present knowledge of forest ecosystem carbon in russia and problems of its improving by vladislav...
TRANSCRIPT
PRESENT KNOWLEDGEOF FOREST ECOSYSTEM CARBON IN RUSSIA
AND PROBLEMS OF ITS IMPROVING
byVladislav Alexeyev
Maxim MarkovBoris Rybinin
Michael Tarasov
Pavel Zimnitsky
DISTRIBUTION OF TERRESTRIAL AREAS OF RUSSIA BY CATEGORIES OF LANDS, (State Report…, 1995)
Category of land
Lands under management of different agencies, million ha Total
Forestry Agricultural Towns & Industry
Ecology Reservemillion
ha%
Forested area 681,1 114,3 7,3 13,6 7,0 823,3 48,1
Agricultural lands, including croplands, ploughed fields and pastures for cattle & deers
63,0 439,8 26,3 1,4 19,5 550,0 32,2
Peatlands 78,6 13,2 1,9 1,9 11,2 107,5 6,3
Waters (rivers, lakes) 13,1 19,3 1,7 1,5 17,9 72,0 4,2
Towns & villages 1,7 3,5 7,1 0,0 0,1 12,4 0,7
Damaged lands 0,1 0,3 0,7 0,0 0,1 1,2 0,1
Other lands 6,2 53,2 9,7 10,0 46,1 125,3 7,3
Total843,8 656,8 56,3 28,9 104,8 1709,9 100,0
49,3 38,4 3,3 1,7 6,1 100,0
Table 1.
AGE CHANGING OF PHYTOMASS IN FOREST ECOSYSTEMS OF SCOTS PINE IN SOUTHERN TAIGA OF EUROPEAN RUSSIA.
LENINGRAD REGION, TREE STAND OF III SITE QUALITY CLASS (after Usoltsev,2002)
Table 2a.
Age of treesGrowing
stock, m3/ha
Phytomass of stand, t/ha Other vegetation
(understory)t/ha
Boles (with bark)
Leaves/needles
Branches Roots Stand, total
20 46 21,2 6,72 7,2 7,1 42,22 3,26
30 78 36,1 5,98 7,2 10,5 59,78 3,70
40 111 51,6 5,54 7,5 13,5 78,14 3,92
50 150 69,9 5,76 9,0 17,6 102,26 4,30
60 188 87,9 5,82 10,2 21,3 125,22 4,40
70 224 105,0 5,89 11,9 25,2 147,99 4,08
80 257 120,8 5,99 12,5 27,8 167,09 5,13
90 287 135,3 6,18 14,0 31,0 186,48 5,52
100 311 147,1 6,20 14,7 33,3 201,30 6,00
110 330 156,6 6,17 15,3 35,1 213,17 6,33
120 347 165,2 6,09 15,7 36,8 223,79 6,47
130 360 171,9 6,06 16,0 38,0 231,96 7,03
140 367 175,9 5,91 16,1 38,6 236,51 7,20
FRACTIONAL DISTRIBUTION OF PHYTOMASS IN FOREST ECOSYSTEMS OF SCOTS PINE IN SOUTHERN TAIGA OF EUROPEAN RUSSIA.
LENINGRAD REGION, TREE STAND OF III SITE QUALITY CLASS
Table 2b.
Age of treesGrowing
stock, m3/ha
Phytomass of stand, % Other vegetation
(understory)% of stand
Boles (with bark)
Leaves/needles
Branches Roots Stand, total
20 46 50,2 15,9 17,1 16,8 100,0 7,7
30 78 60,4 10,0 12,0 17,6 100,0 6,2
40 111 66,0 7,1 9,6 17,3 100,0 5,0
50 150 68,4 5,6 8,8 17,2 100,0 4,2
60 188 70,2 4,6 8,1 17,0 100,0 3,5
70 224 71,0 4,0 8,0 17,0 100,0 2,8
80 257 72,3 3,6 7,5 16,6 100,0 3,1
90 287 72,6 3,3 7,5 16,6 100,0 3,0
100 311 73,1 3,1 7,3 16,5 100,0 3,0
110 330 73,5 2,9 7,2 16,5 100,0 3,0
120 347 73,8 2,7 7,0 16,4 100,0 2,9
130 360 74,1 2,6 6,9 16,4 100,0 3,0
140 367 74,4 2,5 6,8 16,3 100,0 3,0
COEFFICIENTS FOR CONVERTING OF SCOTS PINE GROWING STOCK VOLUME (m3/ha) IN ECOSYSTEMS OF SOUTHERN TAIGA OF EUROPEAN RUSSIA TO PHYTOMASS (t/ha)
LENINGRAD REGION, TREE STAND OF III SITE QUALITY CLASS
Table 2c.
Age of treesGrowing
stock, m3/ha
Coefficients for converting of growing stock (m3/ha)to phytomass (t/ha)
Other vegetation
(understory)t/haBoles
(with bark)Leaves
/needlesBranches Roots
Total tree stand
20 46 0,461 0,146 0,157 0,154 0,918 0,168
30 78 0,463 0,077 0,092 0,135 0,766 0,079
40 111 0,465 0,050 0,068 0,122 0,704 0,045
50 150 0,466 0,038 0,060 0,117 0,682 0,028
60 188 0,468 0,031 0,054 0,113 0,666 0,019
70 224 0,469 0,026 0,053 0,113 0,661 0,012
80 257 0,470 0,023 0,049 0,108 0,650 0,012
90 287 0,471 0,022 0,049 0,108 0,650 0,010
100 311 0,473 0,020 0,047 0,107 0,647 0,010
110 330 0,475 0,019 0,046 0,106 0,646 0,009
120 347 0,476 0,018 0,045 0,106 0,645 0,008
130 360 0,478 0,017 0,044 0,106 0,644 0,008
140 367 0,479 0,016 0,044 0,105 0,644 0,008
COEFFICIENTS FOR CONVERTING OF SCOTS PINE GROWING STOCK (m3/ha) IN ECOSYSTEMS OF SOUTHERN TAIGA OF EUROPEAN RUSSIA TO CARBON (t/ha)
LENINGRAD REGION, TREE STAND OF III SITE QUALITY CLASS
Table 2d.
Age of treesGrowing
stock, m3/ha
Coefficients for converting of growing stock (m3/ha)to carbon (t/ha)
Other vegetation
(understory)t/haBoles
(with bark)Leaves
/needlesBranches Roots
Total tree stand
20 46 0,230 0,073 0,078 0,077 0,459 0,084
30 78 0,231 0,038 0,046 0,067 0,383 0,040
40 111 0,232 0,025 0,034 0,061 0,352 0,023
50 150 0,233 0,019 0,030 0,059 0,341 0,014
60 188 0,234 0,015 0,027 0,057 0,333 0,009
70 224 0,234 0,013 0,027 0,056 0,330 0,006
80 257 0,235 0,012 0,024 0,054 0,325 0,006
90 287 0,236 0,011 0,024 0,054 0,325 0,005
100 311 0,236 0,010 0,024 0,054 0,324 0,005
110 330 0,237 0,009 0,023 0,053 0,323 0,004
120 347 0,238 0,009 0,023 0,053 0,322 0,004
130 360 0,239 0,008 0,022 0,053 0,322 0,004
140 367 0,240 0,008 0,022 0,053 0,322 0,004
COEFFICIENTS FOR CONVERSION THE VOLUME OF GROWING STOCK TO STAND PHYTOMASS FOR MAJOR TREE SPECIES IN ECOREGIONS OF RUSSIA
(1994, extraction)
Table 2e.
Dominant tree species
Age-class group
Young stands Middle-aged
MaturingMature
/overmatureClass Ia Class IIb
European Part of Russia Northern Taiga
Scots pine 0.888 0.696 0.694 0.675 0.621
Spruce 1.144 0.750 0.736 0.732 0.684
Birch 1.106 0.840 0.834 0.894 0.864
Middle Taiga
Scots pine 0.696 0.556 0.568 0.612 0.586
Spruce 0.880 0.686 0.678 0.686 0.649
Birch 1.034 0.744 0.750 0.806 0.778
Aspen 0.786 0.510 0.540 0.556 0.496
Southern Taiga and Forest Steppe
Scots pine 0.696 0.556 0.568 0.612 0.586
Spruce 0.830 0.668 0.608 0.670 0.632
Birch 1.034 0.736 0.750 0.802 0.780
Aspen 0.786 0.540 0.540 0.558 0.496
Coefficients for conversion of growing stock volume (m3) to carbon (t) European part of Russia
(2004, Extraction)
Table 3.
Dominant species&
Ecoregions
Age of tree stands
10 20 30 40 60 80 100 120 140 160 180
Pinus sylvestris
Boreal zone
Northern taiga 0,728 0,535 0,439 0,401 0,370 0,358 0,352 0,349 0,346 0,345 0,344
Middle taiga 0,562 0,436 0,375 0,351 0,333 0,326 0,323 0,321 0,320 0,319 0,319
Southern taiga
0,446 0,369 0,331 0,318 0,307 0,303 0,302 0,301 0,300 0,300 0,299
Mixed forests 0,367 0,325 0,303 0,295 0,289 0,287 0,286 0,286 0,286 0,285 0,285
Zone of deciduous hardwood forests
0,334 0,297 0,285 0,281 0,278 0,277 0,276 0,276 0,276 0,276 0,276
Picea
Boreal zone
Northern taiga 0,762 0,590 0,503 0,456 0,411 0,387 0,370 0,359 0,352 0,346 0,341
Middle taiga 0,700 0,535 0,455 0,414 0,374 0,354 0,342 0,334 0,328 0,324 0,320
Southern taiga & Mixed forests
0,658 0,498 0,423 0,386 0,350 0,333 0,323 0,317 0,313 0,309 0,306
Detailed coefficients for transmission of growing stock volume (m3) to carbon (t)(Extraction for Scots pine forests in middle taiga of European Russia )
Table 4.
Humidity of forest
ecosystems
Relative density of
stands
Age-class group
Young stands Middle-aged
Maturing Mature Overmatur
eClass I Class II
Excessively drained sites
0,5 & < 0,481 0,396 0,378 0,371 0,368 0,366
0,6 - 0,8 0,436 0,351 0,333 0,326 0,323 0,321
0,9 & > 0,411 0,326 0,308 0,301 0,298 0,296
Well and moderately well drained sites
0,5 & < 0,481 0,396 0,378 0,371 0,368 0,366
0,6 - 0,8 0,436 0,351 0,333 0,326 0,323 0,321
0,9 & > 0,411 0,326 0,308 0,301 0,298 0,296
Poorly drained sites
0,5 & < 0,481 0,396 0,378 0,371 0,368 0,366
0,6 - 0,8 0,436 0,351 0,333 0,326 0,323 0,321
0,9 & > 0,411 0,326 0,308 0,301 0,298 0,296
CONVERSION COEFFICIENTS FOR TRANSFORMING VOLUME OF COARSE WOODY DEBRIS (CWD, m3/ha)
OF FOREST ECOSYSTEMS IN EUROPEAN RUSSIA TO CARBON (t/ha) [after clearcutting]
Table 5.
Dominant tree species
Young stands Middle-aged
Maturing Mature Over-matureClass I Class II
Northern Taiga
Scots pine 1,05 0,46 0,37 0,21 0,17 0,19
Spruce 1,23 0,56 0,21 0,16 0,11 0,13
Birch 1,55 0,64 0,19 0,04 0,02 0,04
Middle Taiga
Scots pine 1,23 0,49 0,24 0,18 0,10 0,12
Spruce 1,26 0,62 0,26 0,15 0,05 0,07
Birch 1,14 0,62 0,23 0,08 0,04 0,10
Aspen 1,42 0,44 0,21 0,09 0,06 0,09
Southern Taiga
Scots pine 1,48 0,20 0,17 0,09 0,07 0,10
Spruce 1,39 0,24 0,09 0,05 0,04 0,07
Birch 1,21 0,48 0,15 0,09 0,05 0,07
Aspen 1,78 0,69 0,14 0,08 0,05 0,06
Carbon (Mt) of components in Scots pine forest ecosystems of Leningrad Oblast(after clearcutting)
Table 6.
Components of forest ecosystem
Age class group of stands Total
Young I class
Young II class
Middle- aged
PrematureMature &
overmature
Methodology-1994
Forest vegetation:
Tree stand 2,01 4,79 25,27 23,55 21,28 76,9
Understory 3,4
Methodology-2004
Forest vegetation:
Tree stand 2,01 4,79 25,27 23,55 21,28 76,9
Understory 0,1 0,2 0,9 1,0 0,9 3,1
CWD on the ground 3,0 0,96 4,30 2,12 1,81 12,19
CWD of roots
Litter 1,77 2,3 9,33 7,73 12,7 33,83
Soil 12,86 8,39 22,65 16,92 19,88 80,7
Total 20,22 16,67 62,23 50,86 57,04 207,02
CARBON STORAGE AND CARBON DENSITY OF FOREST ECOSYSTEMS IN GEOGRAPHICAL ECOREGIONS OF RUSSIA
Table 7.
EcoregionEuropean Russia
Asian RussiaTotal
Western Siberia Middle SiberiaEastern Siberia
and Yakutia Far East
Gt t/ha Gt t/ha Gt t/ha Gt t/ha Gt t/ha Gt t/ha
Plains
Forest tundra zone 0,35 103 1,83 149 3,31 125 - - - - 5,4 130
Boreal zone
Northern taiga subzone
4,93 137 3,75 181 3,78 113 - - - - 12,46 138
Middle taiga 5,1 137 7,86 191 4,71 193 10,11 149 - - 27,78 163
Southern taiga subzone 4,22 118 6,14 203 5,77 230 - - - - 16,13 177
Mixed forests 1,86 142 - - - - - - - - 1,86 142
Forest steppe zone 1,49 156 1,68 246 1,11 281 - - 1,18 204 5,46 208
Steppe zone 0,22 131 0,27 147 - - - - - - 0,49 136
Desert zone 0,02 136 - - - - - - - - 0,02 136
Subtotal 18,19 21,53 18,68 10,11 1,18 69,69
Mountains
Subarctic zone 0,04 123 0,72 88 3,91 99 1,67 91 6,31 95
Boreal zone 1,01 125 3,94 171 7,73 123 9,87 156 22,55 143
Subboreal zone (Ural) 0,86 148 7,92 174 4,64 174 4,8 177 18,22 168
Subboreal (Caucasus) 0,79 239 0,79 239
Subarid zone 0,37 160 0,37 160
Subtotal 2,67 12,95 16,28 16,34 48,24
Total 20,86 21,53 31,63 26,39 17,52 117,93
middle-aged maturing
mature and overmature young stands
5
15
25
35
45
55
65
12.05.1905
Year of forest account
A
vera
ge d
ensi
ty C
, t/h
a
1961 1966 1973 1978 1983 1988 1993 1998
Dynamic of average carbon density in deciduous softwood stands of European Russia by age groups:
Dynamic of average carbon density in coniferous stands of European Russia by age groups:
middle-aged maturing
mature and overmature young stands
10
20
30
40
50
60
70
12.05.1905
Year of forest account
Ave
rage
den
sity
C, t
/ha
1961 1966 1973 1978 1983 1988 1993 1998
Conclusion
1. The Government of Russia did not take attention for research of the National terrestrial carbon up to October-2004.
2. Russia has no the National program for carbon research.
3. Developing of carbon research is restricted by (1) absence of funding for work and (2) not available for scientists of the State Forest Account-2003
4. Study and estimate of storage and dynamics of carbon in ecosystems of Russia is carry out by small separated groups of scientists (inside and outside of that country). Funding of these researchers is providing mainly for account of different grants.
5. Carbon storage of forest stands of Russia (in the National scale and for different geographical and administrative regions) is estimated to present time with error of ±10-20%.
6. Methodology of carbon estimation for forest ecosystems are in developing. The results of the first approximation was published by Alexeyev an Birdsey in 1994, the second – by IIASA in 2000. The third approximation is going to be published by Alexeyev and Birdsey in the spring of 2005 .
7. The single detail estimation of the full carbon balance for Russia was made by IIASA in 2000. Main conclusion of this study – a level of our carbon knowledge is insufficient for such calculations. Uncertainties of estimation give error over 100%.
Primary tasks for Russian carbon in 2005-2006
1. Organize and develop the National program for research of carbon in Russian terrestrial ecosystems.
2. Try to get a sufficient budget and private funding (including the International) for carbon ecosystem research
3. Change of the database aggregation in the State Forest Account for understanding of the climax forests, uneven aged stands, show absolute age of dominant tree species, show all site quality classes of stands, etc.).
4. More intensively to involve of the International science and scientists in research of carbon in forest ecosystems of Russia.
5. Organize in Russia the International Workshop devoted to research of Russian forest carbon.