however, make it very serviceable for a wide variety
of important products. The high-grade lumber is used
principally for doors, sash, frames, paneling, moulding,
and cabinets. Lower grade material is used for boxes,
sheathing, joists, and railroad ties. The uses accounting
for the largest consumption of ponderosa pine are boxes,
sash and doors, and general millwork.

9

number of important planing mill products, such as
sash, doors, and blinds, also are made of redwood. Cigar
boxes, water and chemical tanks, cooling towers, silos,
wood pipe, and outdoor furniture are some of the other
uses to which it is put. Redwood is also a source of split
products, including grape-stakes, split cross-ties, split
fence posts, and split shakes.

Spruce

Sitka spruce accounts for all but a small portion of the
spruce production on the Pacific Coast; less than 4 percent
is Engelmann spruce,. Sitka spruce logs are used princi­
pally for pulp production, but a fair amount is used as lum­
ber. The wood is light but exceptionally strong in relation
to its weight. This feature, along with the fact that it can
be obtained in clear, straight-grained specimens of large
size and uniform texture, results in considerable use of
the wood for airplane production. It is also used for sash,
doors, sidings, and interior finish. Considerable amounts
are also used for boxes, crates and ladders.

Sugar pine

Sugar pine, produced principally in California and to a
limited extent in Oregon, is derived from a large tree
reaching a height of 240 feet and a diameter of 10 feet in
some instances. The wood obtained is usually straightgrained, of uniform texture, very small shrinkage, good
nail-holding ability, and high paint-holding qualities. It
is not a strong wood and does not resist shock too well.
Because of its ease in working and its paint-holding abil­
ity, it is used widely in construction where strength is
not a required characteristic. W ood from some trees does
not lend itself to use for natural finish surfaces because
of fungi which attack the tree and stain its wood, but this
wood is very good for use where a painted surface is
desired. Most sugar pine lumber is used for sash, doors,
and general millwork; a considerable amount is now be­
ing used for patterns because of its low shrinkage and
good working properties; and an even larger amount is
used for box shook because of its light weight and nailing
properties.

Lumber Output
Growth of lumber production on the Pacific Coast

By 1905 the Pacific Coast lumber industry was the
source of 14 percent of all sawed lumber produced in the
United States. Washington forests yielded about 60 per­
cent of the output of the Pacific Coast. The combined out­
put of the three states was a little over 6 billion board feet
annually. The production of lumber on the Pacific Coast
became gradually larger and more important relative to
the national total. By 1920 Pacific Coast production was
approximately 30 percent of the national total and totaled
10 billion board feet. Beginning in 1926, the Pacific Coast
replaced the South as the leading lumber producing area,
though southern yellow pine has remained the leading
species. In 1930 the output of the three Coast states was
36 percent of the national total, but by 1935 it had de­
clined to 35 percent. The ratio of Pacific Coast output to
the total for the United States has tended to increase in
recent years, with a few exceptions.
Between 1940 and 1945 the ratio of Pacific Coast out­
put remained fairly stable. It dropped in 1946 because of
prolonged labor-management disputes on the Pacific

Cedar

Four different types of cedar exist in Pacific Coast
forests. Western red cedar is the major lumber product
in volume. It is also used extensively for shingles. The
wood, produced principally in Washington, is highly
resistant to decay, easily worked, and has very little
shrinkage. As lumber it is used principally for siding,
porch columns, and greenhouses. Incense cedar, most of
which comes from California, is also resistant to decay,
easily worked, and subject to only small shrinkage. The
texture of the wood is unusually uniform and it holds
paint and natural finishes very well. Because the tree is
subject to a fungus attacking the heartwood and causing
cavitation, a considerable portion of the log is often dam­
aged. Though the action of the fungus stops when the
tree is felled, a considerable amount of wood is reduced in
quality. Some of this wood is becoming popular for ob­
taining rustic effects in construction. The highest grades
of lumber are used for pencils and Venetian blinds and
some small amounts are used in “ mothproof chests.” The
lower grades are used for rough construction. Port Orford cedar, in addition to the qualities present in the
other cedars, is of unusually fine texture and somewhat
stronger than western red or incense cedar. It is used for
battery separators, Venetian blinds, boats, interior finish,
siding and shingles. It is very valuable wood and the good
grades command a very high premium. Alaska yellow
cedar is found in both Oregon and Washington, and is
utilized in minor quantities for small boat construction in
Oregon.




L U M B E R P R O D U C T I O N — P A C I F I C C O A S T . 1905-1948
Billions of
board feet

Source : United States Department of Agriculture, Lumber Production in the
United States, 1799-1946.

10

Coast, which began in 1945 and retarded production con­
siderably in both years. By 1947, however, the industry
was able to achieve a level of output greater than that in
the war period, and its output of more than 14 billion
board feet was 40 percent of national production. In 1948
the three states set an all-time record. Lumber output
reached a total of over 15.6 billion board feet or about
43 percent of the national production.
Since the early days of the industry there has been a
shift in the importance of the several states. Washington
was the leading producer of lumber through 1937. During
the 1930’s the position of Washington relative to the other
Coast states declined, and in 1938 Oregon surpassed
Washington. In recent years Washington production has
continued to decline in relation to the total for the three
states. California surpassed Washington in 1948 for the
first time. It does not appear likely that Washington will
improve its relative position in the near future. The
original stands have been liquidated to a large extent, and
second growth forests have not yet reached merchantable
size in sufficient volume to permit any substantial expan­
sion in output. The competition for stumpage arising
from alternate uses such as wood pulp and plywood will
further restrict lumber production in Washington.
The production mechanism

Lumber may be produced in mills requiring invest­
ments up to several million dollars or by mills so small
that they are actually portable. To enter the lumber manu­
facturing business, therefore, may require very little
capital. In fact, one need not own any stumpage from
which to cut logs, but may buy logs on the open market in
some areas. Actually, however, the very small mills cut
stumpage purchased from small timber owners or enter
into some agreement to remove the timber and cut it into
lumber on a custom basis.
In producing lumber the medium size or large mill uses
very specialized equipment designed to provide a high
rate of output with maximum efficiency in producing
lumber and obtaining usable by-products from the logs.
Even in these circumstances there is considerable mill
waste and refuse which can only be utilized by plants
producing other products such as woodpulp, wallboard,
insulating material, and compressed sawdust products.1
In brief, the production of lumber involves breaking
down the log, edging lumber, trimming to obtain desired
lengths and grades, and further processing to obtain
finished lumber.2 Logs are run through the head saw first.
There the sawyer makes many decisions concerning the
proper cuts to be taken to obtain the maximum quantity
and quality of desired lumber. From the head saw, lumber
is passed through the edger saws which remove residual
bark, square the edges, and cut the various products to
the proper width. Next, the boards are trimmed in order
to obtain desired lengths, square the ends, and remove
defects which would cause down grading. Timbers usu1 For further discussion see page 14.
2 For a full description see R. C. Bryant, Lumber, Second edition, J. H .
W iley and Sons, In c., New York, 1938.




11

ally pass to the butting saw where they are trimmed to
the desired length and then passed through the timber
sizer where they also may be surfaced on one or more
sides. This process as described here is rather intensive
and is typical only of medium or large mills. This process
yields unseasoned and, except for timbers, rough lumber.
The next step in producing good quality lumber is sea­
soning. ( The wood may be run through a dry kiln or air
seasoned.) This step removes most of the shrinkage in
the product and increases its tendency to stay in place.1
After the lumber is dried it may be merely surfaced to
yield finished board or dimension stock, or it may be re­
manufactured to meet the demand for different products
such as flooring, pattern material, moulding, siding,
grooved material, or merely boards and dimensions of
varying sizes.
The demand for lumber may fluctuate considerably
even in a short period of time. On some occasions rough
green lumber of various dimensions and size may find
a ready market because the demand for lumber is high
relative to the supply. At other times buyers may center
their attention on obtaining a mixed variety including
specific proportions of several sizes and grades. Still on
other occasions only remanufactured items of specific
types will get a good price, while run-of-the-mill items
will sell at a discount which will be increasingly greater
as the lumber approaches rough unseasoned stock.
The foregoing characteristics of the lumber market
tend to favor mills that can produce a reasonably vari­
able “ product mix.” 2 To produce lumber in some variety
and of low moisture content and good finish requires a
fair amount of equipment. Sufficient equipment is what
small mills and even a good many mills of moderate size
lack. It is this situation that gives rise to many of the
severe problems faced by these mills.
Lumber production by species

The most important Pacific Coast species in terms of
volume is Douglas fir. In Oregon and Washington,
Douglas fir has been the primary species since the incep­
tion of the industry. In 1905, Douglas fir production ac­
counted for roughly 85 percent of the total lumber output
of those states. The importance of Douglas fir as a struc­
tural wood and its adaptability to a variety of other uses,
as well as its abundance, have led to its continued leader­
ship on the Pacific Coast. It has also been second in the
quantity of lumber produced in the United States, being
exceeded only by yellow pine. Though the production of
lumber from other species has increased in importance
over the years, Douglas fir accounted for over 70 percent
of the output in Oregon and Washington in 1948. In
California, Douglas fir has been a relatively minor species
until recent years. Even in 1940 Douglas fir accounted for
only 10 percent of the output in that state. For many
years the California stands of Douglas fir were not con1 The need for drying varies among species. A high percentage of Douglas
fir, for example, used for construction lumber, is utilized without being
dried. Y e t, for this purpose green Douglas fir seems to be quite adequate.
2 A n analogous and probably more critical example of the problem exists in
the steel industry from which the term “ product m ix” was borrowed.

PACIFIC COAST LUMBER PRODUCTION BY MAJOR SPECIES
Billions o f
board feet

the 1930’s. California, with very minor exceptions, has
been the only source of redwood. The special character­
istics of the wood have made it popular for a variety of
uses, but the range of use has been fairly limited. In 1905,
redwood accounted for over 40 percent of the California
lumber production and about 7 percent of the Pacific
Coast output. By 1947 it accounted for 17 percent of the
California output and less than 4 percent of Pacific Coast
output. Its ratio to total output rose somewhat in 1948
to almost 20 percent in California and 6 percent for the
three states.
Regional character of production

The production of these three species points up the
regional demarcations of the Pacific Coast lumber indus­
try. The Douglas fir region of the Pacific Northwest is
the leader in output and, in addition to its main species,
supplies hemlock, spruce, cedar, and some true firs. The
ponderosa pine region of the Pacific Northwest supplies,
in addition to its main species, true firs, Douglas fir, sugar
pine, and very minor quantities of other woods. It ranks
behind California in the production of pine.
California, on the other hand, is not a homogeneous re­
gion. Ponderosa pine is its chief product. Douglas fir, the
true firs, and redwood, however, are also important prod­
ucts. Another important species is sugar pine. Port Orford cedar, though produced in small quantities, is im­
portant because of its high quality. The type of timber
stand in California shows considerable geographical vari­
ation.1 Some differences also exist in the production tech­
niques of the industry, depending upon the principal
species.

Sources : Oregon and W ashington : United States Department of Agricul­
ture, “ Production of Lumber in Oregon and W ashington, 1896-1948,”
Forest Survey Report No. 100, pp. 9 -1 0 ; Pacific Northwest Forest and
Range Experiment Station, Division of Forest Economics. California:
United States Department of Agriculture, Forest Service, “ Estimated
Lumber Production in California, 1948,” Forest Research Notes, N o. 65,
p. 4 ; Lumber Production in the United States, 1799-1946 ; California Forest
and Range Experiment Station.

sidered as good quality timber or on as satisfactory sites
as those in Oregon and Washington. A significant pro­
portion of this species was found intermingled with true
firs, ponderosa pine, and redwood. Frequently in these
areas little cutting of Douglas fir occurred. The strong
postwar demand for lumber resulted in increased utiliza­
tion of the Douglas fir supply in California.
Ponderosa pine has been the second most important
lumber species on the Pacific Coast. Shortly after the turn
of the century it accounted for about 6 percent of the total
output in Oregon and Washington and 30 percent in
California. Its importance has grown because of its excel­
lent quality for finished products such as cabinets and
interior trim. It has also proven a very useful source of
box shook. In recent years it has accounted for a consid­
erably greater proportion of Pacific Coast lumber pro­
duction than in the early period of the industry. During
1948 it accounted for about 15 percent of the output in
Oregon and Washington and over 35 percent in Califor­
nia. Its percentage of total Pacific Coast output has in­
creased from under 10 percent in 1905 to almost 20 per­
cent in 1948. Its expansion has been limited by the nature
of the stand as well as by demand. Ponderosa pine in
Washington is only of fair quality and not in heavy
stands. In Oregon it is more abundant, of better quality,
and more accessible. The densest stands appear in Cali­
fornia, but the terrain tends to be an adverse factor.
The production of redwood in the early part of the
present century was as large as it has been in most recent
years and larger than that in a number of years during




Production in the Douglas fir region

In 1948 the Douglas fir region of Oregon and Wash­
ington produced over 9 billion board feet of lumber of
which 8 billion were Douglas fir. As has been indicated
earlier in this study, production of lumber has been mi­
grating from Washington to Oregon. The Douglas fir
areas of Oregon produced almost 6.4 billion board feet
of lumber in 1948. The main producing unit was the W il­
lamette area with roughly 2.6 billion board feet. Lane
County was the principal producer accounting for more
than half the output in the Willamette area. The next
largest producing county in the area was Linn, account­
ing for less than 20 percent of the output. The counties
in Oregon grouped along the Columbia River west of the
Cascades were second in importance in the Oregon por­
tion of the Douglas fir region. Their output was less than
half of that in the Willamette area. Multnomah County
was the leading producer in the Columbia River area.
Third in importance was the Umpqua area consisting of
Douglas County. The latter produced more lumber than
any county except Lane in the Willamette area.
The location of the first and third producing areas indi­
cates the importance of the southern and western parts
of Oregon in lumber production. Further evidence of the
importance of southwestern Oregon as a lumber producer
1 See page 5.

12

is apparent from the substantial quantities produced in
Coos County in the south Oregon coast area and in Jack­
son County in the Rogue River area. The production in
Lane, Douglas, and Jackson Counties accounts for almost
half the production in the Douglas fir areas of Oregon.
In Washington, the Douglas fir areas produced less
lumber than the four leading Oregon counties. Total lum­
ber production in western Washington was just over 3
billion board feet. The Puget Sound area was the largest
producer with an output of 1.6 billion board feet, and
Snohomish and King Counties accounted for 60 percent
of the output. The Columbia River area was second in
importance with just under three quarters of a billion
board feet, the bulk of which was produced in Cowlitz
County. The Washington coast area produced only 673
million board feet. The decline in Washington production
is emphasized by comparison with 1926. In that year this
section of the Douglas fir region produced almost 6.9
billion board feet and Grays Harbor County alone pro­
duced over l.S billion board feet, well over twice the 1948
output of the Washington coast counties. Pierce and Sno­
homish Counties each exceeded a million board feet in
1926.

Tulare County north. The largest production of pine and
associated species in the westside sub-region was reported
by Plumas and Shasta Counties.
In the redwood and fir region, production totaled over
1.3 billion board feet with over 60 percent in Humboldt
County, over 25 percent in Mendocino County, and about
8 percent in Del Norte County. Minor quantities were
produced in areas south of Mendocino County but as
can be seen from the foregoing data the output is concen­
trated in the counties along the north coast.
About 430 million board feet were produced in coun­
ties on the east side of the Sierras and almost all the pro­
duction was in counties from Lake Tahoe north. Lassen
County was the leading eastside producing area, ac­
counting for over half the production. About half a bil­
lion board feet were produced in the coast range pine and
fir region dividing the northern Sacramento valley from
the coast and extending along the central portion of the
Oregon border. The principal production was in Siskiyou
County, and substantial but lesser output was recorded
in Trinity County.

Production in the ponderosa pine region

Larger units on Pacific Coast

The production of lumber in the ponderosa pine region
has always been greater in Oregon than in Washington
because of the characteristics of the forest resource base.1
In 1948 the ponderosa pine area of Oregon produced
more than twice that of Washington. Most of the pro­
duction came from the Deschutes River area and the
Klamath Plateau. These two areas produced about twothirds of a total volume just under 1.5 billion board feet.
Deschutes County was the leading producer in its area
and Klamath County in its area. Despite the much greater
land area, the region east of the Deschutes River area
and the Klamath Plateau tended to have little or no pro­
duction except for Grant County in the southern Blue
Mountains and Union County in the northern Blue
Mountains. Generally, the stands of timber in the Blue
Mountain areas of Oregon are not of as high quality as
those on the east slope of the Cascades nor are they as
accessible.
The Washington ponderosa pine areas produced over
600 million board feet in 1948. About 40 percent of the
output came from the Spokane area, and about 30 per­
cent from the Yakima River area. Spokane and Klickitat
Counties were the leading producers in the respective
areas.

than in the nation

Structure of the Industry

The lumber industry on the Pacific Coast is charac­
terized by large producing units compared with the
United States as a whole. This characteristic is still evi­
dent even though in the past 20 years the number of
moderately small and medium size mills has increased
substantially, while the number of very large mills has
declined. In 1947, over 60 percent of Pacific Coast pro­
duction was accounted for by 228 mills, less than 8 per­
cent of all mills.1 These large mills are defined as those
producing 15 million board feet or more annually and
include 36 mills each of which produced more than 50
million board feet.
Mills of comparable size, those producing more than
15 million board feet, in the country as a whole, com­
prised only 0.7 percent of all mills and accounted for just
over 30 percent of production. In the remainder of the
nation there were only 7 mills producing over 50 million
board feet annually ; only 20 mills compared with 102 on
the Pacific Coast producing between 25 million and 50
million board feet, and 60 mills compared with 90 on the
Pacific Coast producing from 15 to 25 million board feet.
Nationally, over 75 percent of all mills were in the
smallest size category considered in this study, while on
the Pacific Coast only a third were included in the group
producing from 50,000 to 500,000 board feet annually.
These comparisons give some indication of the relative
size of producing units on the Pacific Coast.

Production in California

The principal producing areas in California are in the
westside Sierra region and in the redwood region (in­
cluding intermingled and adjacent Douglas fir areas).
The output in the westside Sierra pine region was ap­
proximately 1.7 billion board feet and was fairly well
distributed among the counties along the Sierras from

l This discussion omits very small mills, those producing less than 50,000
board feet annually. In the United States there were almost 16,000 such
mills in 1947 but they accounted for less than 1 percent of total lumber
output. In the Pacific Coast there were 204 very small mills accounting
for .03 percent of total production. N ot only are the mills omitted but
their lumber production is also not included in the discussion of industry
structure. The term “ small mills” in this study, therefore, will not refer
to these very small mills.

1 See page 4.




13

D is tr ib u tio n

o f Lum ber M ills

by

S iz e — U n it e d

Integration of production

S ta te s

a n d P a c i f i c C o a s t , 1947

M ills with an annual cut of:
(in thousands of board feet)
50,000 and over 1
25,000-49,999
} Large
15,000-24,999

J

10,000-14,999
5,000- 9,999
4,999

1,000-

........................

Number
r--------of mills1------- ^ t— Lumber cut1—N
(percent of total)
(percent of total)
Pacific
United
United
Pacific
States
Coast
States
Coast
0.1
1.2
11.1
23.5
12.1
25.4
0.2
3.5
0.3
3.0
8.0
12.0
0.3

1
}

J

8.4

3.3
8.6
27.8

6.2
11.9
25.7

8.3
12.4
14.0
2.9

500-

999

Moderately small . .

12.1

19.0

13.1

50-

499

Small

77.5

33.6

11.9

1.5

. 100.0

100.0

100.0

100.0

......................... .

All m i l l s ............

1 Excludes mills producing less than 50,000 board feet annually.
Source: U . S. Department of Commerce, Bureau of the Census, Census
of Manufactures, 1947 M C 24A , W ashington, 1949.

Number of producing units

Even though a small proportion of the mills account
for a major share of the Pacific Coast lumber produc­
tion, the industry generally is not so concentrated that
the decisions of a few firms can affect the price-deter­
mining forces significantly. The 8 percent of the mills
producing 60 percent of the lumber is made up of 228
mills. The next 20 percent of the production is accounted
for by 12 percent of the mills, numbering 353.1 This
makes the dispersion of supply for most products suffi­
ciently broad that market forces rather than decisions of
a few firms tend to be the governing factor in determining
price. Concentration in redwood production, however, is
greater than in most other species.
In the redwood region, 393 active mills produced 793
million board feet of redwood in 1948. Almost half the
production was accounted for by the 15 largest mills, and
ten firms produced about 48 percent of the redwood. In
1942 the concentration was substantially greater. Only
75 mills operated and nine of these produced over 80 per­
cent of the lumber. The effectiveness of decisions by a
few firms has declined substantially between the two
years. Yet, sufficient concentration exists so that the be­
havior of a few large firms can still affect market condi­
tions to a considerable extent.

Large mills decline in importance

Though the large mill tends to be favored by some cir­
cumstances, especially by the possibilities of integration,
the number of such mills and their relative importance
have declined in the past 20 years. As far as the ability
to produce an adequate variety of lumber products is
concerned, medium size mills incorporate sufficient equip­
ment as a rule to meet a significant range of market re­
quirements. Thus the need to expand to large size to meet
the requirements for a variety of products is not pressing.
There is no real reason why medium size mills cannot
utilize their by-products through integrating with other
operations if conveniently located with reference to major
producing areas. There may be a limit here because suffi­
cient by-product material may not be available to support
an integrated operation of economic size. The ability to
raise capital may also be a problem. In any case, the bene­
fits of integration could be achieved, in part, by selling
the by-product material to other forest industries. Thus
again the need for very large size is lessened. Most im­
portant of all, however, in restricting the size of mills is
the availability of stumpage in blocks sufficient to permit
large scale operations.

Changes in Structure
Though the average size of mills on the Pacific Coast
is larger than in the country as a whole, there are diver­
gent tendencies in the composition of the industry. Be­
cause of the nature of forest harvesting, large blocks of
land make a continuous operation more certain. Though
the number and relative importance of large mills have
been declining, many factors still favor a large operation.
In fact, since 1940 there has been a noticeable effort on
the part of large mills to increase their holdings of forest
land in order to facilitate sustained yield programs and
continuous operations. Another factor favoring large
mills is the possibility of higher log utilization and com­
bining the production of lumber with the manufacture of
other items which utilize sawmill by-products or low
grade logs.

After the turn of the present century Pacific Coast for­
ests were cut quite heavily. The low price of stumpage
and the plentifulness of timber, combined with the donkey
or cable method of logging, resulted in the denuding of
large areas. The removal of seed sources, lack of care
because of the absence of an economic incentive, and
repeated fires impeded natural restocking. Some of this
1 For further discussion see J. A . H all, “ Progress of Integrated Utilization
in the Pacific N orthw est,” Proceedings, Society of American Foresters,
1947, pp. 140-149.

1 The concentration based on firms rather than mills is probably a little
greater.




Among the examples1 of integration is an unusually
large operation at Longview, Washington, consisting of
3 sawmills, a planing mill, a sulphite pulp mill for util­
izing hemlock logs, a sulphate pulp mill utilizing Douglas
fir waste and low grade logs, a plywood mill, a plant for
compressing sawmill refuse into small logs for fire places,
a bark conversion plant, and a central power plant. A
somewhat different example of utilization is available in
the case of a firm that has developed a market for poles
iand pulpwood and serves it by careful thinning of its
properties. A cooperative arrangement exists between
two firms at Shelton, Washington for trading logs and
exchanging by-products. Some integration is much more
informal and involves merely trading of logs between
pulp mills, lumber mills, and plywood plants. The more
formal arrangements require considerable outlays for
plant and equipment by any one firm and substantial
capacity in logging and lumber sawing to provide suffi­
cient by-products for maintenance of the other operations.
Nevertheless, smaller lumber mills can judiciously guide
their operations so that culls, refuse, and waste may be
sold to others or be exchanged for logs in areas where
several different operations are proceeding simultane­
ously.

14

port them. The depressed conditions of the 1930’s made
it quite difficult for small mills to stay in business because
of their inability to supply a wide variety of products.
There was a considerable turnover among the small mills
and a drop in their number. The war years created a mar­
ket for rough unfinished lumber and provided an oppor­
tunity for these mills. The intense demand of the early
postwar years, however, permitted these mills to increase
rapidly. Demand and supply approached a more balanced
relationship during late 1948 and 1949. Stocks improved
and greater emphasis was placed on product and qual­
ity. As a result, many of these mills went out of business.
It is not yet known how many small mills found no mar­
ket for their products because of a lack of drying facili­
ties and finishing and remanufacturing equipment. Some
mills have been able to stay in operation by selling their
rough green lumber to larger operators. In California a
spokesman for small operators has stated that a large
number of mills are down for lack of kilns and other facili­
ties. These small mills were said to be seeking capital for
a central seasoning and remanufacturing plant.

P A C IF IC C O A S T M IL L S B Y S I Z E G R O U P S , S E L E C T E D Y E A R S
Number of
mills

1200

100 (

800

600

400

Moderately small mills increase in number
200

since the war

0 ______________

...

1929 41 45 47

__________

1929 41 45 47

______

1929 41 45 47

The most impressive relative growth in the number of
mills and lumber output has occurred in the moderately
small mills, but this is due almost entirely to the expan­
sion since the end of the war. It appears likely that many
of these mills are subject to some of the handicaps of
small mills. Their lack of remanufacture facilities and
equipment to produce a variety of lumber which would
permit meeting changing market demand has proved a
serious handicap. These mills, however, have exhibited
somewhat greater flexibility than the small mills when
confronted by shifts in markets. Some have adequate
planing facilities and drying facilities. Others, like the
small mills, have been able to maintain their position by
selling their green, rough lumber to larger mills for fur­
ther processing.

_______________

1929 41 45 47

Source: United States Department of Commerce, Bureau of the Census,
Census of Manufactures, 1947, M C 24 A , W ashington, 1949.

area has restocked naturally, nevertheless, and others
may also be restocked by volunteer trees or by conscious
private or public effort. However, good-sized areas were
denuded for long periods and second growth was re­
tarded. Though there is still considerable timber on the
Pacific Coast, the availability of merchantable private
timber on the best sites in large single-owner blocks has
been reduced. The lack of private timber stands for sup­
porting a great number of large operations contributed
significantly to the reduction in the number of large mills.
The depressed lumber markets of the 1930’s tended to
cause a downward adjustment in the scale of operations,
and no doubt some of this occurred by limiting sawmills
to a scale which would permit longer range utilization of
the available timber stand. Since the end of World War
II there has been an increase in the number of large mills.
This gain has resulted from the increase in size of mills
formerly in the medium size category.

Medium size mills become more important

Small mills decline in importance after 1947 rise

Not only have large mills on the Pacific Coast declined
in number and importance, but small mills have had a
similar experience, though for different reasons. Between
1929 and 1941 the number of small mills dropped about
5 percent; even in 1945 the number of small mills, after
some impetus from the war, just about regained their
1929 position. By 1947, however, the number had in­
creased to twice the 1929 level with almost all the increase
occurring in 1947. This behavior of the small mill popu­
lation reflects clearly the type of market which will sup­




15

The medium size mills, cutting from 1 to 15 million
board feet annually, have shown the most consistent and
steady growth. These mills are favored by the fact that
their production is large enough to warrant re-sawing
equipment, planers, and dry kilns. Yet their size is not
such that unusually large amounts of capital are necessary,
particularly for the smaller mills in this category. In
addition, their size permits them to operate from moder­
ate blocks of timber and they produce enough scrap and
waste so that careful handling would permit them to sell
these items as raw materials for by-products commer­
cially or, in some cases, to process them further them­
selves. Through 1945, these mills had the greatest abso­
lute and relative growth, with the mills cutting 5 to 10
million board feet annually being particularly prominent
in the increase. In the postwar period the large expansion
in moderately small and small mills altered the relation­
ship somewhat, especially in favor of the moderately

small mills. The medium size mills, however, are less
likely to be adversely affected by changing market con­
ditions because they are able to provide a wider range of
products of a more finished nature than smaller mills.

import of logs reflects in large measure the same type of
conditions that are apparent in inter-unit movement of
logs.1 The proximity of British Columbia forests to the
Puget Sound Area results in a movement of logs to Puget
Sound sawmills and the Puget Sound log market. The
decline of timber stands in the Puget Sound Area is
partly offset by these log movements.
Prior to 1939, log exports, almost entirely from the
Northwest, varied markedly from year to year, but in
most years exports exceeded 100 million board feet, and
in a number of years approached or passed 200 million
board feet. Exports consisted primarily of Douglas fir,
hemlock, and cedar. Principal buyers were China and
Japan, and in the late 1930’s Canada bought an average
of about 25 million board feet per year. Small quantities
were sold to Germany, France, and Italy at various times.
During the war period this trade was extinguished, and it
has not recovered significantly since the end of the war.
In 1948, log exports totaled a little over 23 million board
feet.

Log Supply and Disposition
Log production and costs

The Pacific Coast lumber industry obtains its logs al­
most entirely from its own forests. Small quantities of
logs are imported from Canada, but prior to 1939 these
were more than offset by exports. Logging marks the
first stage of converting standing timber into lumber and
other forest products. The cost of producing logs, includ­
ing stumpage costs, accounts for 50 to 60 percent of the
total cost of lumber manufacturing.
The largest elements of cost in logging, exclusive of
stumpage costs, are falling and bucking, yarding and load­
ing, hauling, and road construction. Repairs to equip­
ment, general and administrative expense, depreciation,
and payroll taxes are significant costs also, but are not so
important in the total as the items referred to above. This
information is based on a study by the Forest Service in
the Pacific Northwest during 1947 covering a small num­
ber of mills in the Douglas fir region and the pine region.
While the sample of mills is not sufficient to permit direct
comparisons between the two regions, the figures point
up some interesting facts. The distance that logs are
hauled has an important effect on differences in total
logging costs. The conditions under which logs are
dumped and scaled vary considerably from mill to mill
and influence costs considerably. In those cases where
logs have to be reloaded from one vehicle to another be­
cause of hauling conditions, the cost is much higher. The
figures indicate that the technique used in delivering logs
to the mill is an important factor in logging costs, and
considerable savings can be effected by reducing the han­
dling of logs.

Interregional log movements

In addition to foreign trade, logs tend to move among
areas within the various forest regions. The movements
are of two types. Movements among small areas such as
counties because of topographical conditions reflect the
location of mills relative to timber stands, and move­
ments between fairly distant subdivisions of regions re­
flect excess mill capacity relative to available timber in
one area. In 1945 and 1946, for example, about 800 mil­
lion board feet annually moved from Oregon to Washing­
ton ; almost all of this movement was in the Douglas fir
region. Most of these logs were destined for the Puget
Sound, Grays Harbor, and Columbia River areas. It is
anticipated that these inter-unit movements will decline
in the next decade because of growrth of mill capacity in
Oregon, and the disappearance of the open log market in
the Puget Sound, Grays Harbor, and Columbia River
areas as unintegrated logging operations run out of
timber.2

Log exports and imports

Prior to 1939 the Pacific Coast was usually a net ex­
porter of logs. Washington has been the only significant
importer of softwood logs. All these logs came from Brit­
ish Columbia and consisted principally of Douglas fir,
with spruce, cedar, and hemlock accounting for a fair
share of the total before 1939. The volume of imports
tended to vary with the demand for lumber and the avail­
ability of logs in the Puget Sound Area, and reached a
peak in 1930 of almost 500 million board feet. This was
followed by a reduced level of imports until the late
1930,s and in 1941 almost 300 million board feet were
purchased from British Columbia. On the average, im­
ports were less than 10 percent of the log production in
western Washington. Canadian restrictions on exports
cut down the flow of logs thereafter, and log imports re­
mained under 100 million board feet annually through
1947. In 1948, imports from Canada exceeded 140 mil­
lion board feet. In the postwar trade, cedar, spruce, and
hemlock have been more important than Douglas fir. The




In California, there is an extensive log movement be­
tween some counties, particularly in the northern part
of the state. In 1946, Modoc, Shasta, Trinity, Tehama,
Lassen, and San Mateo Counties produced saw logs
which were utilized elsewhere. Counties reporting large
receipts of saw logs were Siskiyou, Sierra, Santa Cruz,
and Yuba Counties. Some logs from Lassen and Modoc
moved into the Klamath area of Oregon, and a small
amount of logs was received in Modoc County from Lake
County, Oregon. In part, these movements reflect nor­
mal geographical relationships between sawmills and
their timber supplies. To a significant extent, however,
logs move from areas with large timber supplies to areas
having sawmill capacity near markets; an example is
the movement of logs into Yuba County.
1 The inter-unit movement of logs is discussed below.
2 Corps of Engineers, Department of the A rm y , N orth Pacific Division,
Review Report on Columbia River and Tributaries, Appendix N , Part 3, O c­
tober 1948, pp. 42-43.

16

Cost of Producing Lumber

Per hour

A V E R A G E H O U R L Y E A R N I N G S , 1939 A N D 1948

Elements of cost

Log costs account for roughly 50 to 60 percent of the
total cost of lumber at the mill. The cost of processing
logs from the time they are delivered to the mill until
possession passes to the buyer accounts for the remainder.
Considering mill costs only, the most important elements
are expenditures on sawing, drying, and yard handling.
Planing also accounts for a significant part of the cost,
but estimates available on an informal basis indicate that
planing costs are only half those for sawing. The four
items combined account for roughly 60 percent of the
cost of producing lumber from logs. General overhead
expenses account for another 20 percent, handling and
transportation charges about 10 percent, and the remain­
der is accounted for by selling costs.
Changes in costs

Between 1939 and 1949, costs of producing lumber
from logs rose sharply. The largest increase occurred in
sawing. Reports of the United States Forest Service,
Regional Forester for California, indicate that the cost of
sawing operations increased more than 150 percent in
the ten-year period after 1939. Yard handling costs were
also up substantially— about 65 percent. Planing costs
and handling expenses also rose significantly.
The much larger increase in sawing than in other com­
ponents of cost is due principally to the relatively high
proportion of expenditure which is attributable to pay­
rolls. In the sawing operation labor is used to a larger
extent than in other stages. In addition to the head saw
operators, there are edgemen, sorters, off-bearers, and
other occupations which are essential to completing the
primary steps in converting logs to finished lumber. In
the other stages of processing, labor plays a less pro­
nounced role. The increase in straight-time hourly earn­
ings in the ten years tended to average slightly less than
the increase in sawing costs. In the absence of detailed
cost data, accurate analysis of this difference is not pos­
sible. The hourly earning figures do not reflect costs of
overtime work and fringe benefits. The available figures
on cost, on the other hand, are not broken down into
components so that the influence of capital costs, labor
efficiency, or other factors could be ascertained. The effect
of hourly earnings on costs, therefore, can be described
only as having been responsible for some major portion
of the increase.
W ages

Wages in logging and milling rose substantially during
the ten-year period starting with 1939. The largest in­
crease occurred in the redwood region where wages were
the lowest in the Pacific Coast lumber industry. The
Douglas fir region, while reporting the smallest percen­
tage increase, continued to pay the highest wages. In
the pine region, wages rose somewhat less than in the
redwood region but were only slightly below those in the
Douglas fir region. However there was a considerable
gap between the northern areas of the pine region and the




17

Source: United States Department of Labor, Bureau of Labor Statistics,
Wage Structure: Saw Milling— West Coast, 1948.

southern area where high quality timber on good sites is
readily available.
In comparison with wages in the lumber industry na­
tionally, Pacific Coast wages are considerably higher.
In 1948, for example, average hourly earnings in lumber
for the United States were $1.16 compared with $1.70 for
the Pacific Coast. The disparity, in percent, was little dif­
ferent before the war. Earnings in basic lumbering nation­
ally were about $.48 hourly and on the Pacific Coast
about $.73. These differences, however, are attributable
in very large measure to a marked difference in the manhour output in the lumber industry on the Pacific Coast
compared with the nation.
Labor efficiency

A study conducted by the Bureau of Labor Statistics1
indicates a considerable spread in the manhour output
between Pacific Coast regions and the United States.
Even though this study is quite old, the basic factors mak­
ing for the difference have not changed. The size of trees,
the basic skill of workers, and the degree of mechanization
have not been altered significantly. An idea of the differ­
ences in output can be obtained by examining a few of
the figures quoted in the study.
Logging operations in Douglas fir required 6.2 manhours per thousand board feet log scale, in western pine
7.4 manhours and in redwood 8.5. In the southern pine
area 11.2 manhours were required and in southern hard­
wood 15.1. The national average, heavily weighted by
Douglas fir and western pine, was 9.4 manhours. The
average for manufacturing 1,000 board feet of yard lum­
ber was 10.5 manhours for the United States. In the
Douglas fir region it was 6.5 and in western pine 7.6. Red­
wood required 13.8 manhours, considerably more than
the average. The author of the study attributed this not
to a lack of skill or efficiency but to the fact that redwood
1 Bernard H . Topkis, “ Labor Involved in Industrial Production, Labor
Requirements in Lumber Production,” M onthly Labor Review, United
States Department of Labor, M ay 1937.

is sold in a wide variety of small sizes and special
products.

Recent Problems in Lumber Production
Decline during 19 3 0 ’s

During the 1930’s, depressed conditions in industry
and construction, particularly of homes, resulted in a
marked reduction in the demand for lumber. This was
also associated with a decline in the demand for lumber
because of competition from other materials. During part
of the 10-year period after 1929, lumber production on the
Pacific Coast was half or less of the average annual pro­
duction of the preceding decade. The upswing in the latter
part of the 1930’s reduced the average annual gap to
30 percent. Compared with 1929, the average level of
production during the 1930’s as a whole was off 40 per­
cent. Somewhat comparable behavior was experienced
nationally, but the output in the country as a whole tended
to decline somewhat more for the 10-year period. In the
latter half of the 1930’s, however, the recovery was some­
what stronger outside the Pacific Coast, principally be­
cause of gains in the southern pine region.
Problems during the war

The war period solved the problem of excess capacity
in the industry but created others. The demand for labor
in other segments of the economy and the withdrawal of
a large number of persons from the civilian labor force
into the armed services reduced the available labor force
for the lumber industry. Nationally, hourly earnings have
been and still are lower in lumber than in other indus­
tries. The Pacific Coast lumber industry, however, shows
higher hourly earnings than the national average for all
manufacturing industries, and the average for all manu­
facturing industries on the Pacific Coast. Nevertheless,
it was difficult to recruit labor for logging and sawmilling.
Reports during the war period and immediately after
covering the lumber industry are replete with references
to the labor supply problem. In most cases the information
available showed a less severe situation for the Pacific
Coast industry. Nevertheless, rapidly rising wage rates
in other industries in urban areas of this region offered
considerable competition.
During the war there was also a large labor turnover,
and the available labor force did not include many young
persons who could have been trained and who would have
been more productive than many of those employed dur­
ing the war. Actually, employment declined during the
war period in Pacific Coast mills. At the same time sup­
plies for equipment and plant were markedly reduced. As
a result, there was some loss in efficiency both capitaland labor-wise. The principal problem, however, was to
obtain adequate labor. The lack of an adequate labor
supply was a major factor in reduced production from
year to year from 1942 through 1945. Priorities for mate­
rials were such that an overwhelming proportion of the
lumber produced went directly into war uses. The small
remainder served approved civilian needs. Obviously a
greater production could have been absorbed. Labor re­




quirements in other industries were more critical, how­
ever, and it appears that wartime controls over the labor
supply were aimed at maintaining a force which could
produce a volume of lumber sufficient to meet the most
urgent demands.
The strong demand for lumber resulted in the liquida­
tion of many readily accessible stands of timber. In some
cases the cutting was not well planned in the sense that
conditions leading to natural reforestation were destroyed
or hampered. The immediate effect, irrespective of the
cutting practices, of this development was to reduce the
stand on easily accessible sites, and to increase the cost
of obtaining logs by forcing cutting in more remote areas.
The marked demand for lumber in the face of a shrink­
ing supply gave a status of marketability to rough green
lumber.
Postwar developments

Some of the problems of the war period carried on into
the postwar years. Labor continued short for some time,
and turnover among employees also was large. Even as
the number of workers increased, the unsettled conditions
of the postwar period, including a lack of equipment, pre­
vented any appreciable rise in efficiency. In late 1945 a
strike in the Pacific Northwest cut production consider­
ably and also affected the output during the first quarter
of 1946. The redwood region experienced a dispute that
was not settled for more than two years, but many work­
ers returned to work before the official termination of the
strike. Production approached a normal level in late 1946
about ten months after the strike started.
The market for rough green lumber, referred to on
pages 15 and 23, continued in the early part of the post­
war period. Even when this market eased, lower grades
of finished lumber in run-of-the-mill sizes still were ac­
ceptable. The pinch came when the market became suffi­
ciently well supplied so that buyers could require lumber
cut to reasonable specifications and having only moderate
moisture content. Many small mills could not compete in
this market and during 1948 and 1949 many of these mills
fell by the wayside. The strong market of 1950 may have
brought some of these mills back into production.
The strong demand for lumber arising from the hous­
ing boom and general prosperity in the United States
resulted in rising lumber output during most of 1946, but
it was not until 1947 that output exceeded that of the
peak war year. In 1948 the industry set an all-time record
of more than 15 billion board feet. In the latter part of
that year, however, the demand for lumber dropped
sharply and production dropped markedly. The decline
continued into 1949, but a marked resurgence in housing
construction along with improvement in the general busi­
ness situation resulted in markedly increased output dur­
ing the second half of the year. For the year as a whole,
production was off only 5 percent from 1948. After a
poor start in early 1950 because of weather, the industry
moved quickly to a record output and continued at high
levels late in the year despite a moderate decline in
demand.
18

PART III— MARKETS AND DEMAND
Marketing Factors

C O N S U M P T IO N O F W E S T E R N L U M B E R A N D A D J U S T E D V A L U E
O F N E W C O N S T R U C T I O N - U N I T E D S T A T E S , 1929-49

produced on the Pacific Coast is consumed in
all 48 states and in many foreign countries. A high
proportion of most Pacific Coast species enters into mar­
kets outside the three Coast states. Though export mar­
kets provide a significant outlet for some Pacific Coast
species, the importance of domestic markets is much
greater. Fluctuations in the domestic economy account for
most of the change in the economic condition of the indus­
try from time to time.

Billions

um ber

L

Geographic distribution of Pacific Coast
lumber consumption

Pacific Coast lumber is used in large quantities in the
Midwest, Middle Atlantic states, and the Southwest, as
well as on the Pacific Coast itself. An analysis of Douglas
fir region straight-car shipments by rail for 19491 empha­
sizes the importance of the midwestern market. The re­
ports submitted by 143 Douglas fir mills show that over
half the straight cars shipped in 1949 went to the Midwest.
Illinois, Iowa, and Minnesota were the largest consuming
states, but other states in that area also received large
shipments. The states along the middle and northern
Atlantic Coast received over 10 percent of the straight
cars included in the reports, but this area accounted for
more than two-thirds of the domestic waterborne ship­
ments originating in Oregon and Washington. In 1949
rail shipments, however, accounted for over 80 percent
of the Douglas fir shipped to domestic markets. Though
southern pine is the leading competitor of Douglas fir,
almost 3 percent of the rail shipments from western Ore­
gon and western Washington terminated in the southeast,
the center of the southern pine industry. About 10 per­
cent of the shipments were to Texas and Oklahoma, re­
ported to be rapidly growing market areas for Doug­
las fir.

Lumber Demand and Supply, quarterly reports.
Value of new construction: U . S. Department of Commerce, Construction
and Construction Materials, Statistical Supplement, M ay 1950.

important factor in the Douglas fir region. During most
of the past 20 years, however, the domestic demand for
lumber for construction, and to a lesser extent for indus­
trial use, has determined the level of activity in the Pacific
Coast lumber industry.
Construction

The demand for Pacific Coast lumber arises from three
sources: construction and industrial use in the United
States and foreign markets. Exports were at one time an

The importance of construction to the industry is ap­
parent from the accompanying chart showing the con­
sumption of western lumber,1 net of exports, and con­
struction activity in the United States adjusted to 1939
prices. The adjustment of construction volume in the
United States to 1939 prices is an attempt to present the
level of building independent of price changes.
The chart shows a rather close relationship between
consumption of western lumber species and the level of
construction in the United States. Several factors, how­
ever, disturb the relationship for the period under review.
First of all, the importance of western lumber in total
lumber consumption in the United States increased dur­
ing most of the 20 years from 1929-1949. Another factor
which had a pronounced effect arises from the pattern of
lumber consumption during the war years. Particularly
in 1943, 1944, and much of 1945, construction was lim­
ited to the most essential projects required for the war
effort. Though consumption of western lumber species
declined during this period, a much larger amount was

1 Distribution of Lumber Shipments, W est Coast Lum berm en’s Association,
December 1949.
2 Very little ponderosa pine or redwood moves by water to domestic mar­
kets.

1 This includes consumption of lumber produced in Arizona, Colorado, Idaho,
Montana, New M exico, U tah, and W yom ing as well as on the Pacific
Coast. The Pacific Coast accounts for over 80 percent of the lumber pro­
duced in the W est.

The importance of this geographic pattern of markets,
which applies to other Pacific Coast species2 as well as to
Douglas fir, involves two different problems. First, the
distance— a minimum of 1500 rail miles before the major
population centers are reached— makes freight costs a
fairly important factor in the final prices of Pacific Coast
lumber. Secondly, the fluctuations within the industry are
closely related to factors in the economic situation of the
nation. The Pacific Coast lumber industry, therefore, re­
acts quickly to important changes in national business
activity, particularly if these fluctuations have a marked
effect on construction.

Sources of Lumber Demand




19

used than would have been expected from the level of
construction. War production and shipments required
unusually large amounts of lumber for packaging and
dunnage in freight cars and ships. The postwar rela­
tionship of consumption to construction has been fairly
close to the prewar pattern.
Industrial use

Some indication of the importance of industrial de­
mand is apparent from the war period. Prior to the war,
when separate consumption data were available for dif­
ferent uses, it was clear that the use of lumber for indus­
trial purposes was declining. The use of western species
for boxing and crating, fabricating industries, and rail­
road maintenance and repair declined relative to total
consumption for 1929 through 1941.1 The proportion of
ponderosa pine used for industrial purposes declined more
than that of Douglas fir or redwood. The substitution of
metals, plywood, hard board, insulation board,2 and other
materials for lumber prevented any substantial expansion
of lumber for industrial use. During the war, an unusually
large demand for lumber in industrial uses arose from the
requirements of war production. In the postwar period,
industrial uses have accounted for about the same ratio
of consumption as before the war.
Construction vs. industrial use

The conclusion that can be drawn from available evi­
dence is that the Pacific Coast lumber industry is depend­
ent in very large measure on the construction industry
for its markets. Even during the war, when industrial
consumption was considerably higher than in the preced­
ing decade or in the postwar period, lumber consumption
was limited by declining construction activity. In the
past, this close tie to the construction industry has ac­
counted for much of the fluctuation in lumber consump­
tion and output.
The role of industrial use of lumber has some impor­
tance too. As nearly as can be estimated, it appears that
about 20 percent of Pacific Coast lumber is used for socalled industrial purposes. About 30 percent of the pine
species, however, is used for industrial purposes. The
postwar period has not offered an adequate test for lum­
ber in competition with other materials for fabrication.
During much of the period, acceptable materials of all
kinds were at least in moderately tight supply so that the
competition between lumber and other commodities for
fabrication was probably reduced to a minimum. Never­
theless, it appears that little further substitution for lum­
ber can now be made in boxing and crating and that the
fabrication and railroad demand will not decline so sharp­
ly relative to total demand as it did in the prewar period.
Even though the demand for industrial use may fluctuate
less widely than that for construction, it will not be of
1 For a detailed examination of this question see : Paradiso, Lewis J., “ H ow
Can Business Analyze its M arkets,” Survey of Current Business, March
1945, pp. 12-13.
2 These items are made from logs or wood fiber and compete with lumber
for both markets and the resource base. To some extent integration of
lumber production with the above items permits greater log utilization.




20

sufficient strength to offset major changes in construc­
tion demand.
Exports of lumber

In 1929, export markets took a substantial part of the
Pacific Coast lumber output. Exports accounted for
roughly 16 percent of total consumption of the Douglas
fir region lumber. About 11 percent of redwood region
lumber was consumed in foreign markets, and the pine
areas disposed of only 1 percent of their products in
export markets. In the two decades since 1929, there has
been an almost continuous decline in foreign demand for
Pacific Coast lumber. In 1949, about 3 percent of the out­
put of the Douglas fir region entered into exports, and less
than 1 percent of the redwood and pine region lumber
was sold abroad.
Changes in rate of exports

Loss of foreign markets during the 1930’s resulted in
large measure from the world-wide depression and in
part from the preferential tariff treatment accorded Cana­
dian lumber in British Empire countries. During the war,
on the other hand, and into the early postwar period, ex­
ports of lumber were strictly controlled. In spite of these
handicaps and the stringent postwar dollar shortage, the
pressure of reconstruction demands in war-torn coun­
tries boosted Douglas fir exports in 1947 to the highest
point since 1931. This was a short-lived spurt, however,
and in 1948 and 1949 less than half the 1947 quantity of
Douglas fir region woods entered into export markets.
In 1929, over 1.6 billion board feet of lumber were ex­
ported from the Douglas fir region. This represented
more than 60 percent of the United States exports of
softwood lumber. The principal species, of course, was
Douglas fir, which accounted for over 90 percent of the
region’s foreign shipments. The Orient, principally Ja­
pan and China, took just under half the foreign sales.
Europe, with the United Kingdom as a leader, and South
America, with Peru and the Argentine as leaders, each
accounted for almost 15 percent. Australia accounted for
about 12 percent, and the remainder went to Africa,
North and Central America, and Oceania.
By 1934, the best export year of the 1930’s except for
1931, exports from the Douglas fir region were down
more than 60 percent from 1929. The Orient remained
the leading buyer, accounting for almost 60 percent of
the exports. Europe was second, and the Netherlands re­
placed the United Kingdom as the leading consumer.
Australia, because of the preference given Canadian lum­
ber, took from the Douglas fir region only about 5 per­
cent of its 1929 volume in 1934. Africa was the only area
which increased its use of lumber from this region.
In 1947, the best export year since 1931, the Orient
took less than one-fourth its 1934 volume. The loss of
the Japanese market and a sharp decline in the China
market were the principal factors. Europe accounted for
more than half the volume exported, and the United
Kingdom was the principal consumer. South America,

the Orient, and Africa each accounted for roughly 10
percent. The subsequent dollar shortage resulted in a
marked decline in exports. In both 1948 and 1949, the
volume was less than half that of 1947. The sharp reduc­
tion in European and Asiatic markets accounted for
most of this change. Even the availability of Marshall
Plan aid failed to stimulate the use of western lumber.
Dollars were devoted to items with higher priorities. The
principal 1947 market, the United Kingdom, took onefourth as much lumber in 1948 and 1949 as it did in the
best postwar year. Other European countries took about
one-fifth. South America used about 75 percent of the
amount it imported in 1947, and Central America’s vol­
ume declined very little. The Orient dropped off 60 per­
cent and Australia and Africa about 20 percent.
Lumber imports

Lumber imports, which have ranged between less than
one-half and two billion board feet annually, have had a
varying role for different regions of the United States
lumber industry. Reference to one region alone, therefore,
would obscure the position of lumber imports in national
lumber consumption. About 95 percent of all softwood
lumber imports come from Canada. In most cases, the
species imported represent extensions of forests now or
formerly existing in the United States. Imports of spruce
particularly, and pine to some extent, from Eastern Ca­
nadian provinces into the East and Midwest represent
types of lumber not as readily available in the United
States as in Canada. Depletion of forests of comparable
species has resulted in reliance of the East and Midwest
on Canada for their supply of spruce and to a lesser de­
gree for northern white pine. These species, however, do
not compete strongly and directly with Pacific Coast spe­
cies. Douglas fir and western hemlock from British Co­
lumbia compete in a number of United States markets
with Pacific Coast species. Douglas fir accounts for all but
a small portion of the volume. During the late 1920’s, be­
tween 400 and 500 million board feet annually were
imported from British Columbia. The lumber is similar
in most respects to that of the Douglas fir region of the
Pacific Coast and hence a very close competitor.
Prewar behavior of
imports

The onset of the depression and tariff developments cut
sharply into the imports of Douglas fir and western hem­
lock from British Columbia. From 1913 to 1930, lumber
had been on the free list, but the tariff act of 1930 placed
a duty of one dollar per thousand board feet on lumber.
This alone had little effect, but in June 1932 an excise
tax of $3 was added to the duty. This amounted to an
increase in cost to the buyers of more than 20 percent of
the foreign value.1The combined impact of reduced build­
ing activity and the tariff burden cut imports in 1934
from British Columbia to 1 percent of the 1925-1929
average. Imports of other species from Canada, particu1 Softwood Lumber, U . S. Tariff Commission, W ashington, D . C., 1947, pp.
68-69.




21

larly spruce, were much less affected, reflecting the lack
of substitute species in the United States.
Subsequent agreements with Canada in 1936 and 1939
reduced the tariff and excise to $2 per thousand board
feet. The first agreement set a quota of 250 million board
feet on Douglas fir and hemlock, but this was dropped in
1939. After 1936, the combined tariff and excise dropped
to well under 10 percent of the foreign value of lumber.
The volume of these species imported, however, remained
small, not over 170 million board feet in any year prior to
1941. The taxes levied against the import of Douglas
fir and hemlock, combined with the absence of a substan­
tial expansion in building, held imports down.
World W ar II and lumber imports

In 1941 and 1942, both defense and private building
raised consumption of lumber sharply, and imports of
Douglas fir and hemlock reached 500 million board feet
a year. Douglas fir prices had been about one-third higher
in 1940 than in 1939, and in 1942 they were almost twothirds above their 1939 levels. The 1941-1942 period was
the first in which imports of Douglas fir exceeded ex­
ports. Yet, these imports accounted for only 5 percent
of Douglas fir consumption. After 1942, the impact of
lumber requirements in Canada and other areas of the
Empire resulted in a sharp reduction of imports from
Canada. Most of the production in British Columbia—
75 percent— was allocated to Canadian and United King­
dom requirements. United States imports of Douglas fir
and hemlock varied between 125 million board feet and
160 million board feet from 1943 through 1947, when
restrictions were removed.
Imports since the war

In October 1946, the President issued a proclamation
based on emergency powers granted in the Tariff Act of
1930 which, in effect, resulted in freeing the major species
of imported softwood lumber from duties and excises.
This proclamation remained in effect until August 1947,
but had little influence on imports from Canada.
The rising prices for lumber in the United States dur­
ing the first half of 1948 and increasing production in
British Columbia resulted in a resumption of large im­
ports from that area. Almost 500 million board feet were
imported, and in 1949 about 600 million board feet were
imported. In early 1950, the rate of imports was even
larger than in 1949, but at the same time shipments by
Pacific Coast mills exceeded production by a wide margin.
Much concern has been expressed about the competi­
tion of British Columbia mills in American markets, par­
ticularly East Coast markets where most of the British
Columbia imports enter this country. The Canadian mills
have some cost advantage arising out of differences in
production costs and in part from exchange rates.1 The
combined duty and excise tax since early 1948 has been
1 In October 1950, the Canadian dollar was freed from its official rate and
the value of the currency was allowed to seek its own level in the foreign
exchange market. A s a result, its value rose to about 95 cents from 90
cents. This reduces in part the exchange advantage of Canadian lumber
producers.

$1 per thousand board feet, quite nominal in terms of the
prices applicable to Douglas fir. Yet the fact cannot be
escaped that even in the past two years the level of im­
ports from British Columbia has been related to the
availability of lumber from the Pacific Coast and, except
for early 1949, to a very high lumber demand.
In addition to the import of Douglas fir, in recent
years there has grown up trade with Mexico in ponderosa
pine. Prior to the war, negligible amounts of pine were
imported from Mexico. Starting in 1942, the imports
began to increase and reached 160 million board feet in
1946. Imports at about the same level as 1946 have con­
tinued since that time. These imports, however, are a
small fraction of the total ponderosa pine consumption
and represent an even smaller part of total western pine
species. It appears from various reports that this lumber
would not be a serious competitor in a weak lumber mar­
ket. Its quality, though good, is below that of pon­
derosa pine from the western United States. The stands
in Mexico are not as dense or of as good quality as those
in this country. In a buyers’ market, Mexican producers
might not be able to produce quality lumber at costs
which would permit close competition with most United
States producers.

ginal mills in the industry would be confronted by a sub­
stantial handicap in distant markets.
So far this has not been too apparent, particularly in
recent years when the demand for lumber has been strong.
A large part of the cutting so far has been on good sites
and in virgin timber. This has been a favorable factor in
costs, but its importance has been declining. As the indus­
try continues to reach out to stands more remote from
centers of operation and increases harvests of second
growth, which is smaller in size than virgin timber, its
production costs are likely to be affected unfavorably.
Acting to offset these factors is the availability of timber.
The Pacific Coast has a large proportion of the available
timber in the United States and consumers must look to
the Pacific Coast for a major portion of their supplies.

Prices

Freight costs and markets

In examining the domestic markets served by the Pa­
cific Coast lumber industry, the geographic scope of the
area pointed up the transportation problems involved. A
large part of the shipments of Pacific Coast lumber move
by rail to other parts of the nation. Mills on or near the
coast in the Douglas fir region can and do ship substan­
tial quantities by water to the Atlantic Coast. Neverthe­
less, rail freight carries most of the shipments to domes­
tic markets from the coast as a whole.
Pacific Coast lumber to a very large extent is sold on
the basis of a price at point of delivery, though some few
purchases are made f.o.b. the mill. The West Coast Lum­
bermen’s Association, for example, publishes figures on
net realizations from lumber sales to eliminate the lack
of comparability resulting from selling in markets with
different freight rates. The freight rate from Portland,
Oregon, to Chicago per thousand board feet of Douglas fir
green is about $28 to $30 per thousand board feet. The per
hundred pound rate from Spokane, Washington, is only
slightly less, but because ponderosa pine is seasoned be­
fore shipment the cost per thousand board feet is about
20 percent less than for Douglas fir. In competition with
southern yellow pine, Pacific Coast species suffer a con­
siderable freight disadvantage ranging from $10 to $12
per thousand board feet. The ability of Pacific Coast
species to compete in distant markets arises out of the
quality of the lumber, the availability of timber in other
parts of the country, and the ability of the industry to
be competitive through high productivity. Nevertheless,
the freight-rate problem is serious. The Pacific Coast
lumber industry must take into account this freight disad­
vantage as if it constituted a fixed item of cost. If the
demand for lumber should drop considerably, the mar­




22

That lumber prices have increased substantially in the
past 20 years probably needs no reiteration. The extent
and pattern of the increase and the forces underlying it
are significant. The duration of downward or upward
movements of lumber prices and their turning points have
corresponded to a fair extent with the movements of
wholesale prices generally. This is understandable, for
changes in the general price situation are bound to be
related in substantial measure to business conditions,
which in turn have their impact on construction and lum­
ber prices. Fluctuations in construction activity have va­
ried from those of business generally, but a fair degree of
similarity has prevailed.
Lumber prices fluctuate widely

Though the direction of changes in prices generally and
the price of lumber correspond reasonably well, particu­
larly from year to year, lumber prices have increased
considerably more than prices generally in the past 20
years. The Bureau of Labor Statistics average wholesale
price index of all commodities went up about 63 percent
between 1929 and 1949, but lumber prices went up more
than 200 percent.
To a very limited extent it may be argued that this
greater increase in lumber prices is due to the fact that
lumber prices are more flexible or sensitive to changes in
market conditions than prices generally. Some evidence
is available to support this position. For example, between
1929 and 1932, and again between 1937 and 1938, lumber
prices declined more, proportionately, than prices gen­
erally. On the upswing, they gained more also. In the
postwar period, lumber prices have fluctuated more
widely than other prices. Yet these differences alone do
not tell the whole story.
Lumber prices increased more than
other commodifies

Aside from the wider cyclical fluctuation, there has
been a steady and unmistakable tendency for lumber to
become more valuable relative to other commodities. In
1939, for example, average wholesale prices were almost

ponderosa pine about the same amount. A continuous
price series for redwood is not available for the entire
period, and the gain for that species has probably been
smaller but not significantly different from that of fir
and pine. The relative increase in consumption of Pacific
Coast lumber compared to all lumber indicates to some
extent the cause of the greater price increase of Pacific
Coast lumber. The greater reliance on Pacific Coast lum­
ber to meet the lumber requirements of the nation has
given the industry a better competitive position.

I N D E X O F W H O L E S A L E P R IC E S — L U M B E R A N D A L L
C O M M O D I T IE S , 1929-49
Percent

Long run price trend

a fifth lower than in 1929, but lumber prices were almost
the same as in 1929. By 1940, wholesale prices generally
were still about one-sixth off from 1929, but lumber
prices were almost a tenth higher. The upward pressure
on lumber prices relative to other commodities in the war
and postwar period has continued.
In large measure the secular rise in lumber prices re­
sults from the reduction of timber in the most accessible
stands. This has made existing timber stands more valu­
able and stumpage and logs more costly. The increased
use of logs for plywood, paper, and other products has
also raised the costs of logs. Added to this has been in­
creasing labor and equipment costs. The increasing reli­
ance on sustained yield management and the blocking up
of private timber in the hands of large operators will act
as a restraint on cutting of stumpage at a rate faster than
it can be grown. The net effect of the several factors has
been to place a rising floor under lumber prices. At the
same time, the demand for lumber relative to the potential
supply in terms of accessible merchantable timber has
also been rising. These factors have been the primary
force behind the secular rise in timber prices.
No doubt, the general upward swing in economic activ­
ity starting in the mid-1930’s and accelerating in the
1940’s may have permitted lumber prices to rise more
than other prices because of their greater sensitivity to
changes in demand. It might be assumed, therefore, that
in an economic decline of long duration, lumber prices
would fall more than other prices. This is a real possi­
bility. It appears, however, that they would not fall as
rapidly as they have risen, and there is good reason to
believe that relative to prices generally they would con­
tinue to be higher than in 1929 or even 1939. The reduc­
tion in the timber stand may act as a barrier to very steep
prolonged declines in lumber prices.
Pacific Coast lumber prices have risen
more rapidly

Pacific Coast lumber prices have shown an even greater
increase over the period from 1929 to 1939 than lumber
generally. Douglas fir gained about 230 percent and




23

The increasing value of lumber, particularly Pacific
Coast lumber, is an important factor in appraising the
future of the lumber industry. It can be expected that
lumber prices will continue to fluctuate more widely than
prices generally. Past experience has indicated that the
price of lumber has greater cyclical sensitivity than prices
generally. At the same time, however, the forces making
for the secular increase in lumber prices relative to other
prices show no signs of abating. Even if lumber consump­
tion were not to increase, the decline in the timber stand
which is expected to continue for at least some years will
have a marked effect on lumber prices. Stumpage can no
longer be regarded as an almost free commodity; it is
being held more and more by owners with long-range
programs. There is increasing intention on the part of
owners to harvest stands on a planned basis. This will
prevent the excessive liquidation that took place in the
past. At the same time, the forestry practices these own­
ers follow will result in good crops of second growth tim­
ber, but there is little likelihood that even under the most
favorable conditions the supply of timber will be such that
its value relative to other goods will decline severely. In
fact, quite the reverse appears to be likely. Even with
good crops of second growth, timber will be more scarce
relative to demand than in the past. In any event these
practices are apt to require a price for stumpage which
reflects the costs of growing timber as a crop and in time
will affect the level of lumber prices. No doubt, substi­
tutes for lumber will continue to be developed, but it
appears that lumber will continue to be widely used.
Recent problems

During W orld War II, consumption of lumber was
limited by a system of priorities and allocations. Despite
these limitations, however, the industry’s problem was not
in finding markets, but in maintaining production to meet
demand. Demand for lumber during most of World War
II far exceeded the available supplies of top-grade lum­
ber. Green, rough lumber and common grades found a
receptive market. Even after the termination of hostilities,
demand continued strong, and the industry’s problem was
one of output rather than marketing.
Lumber prices reached an all-time high in the summer
of 1948 and then declined for 13 months. The response of
various species differed somewhat from the average pat­
tern. Douglas fir dropped about 25 percent, ponderosa
pine about 10 percent, and other western pine about 20

percent, but redwood quotations reported by the Bureau
of Labor Statistics did not change.
More significant than the price decline was the shake­
out of marginal mills. Though specific evidence is difficult
to obtain, relatively few failures occurred among these
mills. As the supply of lumber relative to demand eased,
buyers became more selective. Mills which were unable
to supply the grades and sizes required by the market were
forced to close down. Mostly the small mills were involved
and their exit seemed rather orderly.
Underlying this shift in demand one can distinguish
the decline in construction which occurred during late
1948 and early 1949. This slackening in the volume of
construction occurred during a period of decline in over­
all business activity which was particularly evident in in­
dustrial production and which caused a further reduction
in the demand for lumber. In the second half of 1949,
the recovery of construction, which actually started in
the second quarter of the year, became quite apparent and
the demand for lumber strengthened considerably. In
fact, spring buying of lumber, though below the 1948
level, led some observers to remark that the increase was
unrealistic. In retrospect, the level of orders was prob­
ably too low and there was a sharp increase in orders dur­
ing the late summer that carried through to the end of
the year for Douglas fir and redwood, but tapered off
for pine.
The developments in this period again illustrated the
importance of construction in the demand for lumber.
The events also pointed up the vulnerability of small
mills in a market where the demand-supply relationship
required a product of high quality. Sharp fluctuations in
lumber prices characterized the period, but even at the
low point lumber had lost little ground relative to the
value of all commodities. In late 1949, lumber prices
started up, while wholesale prices generally continued
down until early 1950.
The unusually large volume of construction, particu­
larly housing, combined with increasing industrial out­
put resulted in a strong demand for lumber during early
1950. Prices rose steadily through April and gained al­
most five percent in the next month. The impact of the
Korean situation, combined with a car shortage in the
Douglas fir region and intense pressure from the con­
struction industry, forced prices up more than 20 percent
by September. The Douglas fir market broke early in that
month and common grades dropped sharply until late
October when they stabilized at a level slightly above the
pre-Korean price. Ponderosa pine prices rose more mod­
erately and continued to gain through October when they
eased off moderately. In December, however, all mar­
kets appeared steady and some items gained slightly.

Inventories
The market conditions of World W ar II and subse­
quent years had a marked effect on inventory practices
in the several lumber producing regions of the Pacific
Coast. At the end of 1949, the industry had not yet re­




24

turned to carrying stocks comparable to those of prewar
years. This is evident whether one takes the minimum
stocks carried prewar or an average of some prewar year.
Douglas fir inventories are usually small relative
to shipments

In 1929, a year of high activity, the mills in the Doug­
las fir area carried stocks equal to 16 percent of annual
consumption or roughly two months’ supply. This was
the smallest supply carried by any of the major segments
of the Pacific Coast industry. This difference in inventory
practices continued through the 1930’s and 1940’s. It
arose out of the fact that a high proportion of Douglas fir
is sold green or, as the trade describes it, close to the saw.
In addition, the Douglas fir mills, more so than other
mills, cut against orders, although a fair amount of their
business is handled out of available stocks.
Pine and redwood operations require large inventories

The pine region in 1929 carried about five months’
supply. In the pine region, air and kiln drying is prac­
ticed for a larger percentage of output than in the Douglas
fir region. Though ponderosa pine does not shrink se­
verely, it is used for cabinet work and other finished
surfaces rather than for construction members. In the
former uses almost no shrinkage can be tolerated. The
redwood area, in 1929, held about nine to ten months’
supply of lumber. The high inventories relative to ship­
ments and consumption arise out of the drying practices
and the variety of products carried. A considerable
amount of pre-seasoning of redwood has been and still is
practiced before placing the wood in kilns. The industry
operates on the basis of large inventories in order to
supply the demands of the market for a well-seasoned
product.
In the late 1930’s there was some reduction of inven­
tories. In 1940, when the effects of stepped-up demand
became apparent, Douglas fir mills carried about a
month’s supply, pine mills about three months’ supply,
and redwood mills about six months’ supply. During
W orld War II, stocks carried were very small; even red­
wood producers carried no more than two months’ supply
and frequently less.
Inventories have not grov/n to
prewar size

The strong postwar demand has prevented any signifi­
cant rebuilding of stocks. Douglas fir reached a peak in
stocks in late 1948, but this amounted roughly to only
one month’s supply. Pine and redwood producers reached
their peaks in 1949' with about three months’ supply.
The inventories of Pacific Coast lumber have showTn
only a moderate tendency to increase since the end of the
war. It might be reasonable to expect that if economic
activity, particularly construction, should moderate at
some future time, inventories relative to sales might in­
crease. It seems somewhat unlikely that inventories com­
parable to those of the 1920’s or middle 1930’s will be
carried again. The redwood picture is somewhat obscured

by the large increase in cutting of Douglas fir in the
coastal area of northern California. Somewhat lower in­
ventories for redwood alone are indicated, however. Many
mills catering to markets which will take a high propor­
tion of green lumber have opened. At the same time, mills
supplying kiln dried lumber have increased their kiln
sizes and improved their techniques. Inasmuch as the
Douglas fir industry has always been sensitive to accu­
mulating inventories, it may hold stocks down to less
than two months’ supply unless a very serious adverse
market movement occurs in a period so short that stocks
cannot be reduced. The pine industry, as well as the red­
wood industry, is less sensitive to accumulating stocks
because of the greater demand for dry lumber in its mar­
kets. Nevertheless, it does not seem likely that the indus­
try will consciously increase stocks relative to shipments
sharply.

At the same time, cutting practices and the lack of care
of forest land in the past have reduced the stand of timber
in some areas of the Pacific Coast so that logging and
lumbering operations will probably decline. The state of
Washington has had a declining annual cut of lumber for
these reasons for more than ten years. Nevertheless,
lumber has continued to be the leading industry in that
state, accounting for about 20 percent of the value added
by manufacture. In Oregon, the lumber industry pro­
vides 40 percent of the value added by manufacture, and
in California about 4 percent.
The outstanding development in the lumber industry
during the past 20 years has been the increase in value of
lumber relative to other commodities. This has resulted
in large measure from a reduction in accessible timber
supplies. The increase in the value of lumber relative to
other goods has not resulted, however, in pricing lumber
out of its principal markets. Lumber continues to be a
leading material in many types of building construction.
Substitutes for lumber in industrial uses did appear dur­
ing the 1930’s. Their appearance was not based on price
alone, however, but more on the development of materials
better adapted to certain industrial uses than lumber. The
substitution of other materials for lumber in industrial
use has not been as extensive in recent years as it was
during the 1930’s.
The increased value of lumber has allowed producers a
larger absolute margin of profit in recent years, if not a
percentage margin. This has contributed to a greater de­
gree of stability in the industry. Mills with timber stands
acquired before W orld W ar II have been and will con­
tinue to be in a particularly favorable position.
It must be remembered, however, that lumber prices
fluctuate widely as demand changes. Though the fluctua­
tions, because of the reduction in timber supply in the
past and a probable moderate decline for some time into
the future, may not seriously reduce the value of lumber
relative to other goods, they may be of sufficient size to
affect marginal mills. The industry will, therefore, con­
tinue to witness the exit of marginal mills in times of de­
clining prices and their return when demand rises sharply.
Considerable possibility exists, however, that the pro­
portion of mills so affected will decline as small holdings
of timber are cut over. The level of lumber demand and
the fluctuations in lumber production will continue to
follow changes in construction rather closely.

Conclusions
The Pacific Coast lumber industry is backed by a very
large resource base. More than half the saw timber re­
maining in the United States is to be found in the forests
of the Twelfth Federal Reserve District which contains,
however, little more than an eighth of the country’s total
forest acreage. The continuing decline of quality saw tim­
ber in most areas of the nation has shifted an increasing
share of national lumber consumption to Pacific Coast
lumber products. Some further increase in the importance
of Pacific Coast lumber may occur, but the possibility of
larger output in the Southern pine region where secondgrowth forests are reaching merchantable size may limit
this expansion. Nevertheless, the Pacific Coast will con­
tinue for many years to produce 40 percent or more of
the national lumber supply.
Maintaining the resource base appears to be one of the
key problems of the industry. In recent years, improved
forestry practices have become considerably more wide­
spread than a decade or two ago. The exhaustion of tim­
ber stands in many areas of the United States, including
some parts of the Pacific Coast, has increased the value of
standing timber several fold. Growing timber is continu­
ing to be more and more an attractive investment and
scientific culture and harvesting of trees has become eco­
nomically feasible. The continued growth and extension
of good forestry practices will offer further attractive
investment opportunities.




♦

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