|
Distr. GENERAL |
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FCCC/SBSTA/2000/9/Add.1 |
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25 August 2000 |
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ENGLISH ONLY |
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SUBSIDIARY BODY FOR SCIENTIFIC AND TECHNOLOGICAL ADVICE |
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Thirteenth session |
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Lyon, 11-15 September 2000 |
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Item 9 (a) of the provisional agenda |
METHODOLOGICAL ISSUES
LAND-USE, LAND-USE CHANGE AND FORESTRY
Consolidated synthesis of proposals made by Parties
Addendum
Compilation of country-specific data and information as submitted by Parties
Note by the Chairman
CONTENTS
Paragraphs Page
Annex
I. INTRODUCTION
A. Mandate
B. Scope of the note
C. Approach
Table 1: Overview table of data and explanatory text submitted by Parties
|
Information related to: |
||||||
|
Party |
Article 3.3 |
Carbon stock in 1990 (first sentence of Article 3.4) |
Article 3.4 |
|||
|
Data |
Explanatory text |
Data |
Explanatory text |
Data |
Explanatory text |
|
|
Australia |
3 |
1 |
3 |
1 |
3 |
1 |
|
Austria |
3 |
1 |
3 |
1 |
||
|
Canada |
3 |
1 |
3 |
1, 2 |
3 |
1 |
|
Denmark |
3 |
1 |
3 |
1 |
||
|
Finland |
3 |
1 |
3 |
1 |
3 |
1 |
|
France |
3 |
1 |
3 |
2 |
3 |
1 |
|
Germany |
3 |
1, 2 |
3 |
1 |
3 |
1, 2 |
|
Iceland |
3 |
1 |
3 |
1 |
3 |
1 |
|
Ireland |
3 |
2 |
3 |
2 |
||
|
Italy |
3 |
2 |
3 |
2 |
3 |
2 |
|
Japan |
3 |
1 |
3 |
1 |
3 |
1 |
|
Netherlands |
3 |
1 |
3 |
1 |
3 |
1 |
|
New Zealand |
3 |
1 |
3 |
1 |
||
|
Norway |
3 |
1 |
3 |
1 |
3 |
1 |
|
Portugal |
3 |
|||||
|
Russian Federation |
3 |
2 |
3 |
2 |
||
|
Spain |
3 |
2 |
3 |
2 |
3 |
2 |
|
Sweden |
3 |
1 |
3 |
2 |
3 |
2 |
|
Switzerland |
3 |
2 |
3 |
2 |
3 |
1 |
|
United Kingdom |
3 |
1 |
3 |
1 |
3 |
2 |
|
United States |
3 |
1 |
3 |
1 |
3 |
1 |
3 = Data provided; 1 = explanatory text provided according to the requested format; 2 = explanatory text provided in a modified format.
D. Notation keys and abbreviations
The following notations keys and abbreviations have been used:
A Afforestation
AB Activity-based
ARD Afforestation, reforestation, deforestation
C Carbon
CP Commitment period (2008-2012)
D Deforestation
GHG Greenhouse gas
IE Included elsewhere
LB Land based (LB I Land based I; LB II Land based II)
NA Not applicable
NR Not reported
NRS Not reported separately
QlA Qualitative assessment
QtA Quantitative assessment
R Reforestation
The following chemical symbols and abbreviations have been used:
CO2 Carbon dioxide
N2O Nitrous oxide
CH4 Methane
The following units of mass have been used:
Tg Teragram (1012 grams)
Gg Gigagram (109 grams)
Table 2 (a): Preliminary data on carbon stock changes and area related to Article 3.3 activities in Annex I Parties
All tables 2 refer to Article 3.3 of the Kyoto Protocol. Table 2 (a) is split into 3 parts displaying country data for Afforestation (Part 1), Deforestation (Part 2) and Reforestation (Part 3), for the requested time periods, and the average annual projected carbon stock change in the first commitment period. Data are reported in this table as they are submitted by Parties with a unit adjustment to Gg grams of carbon..
Most of the Parties have indicated that they have reported for activities according to the periods "since 1990 up to 1995", "since 1990 up to 1999" and "since 1990 up to 2012". However, other Parties have indicated different periods. Any deviation from the standard reporting periods indicated in the data format are indicated in a note at the end of the table.
Table 2 (b): Summary of information on carbon stock changes and area related to Article 3.3 activities in Annex I Parties
This table summarises information provided by Parties in their explanatory text on accounting frameworks, methods used to provide estimates, carbon pools, stratification, projections, uncertainties and non-CO2 gases.
Table 2 (c): Definitions of forest, afforestation, reforestation and deforestation provided by Annex I Parties
This table includes two parts related to the definition of a) forest and b) afforestation, reforestation and deforestation provided as currently being used by Parties. If Parties have cross-referenced their explanatory text and other parts of the submission, an indication is included in the table.
Table 2 (a) (Part 1): Preliminary data on carbon stock changes and area related to Article 3.3 activities in Annex I Parties:
Afforestation (IPCC Reforestation)
|
Party |
Definition |
Accounting framework |
aI |
aII |
aCP |
D CI |
D CII |
D Ccp |
Average D Ccp |
|
1000 ha |
Gg C |
GgC/yeara |
|||||||
|
Australia |
IPCC |
LB |
210.0 |
500.1 |
1 350.3 |
2 400.0 |
8 700.0 |
23 600.0 |
4 720.0 |
|
Austriab |
IPCC/FAO |
AB |
88.0 |
103.0 |
238.0 |
483.0 |
936.0 |
1 877.0 |
375.4 |
|
LB |
88.0 |
103.0 |
238.0 |
a |
a |
a |
- |
||
|
IPCC netc |
AB |
46.0 |
48.0 |
111.0 |
252.0 |
438.0 |
878.0 |
175.6 |
|
|
LB |
46.0 |
48.0 |
111.0 |
a |
a |
a |
- |
||
|
Canada |
IPCC/FAO |
AB/LB |
<9.0 |
<15 |
<34.5 |
<500 |
<500 |
<500 |
<100.0 |
|
Denmark |
IPCC/FAO |
AB/LB |
10.0 |
21.3 |
52.7 |
12.0 |
58.0 |
474.0 |
94.8 |
|
Finland |
IPCC/FAO |
AB |
66.7 |
92.2 |
142.7 |
165.0 |
380.0 |
610.0 |
122.0 |
|
Franced |
IPCC/FAO - artificial |
AB |
51.1 |
85.1 |
195.8 |
334.0 |
841.0 |
2 510.0 |
502.0 |
|
- natural |
AB |
453.6 |
756.0 |
1 738.7 |
2 767.0 |
7 254.0 |
15 373.0 |
3 074.6 |
|
|
Germany |
IPCC/FAO |
AB |
47.0 |
72.8 |
157.3 |
214.0 |
600.0 |
1 082.0 |
216.4 |
|
Iceland |
IPCC |
LB |
5.7 |
8.8 |
20.0 |
34.2 |
94.5 |
120.0 |
24.0 |
|
Ireland |
IPCC/FAO |
AB/LB |
86.0 |
172.0 |
3 67.0 |
148.0 |
591.0 |
4 573.0 |
914.6 |
|
Italy |
IPCC/FAO |
AB/LB |
32.5 |
75.1 |
221.9 |
121.0 |
692.0 |
2 365.0 |
473.0 |
|
Japan |
FAO |
AB |
35.0 |
58.0 |
134.0 |
50.0 |
294.0 |
1 368.0 |
273.6 |
|
Netherlandse |
IPCCf/FAO |
AB/LB |
5.4 |
6.3 |
10.24-55.66 |
48.6 |
95.1 |
76.8-417.45 |
15.4-83.5 |
|
New Zealandg,h |
IPCC |
LB a)g |
194.2 |
458.0 |
875.2 |
130.0 |
6 300.0 |
25 440.0 |
5 088.0 |
|
LB b)g |
46.9 |
78.8 |
141.2 |
29.8 |
1 100.0 |
4 140.0 |
828.0 |
||
|
LB c)g |
NR |
NR |
NR |
NR |
NR |
(approx.) 9 000.0 |
1 800.0 |
||
|
Norway |
IPCC |
AB |
186.5 |
311.0 |
715.0 |
52.0 |
120.0 |
250.0 |
50.0 |
|
FAO |
AB |
186.0 |
310.0 |
713.0 |
50.0 |
120.0 |
250.0 |
50.0 |
|
|
Portugal |
IPCC/FAO |
AB/LB |
98.0 |
304.0 |
746.0 |
NR |
NR |
NR |
- |
|
Russian Federationi |
LB |
3 199.8 |
2 480.3 |
1 547.9 |
NR |
NR |
NR |
- |
|
|
Spain |
IPCC/FAO |
LB |
73.9 |
482.6 |
NR |
44.9 |
293.2 |
NR |
- |
|
Sweden |
IPCC |
AB/LB |
69.0 |
NR |
242.0 |
30.0 |
NR |
850.0 |
170.0 |
|
Switzerland |
IPCC/FAO |
AB |
0.9 |
1.1 |
2.2 |
7.9 |
1.6 |
16.5 |
3.3 |
|
Land-use/flexible |
LB |
23.8 |
NR |
NR |
2600.0 |
NR |
NR |
- |
|
|
United Kingdom |
IPCC/FAO |
LB |
116.8 |
183.5 |
401.2 |
555.0 |
1537.0 |
3070.0 |
614.0 |
|
Other (net approach) |
LB |
110.8 |
173.5 |
378.2 |
526.0 |
1457.0 |
2918.0 |
583.6 |
|
|
United Statesk |
IPCC/FAO |
LB |
825.0 |
3792.0 |
12754.0 |
8000.0 |
47000.0 |
201000.0 |
40200.0 |
a Numbers in this column are calculated as follow : D Ccp/ 5 years.
b Figures would be approximately the same as the corresponding afforestation, reforestation figures for IPCC, activity based and IPCC net, activity based, respectively.
c IPCC definitions for ARD are used. However, afforestation, reforestation area is reduced by the deforestation area.
d See the definition for afforestation in table 2 (c).
e Because no data on soil carbon losses during deforestation are available, soil carbon is excluded. Soil carbon sequestration due to afforestation and reforestation is assumed to be very small (0,1 tC/ha/y) and not accounted, to keep similarity. This also applies for table 2 (a), part 2 and part 3.
f Under the IPCC definition only data for reforestation are reported. They are the same as the FAO afforestation data.
g The activities under afforestation/reforestation include: a) Grassland to planted forest; b) Shrublands to planted forest; c) Grassland to shrublands/forest (see FCCC/SBSTA/MISC.6/Add.1, p. 31-32).
h In this case, NR indicates that data are not available.
i Forest restoration activities include afforestation and reforestation according to State Forest Inventory data: aI, aII, aIII represent total area of forest restoration within inter-inventory period by the years 1988, 1993 and 1998 respectively.
j The Party reported a range of values. In this table only the medium values are presented.
aI Area (1000 ha) afforested and reforested, or deforested since 1990 up to 1995 or possibly an earlier specific year.
D CI Carbon stock change (Gg C) since 1990 up to the same year as used in aI on land afforested, reforested, and deforested.
aII Area (1000 ha) afforested and reforested, or deforested since 1990 up to 1999 or an earlier specific year.
D CII Carbon stock change (Gg C) since 1990 up to the same year as used in aII on land afforested, reforested, and deforested.
acp Projected area (1000 ha) afforested and reforested, or deforested since 1990 up to 2012.
D Ccp Projected carbon stock change (Gg C) over the first commitment period on land afforested, reforested, and deforested
since 1990 up to 2012.
Note: Data in this table summarize the estimates for the IPCC definition for A/R. FAO definitions for reforestation are given in Table 2a (Part 3).
Note: Some Parties have reported against different periods compared to the one indicated in the data format. The differences are as follows: a I for USA is reported for the period 01/01/1990 to 01/01/1992 and aII is from 01/01/1990 to 01/01/1997. Portugal excludes 1995 data from aI,. Finland and Iceland indicate that aII includes data up to 1998. For Denmark, France, Japan, Netherlands and Norway, a precision is made that the last year of each period is included in the calculation. The Russian Federation indicates provides the following indications for each periods: Total area of forest restoration within inter-inventory period by the year 1988 (aI), 1993 (aII) and 1998 (aIII). This note refers to the 3 different parts of table 2 (a).
Table 2 (a) (Part 2): Preliminary data on carbon stock changes and area related to Article 3.3 activities in Annex I Parties: Deforestation
|
Party |
Definition |
Accounting framework |
aI |
aII |
aCP |
D CI |
D CII |
D Ccp |
Average D Ccp |
|
1000 ha |
Gg C |
Gg C/year |
|||||||
|
Australia |
IPCC/FAO |
LB |
2362.0 |
3884.0 |
8078.0 |
-68200.0 |
-119200.0 |
-57600.0 |
-11520 |
|
Austria |
IPCC/FAO |
AB |
42.0 |
55.0 |
127.0 |
-3957.0 |
-5227.0 |
-2900.0 |
-580 |
|
LB |
42.0 |
55.0 |
127.0 |
k |
k |
k |
- |
||
|
IPCC netl |
AB/LB |
0.0 |
0.0 |
0.0 |
0.0 |
0.0 |
0.0 |
- |
|
|
Canada |
IPCC/FAO |
AB/LB |
276.0 |
460.0 |
1057.0 |
-26000.0 |
-43000.0 |
-22000.0 |
-4400 |
|
Denmarkm |
IPCC/FAO |
AB/LB |
0.0 |
0.0 |
0.0 |
0.0 |
0.0 |
0.0 |
0 |
|
Finlandn |
IPCC/FAO |
AB - Option 1 |
72.9 |
93.3 |
233.0 |
-2330.0 |
-2990.0 |
-1600.0 |
-320 |
|
AB - Option 2 |
90.0 |
135.0 |
345.0 |
-2880.0 |
-4320.0 |
-2400.0 |
-480 |
||
|
France |
IPCC/FAO |
AB |
91.5 |
152.5 |
350.7 |
-5124.0 |
-9066.0 |
-5625.0 |
-1125 |
|
Germany |
IPCC/FAO |
AB |
14.8 |
25.3 |
60.4 |
-1558.0 |
-2660.0 |
-1418.0 |
-283.6 |
|
IPCC/FAO (incl. Soil carbon) |
AB |
14.8 |
25.3 |
60.4 |
-2179.0 |
-3811.0 |
-2144.0 |
-428.8 |
|
|
Japan |
IPCC/FAO |
AB |
-107.0 |
-148.0 |
-319.0 |
-5956.0 |
-8461.0 |
-5104.0 |
-1020.8 |
|
Netherlandse |
IPCC/FAO |
AB |
1.3 |
2.2 |
5.1 |
-79.4 |
-132.3 |
-66.1 |
-13.22 |
|
IPCC/FAO |
LB |
1.3 |
2.2 |
5.1 |
-78.0 |
-130.1 |
-65.0 |
-13 |
|
|
New Zealando |
IPCC |
LB |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
|
Norway |
IPCC/FAO |
AB |
15.0 |
25.0 |
57.5 |
-140.0 |
-250.0 |
-160.0 |
-32 |
|
Portugal |
IPCC/FAO |
AB/LB |
5.0 |
9.0 |
11.0 |
NR |
NR |
NR |
- |
|
Sweden |
IPCC/FAO |
67.0 |
NR |
234.0 |
-1300.0 |
NR |
-1300.0 |
-260 |
|
|
Switzerlandp |
IPCC/FAO/Land-use/Flexible |
AB/LB |
0.8 |
1.3 |
3.1 |
-82.8 |
-129.3 |
-70.0 |
-14 |
|
United Kingdom |
IPCC/FAO |
LB |
6.0 |
10.0 |
23.0 |
-315.0 |
-525.0 |
-263.0 |
-52.6 |
|
Other (net approach) |
LB |
NR |
NR |
NR |
0.0 |
0.0 |
0.0 |
0 |
|
|
United States |
IPCC/FAO |
LB |
1096.0 |
4135.0 |
13028.0 |
-88000.0 |
-340000.0 |
-237000.0 |
-47400 |
k Absolute amount of D Ccp would be approximately 3 % lower than the corresponding deforestation figure at IPCC/FAO, AB. The figures for forest increment prior to deforestation are highly dependent on the length of the period which is taken into consideration. Therefore estimates for the LB deforestation were only estimated for the first commitment period (D Ccp.) but not for D CI and D CII.
l IPCC definitions for ARD are used. However, afforestation, reforestation area is reduced by the deforestation area.
m Deforestation is not considered to occur at a significant scale.
n Option 1: Area information 1990-1998 is registered by Statistics Finland, since 2000 onwards, projected deforestation is 10 000 ha/a;
Option 2: Estimates are based on the previous Finnish National Forest Inventory, provided that previous deforestation rate 15 000 ha/a would continue.
o No data is available to quantify deforestation in the period since 1990. The rate of deforestation is known to have been low in the beginning of the period and has subsequently reduced substantially
p The carbon change data for deforestation were reported without a sign. It was however confirmed by the Party that the values have a negative sign.
Table 2 (a) (Part 3): Preliminary data on carbon stock changes and area related to Article 3.3 activities in Annex I Parties:
Reforestation (FAO definition)
|
Party |
Definition |
Accounting framework |
aI |
aII |
aCP |
D CI |
D CII |
D Ccp |
Average D Ccp |
|
1000 ha |
Gg C |
Gg C/year |
|||||||
|
Austria |
FAO |
AB |
66.0 |
110.0 |
253.0 |
295.0 |
771.0 |
1635.0 |
327.0 |
|
FAO |
LB I |
66.0 |
110.0 |
253.0 |
-7543.0 |
-12644.0 |
-6337.0 |
-1267.4 |
|
|
FAO |
LB II |
66.0 |
110.0 |
253.0 |
-77.0 |
-201.0 |
-115.0 |
-23.0 |
|
|
Canada |
FAO |
AB |
5080.0 |
8760.0 |
21030.0 |
-15000.0 |
-25000.0 |
-3000.0 |
-600.0 |
|
FAO |
LB I |
5080.0 |
8760.0 |
21030.0 |
-250000.0 |
-425000.0 |
-226000.0 |
-45200.0 |
|
|
FAO |
LB II |
5080.0 |
8760.0 |
21030.0 |
-132000.0 |
-221000.0 |
-115000.0 |
-23000.0 |
|
|
Denmark |
FAO |
AB |
8.2 |
13.8 |
31.7 |
8.0 |
44.0 |
301.0 |
60.2 |
|
FAO |
LB I |
8.2 |
13.8 |
31.7 |
-368.0 |
-838.0 |
-669.0 |
-133.8 |
|
|
FAO |
LB II |
8.2 |
13.8 |
31.7 |
-93.0 |
-254.0 |
-185.0 |
-37.0 |
|
|
Finland |
FAO |
AB |
951.0 |
1 485.0 |
4 285.0 |
1 640.0 |
4220.0 |
14 000.0 |
2 800.0 |
|
France |
FAO -artificial |
AB |
244.9 |
408.2 |
938.9 |
230.0 |
928.0 |
8300.0 |
1660.0 |
|
-natural |
AB |
185.3 |
308.8 |
710.3 |
90.0 |
599.0 |
3864.0 |
772.8 |
|
|
Germany |
FAO |
AB |
252.0 |
420.0 |
966.0 |
1323.0 |
3456.0 |
6615.0 |
1323.0 |
|
FAO |
LB I |
252.0 |
420.0 |
966.0 |
-33912.0 |
-55269.0 |
-22748.0 |
-4549.6 |
|
|
FAO |
LB II |
252.0 |
420.0 |
966.0 |
-1144.0 |
-3004.0 |
-5012.0 |
-1002.4 |
|
|
FAO IIq |
AB |
420.0 |
700.0 |
1610.0 |
2205.0 |
5775.0 |
11025.0 |
2205.0 |
|
|
FAO II |
LB I |
420.0 |
700.0 |
1610.0 |
-56520.0 |
-92100.0 |
-37913.0 |
-7582.6 |
|
|
FAO II |
LB II |
420.0 |
700.0 |
1610.0 |
-1906.0 |
-4991.0 |
-8354.0 |
-1670.8 |
|
Table 2 (a) (Part 3) (continued)
|
Party |
Definition |
Accounting framework |
aI |
aII |
aCP |
D CI |
D CII |
D Ccp |
Average D Ccp |
|
1000 ha |
Gg C |
Gg C/year |
|||||||
|
Ireland |
FAO |
AB |
22.0 |
59.0 |
160.0 |
45.0 |
190.0 |
2313.0 |
462.6 |
|
FAO |
LB I |
22.0 |
59.0 |
160.0 |
-1106.0 |
-3313.0 |
-345.0 |
-69.0 |
|
|
FAO |
LB II |
22.0 |
59.0 |
160.0 |
-79.0 |
-323.0 |
-199.0 |
-39.8 |
|
|
Japan |
FAO |
AB |
316.0 |
459.0 |
749.0 |
491.0 |
2736.0 |
9102.0 |
1820.4 |
|
Netherlandse |
FAO |
AB |
15.6 |
26.0 |
52.0 |
37.4 |
104.0 |
208.0 |
41.6 |
|
FAO |
LB I |
15.6 |
26.0 |
52.0 |
-571.0 |
-1456.0 |
-468.0 |
-93.6 |
|
|
FAO |
LB II |
15.6 |
26.0 |
52.0 |
-103.0 |
-676.0 |
-130.0 |
-26.0 |
|
|
Norway |
FAO |
AB |
153.0 |
237.0 |
507.0 |
0.0 |
1.0 |
300.0 |
60.0 |
|
FAO |
LB I |
153.0 |
237.0 |
507.0 |
-9400.0 |
-16000.0 |
-8900.0 |
-1780.0 |
|
|
FAO |
LB II |
153.0 |
237.0 |
507.0 |
-1600.0 |
-3600.0 |
-3500.0 |
-700.0 |
|
|
Portugal |
FAO |
AB |
4.0 |
35.0 |
113.0 |
NR |
NR |
NR |
- |
|
FAO |
LB I |
4.0 |
35.0 |
113.0 |
NR |
NR |
NR |
- |
|
|
FAO |
LB II |
4.0 |
35.0 |
113.0 |
NR |
NR |
NR |
- |
|
|
Spain |
FAO |
LB I |
529.8 |
1059.5 |
NR |
323.6 |
647.2 |
NR |
- |
|
Sweden |
FAO |
AB |
950.0 |
NR |
4180 (curr.) |
500.0 |
NR |
15000.0 |
3000.0 |
|
United |
FAO |
AB |
93.7 |
151.0 |
334.4 |
458.0 |
1296.0 |
2311.0 |
462.2 |
|
Kingdom |
FAO |
LB I |
93.7 |
151.0 |
334.4 |
-10286.0 |
-16386.0 |
-7107.5 |
-1421.5 |
|
FAO |
LB II |
93.7 |
151.0 |
334.4 |
-368.4 |
-500.9 |
225.6 |
45.1 |
|
|
United |
FAO |
AB |
6733.0 |
21712.0 |
62966.0 |
75000.0 |
300000.0 |
838000.0 |
167600.0 |
|
States |
FAO |
LB I |
6733.0 |
21712.0 |
62966.0 |
-292000.0 |
-935000.0 |
-37000.0 |
-7400.0 |
|
FAO |
LB II |
6733.0 |
21712.0 |
62966.0 |
-13000.0 |
-52000.0 |
453000.0 |
90600.0 |
|
q FAO II - same as FAO, but natural regeneration has been included, according to the "regeneration" definition of TBFRA2000 which includes both natural and artificial regeneration.
Table 2 (b): Summary of information on carbon stock changes and area related to Article 3.3 activities in Annex I Parties
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Australia |
A, R, D - LB |
This analysis was undertaken using the IPCC LB accounting framework. Australia has proposed, in the accompanying submission, two accounting subrules should be implemented for A, R and D activities under Article 3.3 to prevent discrepancies between actual and reported stock change. This analysis does not include the effects of these sub-rules in estimating changes in carbon sequestration for A, R or D activities. [MISC. 6, p. 27] r |
Modelling of A/R emissions and sequestration was completed using the Australian Greenhouse Offices CAMFOR forest accounting model. Model parameters were drawn from relevant published literature. The models and parameters used to estimate emissions associated with D are described in the supporting methodology supplements to Australias National Greenhouse Gas Inventory Workbook 4.2. [MISC. 6, p. 27] |
Above ground biomass, litter and woody debris, below ground biomass, soil carbon and on and off site harvested materials. |
A/R - based on Australias National Plantation Inventory regions. These regions (14) are stratified by species, management regime and productivity class. D - stratified by vegetation structural classes. Areas of clearing are assigned to a vegetation class which is in turn assigned a typical soil carbon and biomass estimate. |
Values and key assumptions provided. |
QlA |
NR |
|
Austria |
A, R, D - AB, LB s R - AB, LB I, LB II |
The used accounting frameworks for AB, LB I and LB II correspond to the options given in the IPCC special report Land-use, Land-use Change and Forestry". [MISC. 6, p. 127] |
No models other than typical Forest Inventory Models (e.g. height models, models for volume) were used. Details on methodology are provided in MISC. 6, p. 128. |
Above- and below-ground biomass, litter and woody debris, soil carbon, harvested materials. |
Stratification according to altitude, management type of forest area, carbon uptake, age class of forests, etc. [MISC. 6, p. 128] |
Values and key assumptions provided. |
QlA |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Canada |
A, R, D - AB, LB (same values) R-AB, LB I, LB II |
Under the IPCC definitions, it is not possible to distinguish A and R in Canada, making the distinction between the two of little practical use in Canada. Areas subject to R under a FAO-type definition are much better known. We have used a variety of assumptions, methodologies and currently available data to derive the estimates shown in Table I, but we emphasise that these approaches do not reflect the systems that Canada proposes to use to measure and monitor ARD and forest management activities. For the preliminary estimates shown in Table I we did not attempt to differentiate between AB accounting and LB accounting for D and A, given the data available at present. Therefore in Table I we do not show differences between the two types of accounting for these two activities, and we expect that in practice the differences will be small. [MISC. 6, p. 80] |
A - Area based on very rough approximation using available information on urban planting, industry plantations and shelterbelts. Assumed annual afforested area for early to mid 1990s applies in 1990-2012. [MISC. 6, p. 81] R - Carbon stock change estimates derived separately for Eastern Canada using a modified version of the GORCAM model, and for Western Canada using a spreadsheet model [MISC. 6, p. 81] D - Compilation of information from a variety of sources and employing a variety of methodological assumptions [MISC. 6, p. 82] |
A (and IPCC R) - only above ground biomass; R - various, depending on the approach (AB - biomass pools associated with planting or natural regeneration after harvest, plus the effects on soil and on-site vegetation of the activity in parts of the country for which estimates for these pools were available; LB II + dead biomass left on site after harvesting; LB I - LB II + harvested biomass removed from the site) D - above-ground tree biomass, litter and woody debris, below ground tree biomass and soil. |
A Due to the minimal level of afforestation activity no stratification was attempted. R - For R using a FAO-type definition, the estimates use detailed information on growth curves of tree species typically involved in regeneration in each province in Eastern and Western Canada. D - In deriving the estimates for deforestation, we stratified D areas based mainly on administrative regions (provinces) and, where possible, on forest cover type (softwood, mixwood, hardwood). |
Values and key assumptions provided. |
QlA |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Denmark |
A, R - AB, LB (same values)
R - AB, LB I, LB II |
Full carbon accounting is used for all three approaches (AB, LB I, and LB II) in a manner by which C-stock changes are based on area multiplied by uptake. Uptake is based on a simple carbon storage model based on the Danish yield tables for Norway spruce (representing conifers) and oak (representing broadleaves). Wood volumes are converted into carbon stores by a general expansion factor (2) and conversion factors of 0.19 t C/m3 for conifers and 0.29 t C/m3 for broadleaves. Decomposition rates for the various slash components and turnover rates for various wood products are included in the model (for more information see Danish Energy Agency (2000)). [MISC. 6, p. 135] |
No distinction was made between AB and LB accounting, as we have no reason to believe that the cropland soils will decrease significantly in total C storage following afforestation. These models were the basis for the carbon storage model used for calculating the C storage in afforested stands during the three periods 1990-1995, 1990-1999 and 2008-2012. The carbon storage in successive generations of A areas are summed up to give the cumulated carbon storage over a certain period. R FAO AB: The carbon storage model for A (Danish Energy Agency 2000) was used to calculate carbon sequestration in trees planted on harvested forest areas. R FAO LB I: The full forest harvest and decomposing slash is included in the calculation of C storage following R. R FAO LB II: Accounting from the start of activity, but from then on decaying slash is taken into account. The carbon storage model is run from the beginning of a new planting, i.e. without including the C stock in wood of the former stand but including the release of carbon from decaying slash. [See MISC. 6, p. 136] |
A, R - whole tree biomass (including roots), slash and wood products |
The yield tables behind calculation of carbon stores are for yield class 2 (on a scale decreasing from 1 to 4). For A areas, a ratio between conifers and broadleaves of 1:3 was assumed, while all calculations for regeneration were done using Norway spruce as the model tree species. |
Values and key assumptions provided |
QlA |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Finland |
A, R, D - AB |
No additional information is provided. |
Detailed information on methodologies and data are provided in MISC. 6, p. 141.
|
Carbon pools include the whole biomass of trees including stem, branches, leaves and roots. Whole biomass carbon pools could be divided into above and below ground. Soil carbon is not included in this assessment. |
This submission covers the total forest area of Finland including different types of forests. |
Values and key assumptions provided. |
QtAt |
NR |
|
France |
A, R, D - AB |
[MISC. 6, p. 154] |
Most of the data relevant to forests in France are provided by the National Forest Inventory which was established progressively between 1960 and 1970. [MISC. 6, p. 153] |
Above and below ground biomass and soil carbon. |
An administrative, as well as a stratification scheme based on the ecological region (309 for the whole country), ownership (public and private), and forest types. |
Values and key assumptions provided. |
NR |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Germany |
A, R, D - AB R - AB, LB I, LB II |
A - The accounting is AB in the sense that aggregate afforestation areas as reported by the laender (federal states) are the basis for calculations and estimates. LB data from individual areas of land afforested or reforested since 1990 are not available. Accounting approaches are those described in the IPCC Special Report on Land-Use, Land-Use Change and Forestry, table 3.1, page 130-131. R - The accounting approaches under FAO II are the same as under the FAO definition, with the only difference that natural regeneration has been included, according to the "R"-definition of TBFRA2000 which includes both, natural and artificial regeneration. [MISC. 6, p. 163] |
Information on methodologies and data; methods and key assumptions are provided as an annex on Afforestation, Reforestation and Deforestation [MISC. 6, p. 163] |
A, R - only above-ground biomass included D - 1) above and belowground biomass only; 2) biomass and soil carbon (comprising humus layer and mineral soil from 0-90 cm). |
No stratification is applied. |
Values and key assumptions provided. |
NR |
Data on non-CO2 gases is provided in the annex [MISC. 6, p. 177] |
|
Iceland |
A - LB |
All afforested land since 1990 is included in the sum. [MISC. 6/Add.1, p. 5] |
Sequestration rates are based on measurements on mature stands. Average growth rates are assumed for the rotation period. [MISC. 6/Add.1, p. 6] |
Soil carbon, above-ground biomass, litter and rootmat. Life roots below the rootmat are excluded as research shows that this fraction normally yields <1% of the total carbon. |
No stratification is applied. |
Values are based on simple extrapolation. |
NR |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Ireland |
A, R AB, LB; (same values) R - AB, LB I, LB II |
R - LB I R takes into account carbon released by felling in the year prior to reforestation. However, carbon released from felling associated with 1990 R (which would have occurred in 1989 in the great majority of cases) is not included in aI and aII, nor is the release from 2008 R included in acp. LB II approach takes into account carbon released by harvesting residues on land following the activity. An instantaneous release of carbon from harvesting residues was assumed for calculation purposes. [MISC. 6, p. 178] |
For the purpose of calculating carbon stocks it was assumed that 80% of annual planting was Yield Class 16 Sitka spruce and 20% Yield Class 4 beech (Forestry Commission yield models). The same assumption was made for reforestation. [MISC. 6, p. 178] |
A, R - above ground biomass, litter and woody debris and below ground biomass. |
No specific information on stratification is reported. |
Only values are provided. |
NR |
NR |
|
Italy |
A, R - AB, LB (same values) |
No additional information is provided. |
Carbon budget model - see Table 3.b. [MISC. 6, p. 182] |
Trees, soil, forest floor and underground vegetation. |
In the estimation of changes in carbon storage over time, different types of forests: high forests (conifers, broadleaves, mixed); coppices; farm woodlands; urban forests; maquis and abandoned agricultural lands) have been considered; data are disaggregated on a regional basis. |
Only values are provided. |
NR |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Japan |
A, R, D - AB |
Carbon stock changes are estimated, using yield tables to estimate stem volume as well as its change for a given period. i) Total stem volume is estimated with afforested areas by planting years, and stem volumes per hectare for the corresponding forest ages derived from the yield table, which was applied to design Basic Plan on Forest Resources. ii) Stem volume is converted to carbon weight. [see formula in MISC. 6/Add.1, p. 19] |
Stem volume with expansion coefficients, and above- and below-ground biomass are estimated. [MISC. 6/Add. 1, p. 19] |
Only above- and below-ground biomass Litter, humus and soil carbon not included as carbon stock. |
Stem volume is derived from yield table prepared by regions, major tree species and site quality. |
Values and key assumptions provided. |
QlA |
NR |
|
Netherlands |
A - AB, LB (same values) R - AB, LB I, LB II |
A IPCC. For the purpose of this assessment, we have assumed A land to be 0 ha. It is assumed that afforestation on reclaimed lands in the polders is also 0 ha. That is an underestimation. Data are available on polder areas which are afforested, but not accounted in this assessment. A FAO. Based on and ex post evaluation of the rate of forest expansion since 1990 and forest policy aim to expand the current forest area with some 75,000 ha before the year 2020. R - AB, LB I, and LB II accounting systems have been used in this assessment according to definitions in the IPCC Special reports p. 131. D - UN-ECE/FAO (2000) report for the EU 15 countries an annual deforestation rate of 0.066%. We have applied this same annual value throughout each period (slow degradation, expansion of cities, road building etc. are going on in The Netherlands too), for more detailed data are lacking for the Netherlands [MISC. 6, p. 189]. |
Area multiplied by uptake factor. Details about models and key parameters used in the assessment of ARD can be found in MISC. 6, p. 191 and p. 203 (appendix A to the submission). |
A, R - whole tree biomass (including roots), litter, slash and wood (products), excepts for soil carbon; D - all pools without soil carbon. |
For the Dutch forest, the average carbon pools in the forest biomass and average regrowth rates are used. No further stratification, except for sampling, has been applied apart from regrowth rates for forests on agricultural lands and regrowth rates for the existing forest that is being harvested. For the subsequent periods simple assumptions were made for the regrowth rates times area per age class. We did not distinguish between forest growth rates (and soil carbon losses) on former cropland or pasture, or different soil types. |
Values and key assumptions provided |
<5% |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
||
|
LB/AB |
Additional information provided |
||||||||
|
New Zealand |
A, R, D - LB |
The National Forest Estate Description provides the basis for these estimates. This provides a precursor for the development of a LB accounting system. [MISC.6/Add.1, p. 33] |
These estimates are based on New Zealands national LUCF inventory methodology. Sources and methods are fully described in New Zealands National Inventory Report (2000). [MISC. 6/Add.1, p. 33] |
Above and belowground carbon pools and litter. Soil carbon not included. |
The modelling method is intended to provide national estimates. Accordingly simplifications are included. Firstly, the wood density factors for the different age classes assume that all trees grow in a medium density region of New Zealand. Secondly, the model takes the weighted national crop-type as being wholly Pinus radiata, when in fact around 10% of the estate is made up of Douglas fir (5%) and other species. |
Only values are provided. |
25% |
NR |
|
|
Norway |
A, R, D AB R - AB, LB I, LB II |
Our accounting approach regarding the IPCC method can be interpreted as AB, where the impact on carbon stocks is determined per unit area where the activity takes place. The changes in carbon stocks are calculated from formulas developed on the basis of estimated productivity rates in the type of area where the activity occurs as well as the size of the land areas in question. In other words, we have not calculated the carbon stock change in all pools on each land area where an activity takes place (LB approach). [MISC. 6/Add.1, p. 50] |
References and explanations are provided in MISC.6/Add.1, p. 51. |
above-ground (stem woods, tops and branches), below ground (stumps and coarse roots) biomass, litter and woody debris and soil carbon (as median values for carbon stocks in the O horizon plus the mineral soil for the different soil types) |
In Norway mean values for carbon density, growth rates etc. are estimated on the basis of field observations and calculations of the annual growth increment. |
Values and detailed information; separate projections for above ground, below ground biomass and soil carbon; trends beyond the CP. |
QlA/QtA (e.g. for soil C stock change the uncertainty is supposed to be at least ą 100%) |
No data are provided. Information can be found in MISC.6/ Add. 1, p. 54. |
|
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Portugalu |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
|
Russian federation |
A, R-LB |
Forest restoration activities within inter-inventory period include afforestation and reforestation according to State Forest Inventory data. [MISC. 6/Add.1, p.72] |
NR |
Not specified |
NR |
NR |
NR |
|
|
Spain |
A, R- LB |
There are not global scale measurements of C, but local experimentation areas. Method of calculation is based in biomass data provided by the Second National Forest Inventory (IFN-2). This inventory has been executed between 1985 and 1995 using a square grid of 1 km that covers all the Spanish territory. According the IFN-2 data and the conversion factors calculated in forest experimental plots by the Forest Research Department of Agriculture Ministry (INIA), the dasometric values obtained are computed as biomass. Biomass data is transformed in dry matter weight and in C equivalent values, using extrapolation factors obtained in the experimental forest plots of INIA. [MISC. 6, p. 210] |
Total live biomass |
No specific information on stratification is reported. |
NR |
10% |
NR |
|
|
Sweden |
A, R - AB; D - not specified |
No specific section on the approaches is provided [MISC. 6, p. 215] |
The following conversion factors were used:
[MISC. 6, p. 215] |
Above and below ground biomass |
The inventory includes roughly 18 000 sample plots per year, systematically distributed over the whole of Sweden. |
Values and key assumptions provided |
QlA |
There are preliminary estimates in the textual part. |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
Switzerland |
A, R - AB; D - AB, LB (same values) |
Comment to the difference in A between IPCC/FAO and Land-use/Flexible Scenario: The difference is due to the area with natural regeneration. The high removal under the flexible or the land-use scenario could be interpreted as an argument against these scenarios. But it should be taken into account, that by including areas with natural regeneration the area under control of the Kyoto Protocol could be augmented. It means that emissions at a later stage would be counted as a debit to the assigned amount of a Party at least with a LB approach, which we support. Otherwise neither emissions nor removals would not controlled. The influence of AB and LB on deforestation figures seems to be negligible [MISC. 6/Add.1, p. 74] |
No specific information on method is provided. |
Biomass only |
No specific information on stratification is reported. |
Only values are provided. |
QlA A, R medium to high D - high |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|
|
LB/AB |
Additional information provided |
|||||||
|
United Kingdom |
A, R, D - LB; R - AB, LB I, LB II |
A, R in IPCC approach: For Great Britain (GB - England, Scotland and Wales) is the area each year published by the Forestry Commission (FC) to have been approved for planting grant plus the new area actually planted by Forest Enterprise (FE - state forest organisation). For Northern Ireland, both state and private new planting is published by the Dept. of Agriculture for Northern Ireland (DANI). A - FAO approach is same as for IPCC. R - FAO approach: The area of land recorded by the FC (GB - private) and FE (GB - state) and DANI (NI state & private) as being restocked after recent clear felling for production purposes and includes natural regeneration. D - Change in land-use from forest to non-forest. Other (net approach) uses same model as IPCC approach ( see below) but areas of A plus R are reduced each year by the amount of D for broadleaf or conifer before changes in carbon pools are estimated. R FAO LB I: includes (loss of old forest carbon due to felling + loss of slash/litter carbon from old forest + gain of carbon in new forest) ; FAO LB II includes (loss of slash/litter carbon from old forest + gain of carbon in new forest); FAO AB includes (gain of carbon in new forest) [MISC. 6, p. 222] |
A, R - Estimates of changes in carbon pools due to A and R use the C-Flow model of Dewar & Cannell (1992). All conifers are assumed to Sitka spruce Yield Class 12 or 14 (NI) and broadleaves beech Yield Class 6. D - the lost tree carbon pool is assumed to be the long run time-averaged equilibrium values in the C-Flow for Sitka Spruce and beech forests. R - FAO approaches, the clear felled forest is assumed to contain twice the carbon as these equilibrium values (since they would be at maturity) and decay of litter and woody debris from the felled forest occurs at the rates estimated by the C-Flow model. Deforestation rates are not well known, hence a representative conversion rate to non-forest of 1000 ha y-1 in total for the UK is used for all years. This is under review. [MISC. 6, p. 222] |
A/R - above ground biomass, litter and woody debris, below ground biomass, soil carbon; D - above and below ground biomass, litter and woody debris. |
Forestry data is stratified by broadleave and conifer forests for state and private sectors in each of the 4 administrative regions of UK. |
Values and key assumptions provided. |
(ą 15%) |
NR |
Table 2 (b) (continued)
|
Party |
Accounting framework used |
Methods |
Carbon pools included |
Stratification |
Projections |
Uncer-tainty |
Non-CO2 gases treated values |
|||
|
LB/AB |
Additional information provided |
|||||||||
|
United States |
A, R, D LB R AB, LB I, LB II |
The accounting approaches used to construct data in Table I are those described on p. 147 the IPCC Special Report: LB I, LB II, and AB. [MISC. 6/Add. 1, p. 110] |
The carbon budget of forest ecosystems of the United States is estimated using a core model, FORCARB, and several subroutines that calculate additional information, including carbon in wood products. [MISC. 6/Add. 1, p. 110] |
Live tree biomass including roots; - Organic soil carbon to a depth of one meter; - Forest floor mass, which may include fine twigs; - Understory carbon, which is live biomass of shrubs, seedlings, and herbaceous plants; - Coarse woody debris and logging residue; - Carbon that goes into wood products and landfills. Carbon in dead wood in the forest is not currently included; estimates of this pool are under construction. |
Multiple strata were used that include:
|
Values and key assumptions provided; trend beyond the first commitment period. |
QlA / QtA; (80% confidence interval) |
No data provided. Information in MISC. 6/ Add. 1, p. 116] |
||
r All references are made to the following documents: FCCC/SBSTA/2000/MISC.6 and FCCC/SBSTA/2000/MISC.6/Add.1
s There are no values for the carbon changes using LB approach, but indications are given that values for afforestation/reforestation would be approximately the same as in the AB approach, and 3% lower compared to the AB approach for deforestation.
t A land area (error +/-5%); R land area (error +/-5%), each reforestation project (error +/-10%); D - land area (error +/-5%), deforestation rate (error +/-7%)
u Only data are provided.
Table 2 (c): Definitions of forest, afforestation, reforestation and deforestation provided by Annex I Parties
Part 1: Forest
|
Party |
Forest |
|
Australia |
Under Australia's approach to afforestation, reforestation and deforestation, there is no need for a stand-alone definition of a forest. |
|
Austria |
"Forestry land" according to the Austrian Forestry Act is an area stocked by trees (a list of tree species in this context is given in an annex to the Austrian Forestry Act), if the stocking of trees represents an area of at least 1000 m2 and is of an average width of at least 10 m. Forest areas, which are unstocked due to forest management practices (for instance harvesting areas or areas used for timber storage, skidding tracks or forest roads), are still referred to as "forestry land" according to the Austrian Forestry Act. The Austrian Forest Inventory always used the same definitions as the forest act except the minimum area for forest with 500 m2 instead of 1000 m2. Therefore the data provided refer to the minimum area of 500 m2. |
|
Canada |
Parties may define forest in accordance with their own circumstances and must take into account published definitions. Parties may choose to use different definitions of forest to account for different forest types in their country. The definition or definitions must be used consistently in the accounting in the first and subsequent commitment period. Parties shall provide information on the source and suitability of their definitions under Article 7. Their definitions shall be reviewed in accordance with Article 8 of the Protocol.v |
|
Denmark |
The definition of forest in Denmark is as follows (Statistics Denmark 1994): 1) areas supporting a stand that now or later may produce wood or other forest products, and 2) fields planted to Christmas trees and greenery (max. 10% of the area of each forest district). Orchards, parkland, willow scrub, windbreaks etc. are not included in the forest area. |
|
Finland |
The international definition of forestry land, as applied in the UN/ECE-FAO Temperate and Boreal Forest Resource Assessment 2000, sets a 10% canopy cover as the threshold between forestry land and other lands. According to the Finnish system, forestry land is grouped into three classes according to site productivity: (i) Forestry land, where the potential annual increment is at least 1 m3/ha/a; (ii) Scrub land (unproductive forestry land), where the potential annual increment is between 0.1 - 1.0 m3/ha/a; (iii) Waste land, unless naturally treeless, products less then 0.1 m3/ha/a, and (iv) other forestry lands, mainly roads, depots, etc. |
|
France |
According to the definitions of the French National Forest Inventory, forests are formations of trees and shrubs, included in an established list of forest species, with a crown cover of more than 10% of the land and an area of more than 0.05 ha; the canopy of such formations must be wider than 15 m. Young stands with at least 500 seedlings / ha (or 300 seedlings / ha for widely spaced artificial plantations) are also included under forests. |
|
Germany |
A Forest in the meaning of the Federal Forest Act (Article 2) is "any area of land stocked with forest plants. Forest also includes: clear-cut or thinned areas of land, forest roads, forest marking-off-and safety strips, gaps in the forest cover as well as clearings, forest meadows, game feeding points, timber yards and other areas connected with forests and ancillary to them. Smaller lots plated with individual clusters of trees, lines of trees or hedges or serving as forest nurseries and being situated on farmland or within built-up areas are not forests in the meaning of the Federal Forest Act". |
|
Iceland |
Land area with trees. |
|
Japan |
Land with trees and/or bamboo growing in a group, and/or land provided for collective vegetation of trees and/or bamboo (Article 2.1, the Japanese Forest Law). |
|
Netherlands |
Land with tree crown cover (or equivalent stocking level) of more than 20% and area of more than 0.5 ha. Trees should be able to reach a minimum height of 5 m at maturity in situ. Furthermore, in The Netherlands a forest must have a minimum average width of 30 meters. May consist of close formations where trees of various stores and undergrowth cover a high proportion of ground or open forest formations with a continuous vegetation cover in which tree crown cover exceeds 20%. Young natural stands and all plantations established for forestry purposes which have yet to reach a crown density of 20 percent or tree height of 5m are included under forest, as are areas normally forming part of forest area which are temporarily unstocked as a result of human intervention or natural causes but which are expected to revert to forest. The Dutch forest law requires a tree crown cover of 20%, whereas the UN-ECE/FAO (2000) compilation of national forest inventory data uses only 10%. Dutch forest area statistics according to the 10% crown cover limit are not available. |
Table 2 (c) (continued)
|
Party |
Forest |
|
|
New Zealand |
Forest is not defined in legislation in New Zealand, nor is there a single agreed definition that is applied in practice or in other international forestry reporting . Rather "forest" is commonly regarded to involve three broad constructs;
|
|
|
Norway |
Norway follows the FAO definition where forestry land is defined as an area with a minimum of 10 % crown coverage. The trees should be able to reach a minimum height of 5 meters at maturity. The area can be temporarily without crown coverage due to harvesting. |
|
|
Russian Federation |
In general Russian Federation agrees with the definition of forest proposed by FAO/IPCC in the LULUCF SR.w |
|
|
Sweden |
Forestry land according to the Swedish Forestry Act is all land that i) is not used for other purposes than wood production, and ii) that may support an average stemwood production exceeding 1 m3 per hectare per year. Recently abandoned farmland is therefore forest even if no active afforestation yet has taken place. However, according to the Forestry Act, action must be taken to provide sufficient tree plant density within a few years, unless the land is again used for other purposes. Land that has a stemwood production exceeding 1 m3 per hectare per year but which has another active land-use than forest management is thus not forest. This could be e.g. pasture, built-up land, and preserved areas. |
|
|
Switzerland |
National forest inventory: Crown cover at least 20 %, top height at minimal 3 m and width of the area at least 25 m. Forest Law: Area at least 200 m2, width at least 10 m and tress must be 10 years old. |
|
|
United Kingdom |
Forest is that planted land recorded in national surveys, the state forest sub-compartment database and private land receiving planting grants. This may include access roads and tracks but excludes nursery areas, land with buildings etc. |
|
|
United States |
Land currently growing forest trees of any size with a total stocking value of at least 16.7 (10 base 100 in the West), or lands formerly forested, currently capable of becoming forestry land, and not currently developed for nonforest uses. These lands must be a minimum of 1 acre in area. Roadside, streamside, and shelterbelt strips of timber must have a crown width of at least 120 feet to qualify as forestry land. Unimproved roads, trails, streams, and clearings within forest areas are classified as forestry land if they are less than 120 feet wide. Recently clear-cut areas that are currently nonstocked are classed as forestry land unless they are being used for a nonforest use such as agriculture. Forestry land is divided into two categories (timberland and other forestry land), and both of these categories may be further classified as reserved if harvesting of trees is prohibited by statutory or administrative restrictions. The minimum stocking level of 16.7 percent is approximately equivalent to 10 percent crown cover once trees are well established. The U.S. definition of forest is compatible with the FAO definition of forest, which also used by IPCC. |
|
v This definition is taken from the textual proposal of Canada.
w This statement is taken from the textual proposal of the Russian Federation.
Part 2 (c): Afforestation, reforestation and deforestation
|
Party |
Afforestation |
Reforestation |
Deforestation |
|
|
Australiax |
Afforestation is defined as the direct human induced establishment of new forests (trees and woody vegetation) on lands which historically have not contained forests. New forests established by afforestation must cover a minimum area of 1 hectare with a minimum stand width of 10 metres. Potential canopy cover at maturity under current management practices is not less than 20%. |
Reforestation is defined as the direct human induced establishment of forests (trees and woody vegetation) on lands which historically have previously contained forests but which have been converted to some other use. Prior to reforestation, the land must have been under some non-forest use for a period of not less than 5 years. New forests established by reforestation must cover a minimum area of 1 hectare with a minimum stand width of 10 metres. |
Deforestation will be accounted when the proportion of canopy cover per hectare on a given area of forested land (land with trees and woody vegetation) is reduced by 30% or more through forest conversion as a result of direct human induced removal of trees. Deforestation is defined as direct human induced forest conversion which is frequently accompanied by burning. This does not include harvesting or other practices which occur as part of ongoing commercial forestry. Forest conversion means the transition of forested land to non-forested land as a result of direct human induced removal of trees. |
|
|
To be directly human induced, afforestation and reforestation must result from a deliberate human action or intervention. Establishment includes all deliberate human induced activities to establish trees including: direct planting, artificial seeding, site preparation (fire or mechanical) and protective fencing. |
||||
|
Austriay |
|
The Austrian Forest Inventory uses a minimum area of 500 m2 for accounting an area as forest. In addition, a minimum crown coverage of 30 % is necessary that the Austrian Forest Inventory accounts an area as afforested (according to FAO) or af-, reforested (according to IPCC). Less than 30 % crown coverage are necessary to account an area as deforested. However, deforestation according to the accounting rules of the Austrian Forest Inventory needs a land-use change (or unsustainable forest management, eg no regeneration during a long period after harvesting or other losses of the stands). Although young stands may have a lower crown coverage they have been counted as af-, reforested area (IPCC, FAO) as long as the given number and distribution of trees of these stands is sufficient to reach 30 % crown coverage in a mature state. |
||
|
The used area for reforestation according to FAO corresponds to the areas of clear-fellings with a size of more than 500 m2. Clear-felling according to the Austrian Forest Inventory means harvest of the whole forest stock (stemwood). |
||||
|
Canadaz |
Afforestation is a change in land-use that, through the establishment of a stand of trees, forms a forest. |
Reforestation is a land-use practice that, through the establishment of a stand of trees, forms a forest. |
Deforestation is a land-use change that removes a forest. |
|
Part 2 (c) (continued)
|
Party |
Afforestation |
Reforestation |
Deforestation |
|
|
Denmark |
IPCC: It is not possible to separate the Danish A area according to IPCCs definitions on A and R. Most of the A land fulfil the requirements for IPCCs definition of A, as they were cleared of forest 800-1240 A.D. and used continuously for agriculture since then (Nature of Denmark, 1980). |
IPCC/FAO: Conversion of forest to non-forest. Deforestation is not considered to occur in Denmark to any significant extent. As the forest cover area is quite limited at present, activities like road construction very seldom result in significant deforestation of forest areas. |
||
|
FAO: Artificial establishment of forest on lands that did not carry forest within living memory. This definition applies to the total Danish afforestation area. |
FAO: Artificial establishment of forest on lands that carried forest before, i.e. planting following clearcutting. |
|||
|
Finland |
Definitions of FAO and IPCC on afforestation , reforestation and deforestation are used in this assessment. It is assumed that IPCC's afforestation and reforestation equals to afforestation of FAO. |
For deforestation, it is assumed that deforestation is same for both IPCC and FAO definition. |
||
|
France |
Afforestation is a land-use change from non-forest to forest; it can be either "natural" (i.e., by natural seeding of land where previous non-forest use has been discontinued) or "artificial" (i.e., by planting or seeding). |
Reforestation is establishment of forest on lands that had them before; it can be either "natural regeneration" (i.e., by natural seeding from trees either left on the land for that purpose or from trees on neighbouring land) or "artificial regeneration" (i.e., by planting or seeding). |
Deforestation is a land-use change from forest to non-forest. |
|
|
Germany |
Afforestation (and Reforestation under the IPCC-definition) is defined as establishment of forest on non-forestry land. |
Reforestation is defined, according to the FAO-approach, as artificial regeneration of land that was previously forested (post-harvest and post disturbance regeneration) by planting or seeding. |
Deforestation is defined as the conversion of forest to non-forest (= to another land-use). |
|
|
Iceland |
Planting trees on previously treeless areas. |
|||
|
Ireland |
Afforestation is land approved for planting grants by the Forest Service. This includes Coillte (Irish Forestry Board) planting. |
|
Deforestation represents a small area of land taken out of forest for house construction or road building. |
|
Part 2 (c) (continued)
|
Party |
Afforestation |
Reforestation |
Deforestation |
|
Japan |
Artificial establishment of forest on lands that were not historically forest |
Artificial establishment of forest on lands that had them previously (including regeneration post harvest) |
Conversion of forest to non-forest. |
|
Netherlands |
IPCC: "Planting of new forests on lands that historically have not contained forests". If afforestation were defined as "land that did not have forest for 50 years" (as in the EU proposal), then IPCC afforestation would comprise almost the same number as we report under "FAO reforestation" FAO: "Artificial establishment of forest on lands that previously did not carry forest within living memory." |
IPCC: "Planting of forests on lands that have previously contained forests but that have been converted to some other use." The definition of Reforestation IPCC in the Netherlands leads to similar results as Afforestation FAO. FAO: "Artificial establishment of forest on lands that carried forest before". |
IPCC/FAO: Conversion of forest to non-forest. |
|
New Zealand |
In a practical sense afforestation and reforestation in New Zealand conditions may be considered to be largely synonymous. |
The conversion of forest land to some other use |
|
|
The establishment of forests on lands which, historically, have not contained forests |
The establishment of forests on lands which, historically, have previously contained forests but which have been converted to some other use |
||
|
Norway |
Afforestation in Norway will normally be defined as establishment of forests by planting, seeding or other changes in human land-use practises on areas not defined as forests in the National Forest Inventory. Areas defined as afforested in Norway have been non-forest land for about 50 years or more. |
Reforestation will normally be defined as re-establishment of forests by planting, seeding or natural revegetation on previously forested land or other wooded land. After harvesting all forests in Norway will be regenerated either by planting or by natural regeneration as part of the normal forest management system. The following are our understanding of the different definitions of reforestation from the IPCC Special Report on LULUCF. FAO LB I: Carbon stock changes are accounted on all lands reforested (regeneration after harvesting) between 1990 and 2012. Accounting is beginning on 1st January 2008. On lands reforested between 2008 and 2012 (the commitment period) harvesting will be accounted as a carbon emission.bb FAO LB II: Like land based I, except for emissions from harvesting, which is not included in the carbon change accounting. All other carbon changes on the reforestation area are accounted. FAO AB: Only carbon changes directly related to the reforestation activities are accounted.cc IPCC: Only changes in carbon stock on lands that previously have been used for other purposes and then converted back to forest are accounted. |
Deforestation should be defined as converting forestry lands to other land. For Norway such a definition would include conversion of forests to agricultural land and roads, housing and other urban areas. Normal harvesting as part of a forest management system should not be defined as deforestation.aa |
Part 2 (c) (continued)
|
Party |
Afforestation |
Reforestation |
Deforestation |
|
|
Russian Federation |
Afforestation is artificial establishment of forest on land that was previously under different land-use. The different types of land-use are: agriculture, peat extraction, mining, and others. |
Reforestation is artificial establishment of forest on land that at present are not covered by forest or their forest cover is insufficient. These lands include sparsely forested territories (with low density forest cover), areas of formet forest fires, dead (or declining) stands, harvesting areas, and large glades (or other open sites) in forests. |
Deforestation is artificial conversion of forested lands to non-forest territories as a result of various human activities including unfavorable anthropogenic impacts (human-induced forest fires, industrial pollution, etc.). |
|
|
Sweden |
A/R: Area classified as farmland in the inventory 1988-1992 and as forestry land in the inventory 1993-1998 divided by 5.5 yr. multiplied with 5 yr. Afforestation and reforestation cannot be separated. To some extent is included land on which farming will be applied again - see ii, and land which has been used for forest management shorter than 20 years ago. Thus, the A. area is subtracted from the expected afforestation area during 1995-2012. |
Forest to farmland: Area classified as forestry land in the inventory 1988-1992 and as farmland in 1993-1998 divided by 5.5 yr. and multiplied with 5 yr. This is to a high extent land that has been abandoned for only a few years or land on which the present land-use was difficult to determine at either inventory. Clearing of mature forest in purpose to extend cultivation or grazing is non-significant today. Forest to roads, etc: Net conversion from forestry land to roads, railway and power line clearings between 1988-1992 and 1993-1998. Forest to built-up land: Net conversion from forestry land to built-up land between 1988-1992 and 1993-1998. In many cases, a high tree density (canopy cover) remain after the conversion (> 10 %), and in other cases, the tree density was low before the conversion. |
||
|
Area on which reforestation (regeneration) has followed upon forest harvesting, i.e. all clear-cut area. |
||||
|
Switzerland |
The change from non-forest to forest. Afforestation and reforestation are not differentiated in the Swiss forest law. |
It has to be cleared whether some deforestation according to the Swiss law are deforestations according to the KP definitions, because they are "reforested" within a few years. |
Any other use of a forested area, even it is only for a limited time period needs a deforestation authorisation. |
|
Part 2 (c) (continued)
|
Party |
Afforestation |
Reforestation |
Deforestation |
|||
|
United Kingdom |
Afforestation & Reforestation in IPCC approach: For Great Britain (GB - England, Scotland and Wales) is the area each year published by the Forestry Commission (FC) to have been approved for planting grant plus the new area actually planted by Forest Enterprise (FE - state forest organisation). For Northern Ireland, both state and private new planting is published by the Dept. of Agriculture for Northern Ireland (DANI). Afforestation for FAO approach is same as for IPCC. |
Reforestation for FAO approach: The area of land recorded by the FC (GB private) and FE (GB - state) and DANI (NI state & private) as being restocked after recent clear felling for production purposes and includes natural regeneration.dd |
Change in land-use from forest to non-forest |
|||
|
United States |
"Afforestation" and "deforestation" are defined primarily as land-use changes, but to qualify as deforestation the land must also meet the definition of forest prior to deforestation, and to qualify as afforestation the land must meet the definition of forest after afforestation. There is no difference in the definition of these terms for our calculations related to the IPCC or FAO definitions under Article 3.3. |
In applying the IPCC definition of reforestation, the distinction between reforestation afforestation is arbitrary. Therefore, for the IPCC approach, afforestation and reforestation are treated as one activity. Forestry land in the U.S. is rarely cleared for nonforest use and subsequently returned to forest. In applying FAO definitions for the purpose of these illustrative calculations, reforestation has been interpreted to include heavy partial harvesting followed by regrowth of a new forest stand. |
See definition for "afforestation" |
|||
x These definitions are taken from the textual proposal of Australia
y The definitions used for ARD are rather similar to the ones of the IPCC Scenario and "FAO Scenario given in the IPCC special report Land-use, Land-use Change and Forestry" (4) (Table 3-4, p. 142 ff.).
z These definitions are taken from the textual proposal of Canada.
aa All carbon stock changes, also carbon in soils, due to the defined deforestation activities are included. All standing biomass is accounted as emissions at conversion time. Carbon loss from soil is supposed to be increasing.
bb The wood removed from the forest (timber) will be accounted as emissions at harvest time. Slash and roots are accounted as emissions at a given rate of decay. Carbon changes in soil, slash and roots on the reforested area after harvesting are accounted. Slash and roots will be accounted as emissions at a given rate of decay. Accumulation of slash C in soil on reforestation areas is not accounted for, as it is difficult to predict how quickly the slash C will be incorporated in the soil C pool.
cc This means that we have estimated the carbon sinks due to the growth of the new forest, and the expected carbon changes in soil that occur as a result of the development of young forest stands. The changes that would take place if the area was not replanted, for example decaying slash and changes in carbon soil, are excluded. For the soil C, Activity based includes only C from litterfall, which will be negligible during the first 22 years after planting (1990-2012).
dd Within the FAO approach for Reforestation the following processes are included: FAO Land Based I includes (loss of old forest carbon due to felling + loss of slash/litter carbon from old forest + gain of carbon in new forest); FAO Land Based II includes (loss of slash/litter carbon from old forest + gain of carbon in new forest) and FAO Activity I includes (gain of carbon in new forest).
Data and summary information related to Table II of the data format (first sentence of Article 3.4. of the Kyoto Protocol)
Table 3 (a): Preliminary data on carbon stocks and area estimates for 1990 in
Annex I Parties
These data are relevant to the first sentence of Article 3.4 of the Kyoto Protocol. The table compiles data on carbon stocks in 1990 (or another year as indicated in a footnote). The indication IE (included elsewhere) means that the data are included in another land system category in the table as indicated by a footnote.
Table 3 (b): Summary of information on carbon stocks and area estimates for 1990 in Annex I Parties
This table compiles extracts from the explanatory text and information provided by Parties on their carbon pools and carbon stocks, methods used to provide estimates, and uncertainties.
Table 3 (c): Definition of land systems provided by Annex I Parties in their country data submissions
Relevant definitions for activities related to carbon stocks changes on forestry lands, agricultural lands, range lands, wetlands, tundra and other lands are provided in this table.
Table 3 (a): Preliminary data on carbon stocks and area estimates for 1990 in Annex I Parties
|
Party |
Forestry lands |
AgriculturAL lands |
Rangelands/ grasslands |
Wetland/ Tundra |
Other |
Total |
||||||||||||
|
Area |
Carbon stock |
Area |
Carbon stock |
Area |
Carbon stock |
Area |
Carbon stock |
Area |
Carbon stock |
Area |
Carbon stock |
|||||||
|
Soil carbona |
Total |
Soil carbona |
Total |
Soil carbona |
Total |
Soil carbona |
Total |
Soil carbona |
Total |
Soil carbona |
Total |
|||||||
|
1000 ha |
Tg C |
1000 ha |
Tg C |
1000 ha |
Tg C |
1000 ha |
Tg C |
1000 ha |
Tg C |
1000 ha |
Tg C |
|||||||
|
Australia |
145 000 |
NRS |
13 157.0 |
45 000.0 |
NRS |
1 297.0 |
564 000 |
NRS |
10 484.0 |
2 000.0 |
NRS |
571.0 |
6 000.0 |
NRS |
262.0 |
762 000.0 |
NRS |
25 771.0 |
|
Austriab |
3 893 |
459 |
782 |
1 502.0 |
87 |
92 |
1 993.0 |
194 |
198 |
0.0 |
0 |
0.0 |
998.0 |
52 |
54.0 |
8 386.0 |
792 |
1,126 |
|
Canadac |
418 000 |
NRS |
86 000.0 |
45 500.0 |
NRS |
6 000.0 |
15 500.0 |
NRS |
IE |
148 000 |
NRS |
>205 000 |
NRSd |
NRS |
NRS |
>627 000 |
NRS |
>297,000 |
|
Denmark |
417 |
NRS |
77.7 |
2 788.0 |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
|
Finland |
26 300 |
1 040 |
6 530.0 |
3 000.0 |
NR |
NRe |
NR |
NR |
NR |
IEf |
IEf |
IEf |
1 200.0 |
NR |
10.7 |
30 500.0 |
NR |
6 540.7g |
|
France |
18 282.9 |
NRS |
2 207.0 |
16 473.3 |
NRS |
785.0 |
13 700.6 |
NRS |
822.0 |
1 790.8 |
NRS |
60.9 |
4 671.5 |
NRS |
77.4 |
54 919.1 |
NRS |
3 952.3 |
|
Germany |
10 740 |
NRS |
2 290.0 |
14 292.0 |
NRS |
1 200.0 |
5 251.0 |
NRS |
622.0 |
NA |
NA |
NA |
1 012.0 |
NRS |
85.0 |
36 005.0h |
NRS |
4 764.7 h |
|
Iceland |
150 |
NRS |
62.0 |
130.0 |
NRS |
52.0 |
4 097.0 |
NRS |
1 229.0 |
860.0 |
NRS |
774.0 |
3 823.0 |
NRS |
32.0 |
9 060.0 |
NRS |
2 149.0 |
|
Irelandi |
400 |
122.2 |
136.1 |
400.0 |
27 |
28.3 |
4 500.0 |
564.3 |
582.3 |
1 400.0 |
1 597.6 |
1 599 |
0.0 |
1.1 |
1.1 |
6 700.0 |
2 312.2 |
2 346.8 |
|
Italy |
9 973.9 |
NRS |
810.8 |
12 678.3 |
NRS |
560.4 |
4 106.1 |
NRS |
298.1 |
NR |
NR |
NR |
NR |
NR |
NR |
26 758.2 |
NRS |
1 669.3 |
|
Japan |
25 212 |
NR |
1 420.9 |
5 243.0 |
NRS |
258.1 |
IEj |
NR |
IEj |
NRe |
NR |
NRe |
69.6 |
NR |
0.025 |
30 524.6 |
NR |
1 679.0 |
|
Netherlands |
339 |
NRS |
64.4 |
909.0 |
NRS |
45.5 |
1 097.0 |
NRS |
109.7 |
22.4 |
NRS |
33.6 |
1 029.6 |
NRS |
10.3 |
3 397.0 |
NRS |
263.5 |
|
New Zealandk |
10 497.5 |
NRk |
1 575.5 |
10 384.2 |
NRk |
NR |
3 639.5 |
NRk |
NR |
114.5 |
NRk |
NR |
1 643.3 |
NRk |
NR |
26 688.8 |
4 684k |
NR |
|
Norway |
8 600.0 |
1 100 |
1 400.0 |
1 000.0 |
200 |
200.0 |
NAl |
NAl |
NAl |
IEl |
NR |
IEl |
3 400.0 |
500 |
500m |
13 000.0 |
1 800 |
2 100.0 |
|
Russian Federation |
1 182 600.0n |
NR |
38 600.0 n |
131 800.0 |
NR |
NRn |
80 100.0 |
NR |
NRn |
NR |
NR |
NR |
NR |
NR |
NR |
1 394 500.0 |
NR |
NRn |
|
Spain |
13 905.0 |
NR |
237.7 |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
NR |
|
Sweden |
22 910.0 |
NRS |
2 800.0 |
3 140.0 |
NRS |
230.0 |
500.0 |
NRS |
45.0 |
4 600.0 |
NRS |
4 500.0 |
9 930o |
NRS |
28 |
41 080.0 |
NRS |
7 603.0 |
|
Switzerland |
1 210.0 |
110 |
238.6 |
40.3 |
20.1 |
NRq |
1 194.6 |
108.0q |
NR |
273.0p |
NR |
NR |
NA |
NA |
21.5 |
2 717.9 |
NR |
388.3 |
|
United Kingdomi |
2 635.2 |
591.1 |
685.8 |
4 824.6 |
969.3 |
974.1 |
7 179.2 |
1718.3 |
1 725.3 |
6 912.5 |
6913.7 |
6 925.2 |
2 203.3 |
31.9 |
32 |
23 754.8 |
10 224.2 |
10 342.4 |
|
United Statesi |
198 611 |
NRS |
36 203.0 |
168 127.0 |
NRS |
12 454.0 |
270 830 |
NRS |
20 943.4 |
13 968.0 |
NRS |
4 714.2 |
75 153.0 |
NRS |
4 163.3 |
726 689.0 |
NRS |
78 477.9 |
a It should be noted that separate reporting of soil carbon was not required by the data format (Annex I). This column was included with the purpose of presenting the information, when Parties have reported it. NRS indicates that carbon soil was not reported separately.
b Uncertainty ranges for the carbon stocks in different land systems provided in the submitted table are reported.
c Carbon stock for agricultural lands and rangelands is reported as one estimate, which is given under agricultural land heading.
d Canada reports 210 000 ha of tundra in its explanatory text with additional information of the uncertainty of the data.
e In this case NR indicates that data are not available (Finland) or not estimated (Japan).
f Data are included under "forestry land".
g The total is not complete. Only data for wooden products in Finish building are included under "Other". Different estimates for the total carbon stock in 1990 vary between 6200-7700 Tg C.
h The Party also reported area data for buildings, recreational lands, transportation, water covered land and for carbon stock for buildings, recreational lands, and transportation, which are included in the respective totals.
i The classification of the land systems as defined in table II (annex I) was modified by the Party as shown in table 3b.
j Data are included under "agricultural lands".
k Land systems are divided into sub-categories, if available, data are provided separately when available. Soil carbon preliminary estimates are reported for all land classes (table 3b).
l Rangelands/grasslands were reported as not occurring. Wetlands/tundra is covered under other wooded lands ("other").
m 20 Tg of carbon in products and waste are reported but are not included in the totals.
n The data on area and carbon stock for forestry lands are given for 1988 that is the closest to 1990 year of the State Forest Inventory. In this case, NR indicates that data are not estimated.
o This total includes 630 000 ha of "forest conservation".
p This total consists of 26 000 ha of wetlands and 247 000 ha of tundra.
q Only soil carbon stocks 0 to 20 cm; biomass stocks are not included.
Table 3 (b): Summary of information on carbon stocks and area estimates for 1990 in Annex I Parties
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Australia |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Other |
Totals for each land system are provided |
Biomass, litter, soil to 30 cm and organic carbon (charcoal) |
Estimates were modelled using a calibrated model running in a geographic information system with area statements derived from national datasets. [MISC. 6, p. 29] |
NR |
NR |
|
Austria |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Other |
Data is split to carbon stocks in 1) Living biomass (above and below ground, annual means), and 2) in soil (50 cm depth) |
Living biomass (above and below ground), soil carbon (50 cm depth) |
Aboveground biomass (m3 stemwood over bark, t dry matter of harvested agricultural biomass etc.) was converted to t C of total above- and belowground biomass by using expansion and conversion factors. The biomass figures for annual plants correspond to annual means. Measured concentrations of soil organic C were converted to C-pools by using soil specific conversion factors, where estimated amounts of coarse material (> 2 mm) and soil densities were taken into consideration. [MISC. 6, p. 131] |
Forestry lands: Biomass C stock increased steadily in the period 1960 to 1996. In addition, the area of Forestry lands" increased considerably from 1960 to 1996. Repetitions of the soil inventories were not undertaken so far. Therefore, the trends of the Austrian soil C-stocks are unknown. |
QlA/QtA; (values are represented within the range of uncertainty in the submitted table)q |
|
Canada |
Forestry land Agricultural land (which includes rangelands/grasslands) Wetland/tundra Other |
Totals for each land system are provided. |
Forest: Above-ground and below ground biomass and total soil carbon Agricultural soil: soil depth to 1 meter |
Estimates were derived from several sources and obtained using various methods. [MISC. 6, p. 83] |
NR |
QlA |
|
Denmarkr |
Forestry land Agricultural land |
A total for carbon stock in forestry land is provided |
On average 25 t C/ha of total biomass (including clearcuts and "aggrading stands") + 125 t C/ha in SOM (including forest floors) |
Forestry land: The estimates for the size of the carbon stocks in forest vegetation are based on conversion factors used to convert stemwood volume into whole-tree carbon stores for conifers and broadleaves (Danish Energy Agency 2000). [MISC. 6, p. 138] |
Based on changes in areas due to afforestation of arable land and less based on changes in carbon content from changes in land-use. |
QlA |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Finland |
Forestry land Agricultural land, (Wetland/tundra included in Forestry land) Other Subcategories provided (see Table 3.c.)
|
Besides totals, for forestry land data is provided on C in trees, surface vegetation, forest soil, in peatland layers |
Carbon pools (in trees, in surface vegetation, in forest soil and in peatland layers >30 cm thick) are covering all the forestry land area. |
Preliminary estimates are based on a number of individual studies and research findings. The multi-source inventory method combines data from field measurements, air-borne data and other space-borne data as well as digital map data. [MISC. 6, p. 144] |
In trees the carbon stock changes take place much faster than in soils. A number of studies show that the trend is in both cases ascending - increase of tree resources increases the carbon stock in biomass and, through growing forest littering in soils as well. |
QtA (Sampling error for the total volume of the growing stock for the whole country: ą 0.6%; error in the total tree biomass estimate: ą 10%) |
|
France |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Other |
Totals for each land system are provided |
Above and below-ground biomass, soil carbon. Biomass in forest, woodlands, poplar plantations. [MISC.6, p. 154]. |
As in Table 2.b. [MISC. 6, p. 155] |
NR |
NR |
|
Germany |
Forestry land Agricultural land Rangelands/grasslands Other. New rows added: C in wood products, buildings, recreational lands, transportation, water covered. |
Besides totals, data is provided on the carbon stocks in forests in an annex (see carbon pools column) |
Forests: growing stock, woody biomass, leaves +needles, dead wood, forest floor vegetation, soil carbon (0-90 cm, including humus layer); Non forest systems: soil carbon in the top 0.3 m |
IPCC 1996 and other methods; separately given for forest and non-forestry lands [MISC. 6, p. 168] |
Only in agricultural lands and grasslands significant changes in carbon stocks are likely to be achievable by human interaction. The degree - hardly to estimate. As an upper limit we assume that by modifying agricultural practices a 10% positive change. |
QlA |
|
Iceland |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Other |
Totals for each land system are provided |
Biomass and soil carbon |
No information provided. |
Forestry lands are expanding due to afforestation of approximately 1000 ha per year. Soil erosion is still ongoing and can be expected to increase the area classified as deserts. |
QlA |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Ireland |
The land system notations are changed: Woodland, Tillage, Grassland, Peatland, Other |
Besides totals, data is provided on soil carbon and vegetation carbon stock |
Vegetation, soil carbon (15 cm depth) |
References to the methods used can be found in MISC. 6, p. 179. |
NR |
NR |
|
Italy |
Forestry land Agricultural land Rangelands/grasslands |
Totals for each land system are provided |
Trees, soil, forest floor and understory vegetation |
Carbon budget model, FOCSEM. According to this model, current carbon storage is estimated separately for several forest ecosystems: trees, soil, forest floor and understory vegetation. Estimates of carbon storage in trees are based on Corine Land Cover survey (forested area), on the Italian Institute of Statistics (ISTAT) figures (historical estimates of forested area, removals, fires). The carbon stored in agricultural lands and grasslands has been estimated according to the 1996 IPCC Revised Guidelines for the activity "CO2 Emissions and Uptake from Land-Use Change and Management".[MISC. 6, p. 183] |
NR |
NR |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Japan |
Forestry land Agricultural land (includes Rangelands/grasslands) Other Grassland included under agricultural land |
Totals for each land system are provided |
Forestry land: Above- and below ground biomass accounted as carbon stock. Litter, humus and soil carbon not included as carbon stock. Agricultural lands: soil carbon. |
Forestry land: Carbon stock is estimated using stem volume in all forests, referring to the Survey of Current Status of Forest Resources, 1990, along with expansion coefficient, wood density and carbon content. Agricultural land: Carbon stocks in 1990 were estimated using the following data: - Total carbon stocks in cultivated soils from "Fundamental Survey of Environmental Quality for Soil (3rd, 1989-1993)" - Area of agricultural lands in 1990 Other: Carbon Stock = A × PW × BI × k, where A = area (ha); PW = percentage of planted tree area vis-a-vis park area; BI = biomass increase in a year; k = 0.5 carbon content [MISC. 6/Add. 1, p. 20] |
Forestry lands: As plantations established in postwar years are still in the growing stage, carbon stocks is increasing even if felling volume is subtracted out. Agricultural land: Even if total carbon stock in agricultural land decline as a result of decline in the total area of such lands increased to carbon emissions do not necessarily result. Other: depend on the definition of activities shown in Article 3.4 of the Kyoto Protocol |
QlA |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Netherlands |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Other |
Totals for each land system are provided |
Forest: Biomass and forest soil carbon; Agricultural vegetation (standing crop, belowground biomass, litter and soil organic matter) |
The estimates for the size of the carbon stocks in forest vegetation are based on widely applied conversions of forest inventory (stemwood volume) data to whole tree carbon. For the conversions international literature and IPCC reporting guidelines are used. For forest soil carbon, the distribution of Dutch forests over soil types was assessed. For each soil type profile descriptions are used to assess organic matter content. Those were converted to carbon. [MISC. 6, p. 195] |
Possible changes in carbon stocks would be largely based on changes in areas and less on changes in carbon content, that accompany changes in land-use. Estimates would be highly uncertain and no extensive database exist yet. Estimates could be made available in the next 3 years on the basis of model calculations using soil maps. |
QtA (e.g. uncertainty for area: <5%; for carbon stock: 10-50%) |
|
New Zealand |
Forestry land (Planted areas, indigenous forest, shrublands, mangrove) Agricultural land (pastoral, horticultural) Rangelands/grasslands (Tussock) Wetland/tundra Other (Bare ground, urban areas, etc.) |
Data on carbon stock only for planted areas, indigenous forest, and shrublands are provided. There is additional data on carbon stocks in litter and soil carbon in the explanatory text. |
For planted forests: above and below ground carbon pools and litter (without soil carbon); indigenous forests and shrubs above and below ground biomass (without litter and soil carbon). Values for litter and soil carbon for all class of land given separately [MISC. 6/Add.1, p. 34]. |
Sources and methods are fully described in New Zealands National Inventory Report (2000); in Hall and Beets et al Estimate of the carbon stored in New Zealands indigenous forest and scrub vegetation for 1990. Preliminary estimates from the Carbon Monitoring Project of soil carbon for all land classed (excluding urban area) are based on the Vegetative Cover Map areas and are provisional. Methods and data sources are described in Tate et al Contribution of soil carbon to New Zealands CO2 emissions: revision of data layers and overlays. [MISC. 6/Add.1, p. 34] |
The carbon stock estimates presented in the table are based on preliminary results from this work. Changes in carbon stocks in planted forests are reported annual in New Zealand LUCF inventory. There is some evidence to suggest that there may be considerable changes in land-use occurring with the withdrawal of pastoral grazing on marginal agricultural land and is subsequent reversion to shrubland and ultimately indigenous forest. |
QtA (e.g. uncertainties for planted forests: ą 25%) |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Norway |
Forestry land Agricultural land Wetland/tundra Other Wetlands/tundra covered under other wooded lands ("Other")s |
Besides totals, data is provided on carbon stocks in 1) above-ground woody biomass, 2) below ground woody biomass, and 3) soil carbon |
Above-ground (stem woods, tops and branches), below ground (stumps and coarse roots) biomass, litter and woody debris and soil carbon |
Forestry land: see Table 2.b. Non-forestry land systems: Information on the methods used could be found in [MISC. 6, p. 58] |
Data on carbon stocks in 1995, 2000 are provided |
QlA/ QtA (e.g. for soil carbon uncertainty was estimated to 17-22%) |
|
Russian Federation |
Forestry land Agricultural land Grassland/pastures |
Carbon stocks provided for forestry land only. |
Not specified. |
No information provided |
NR |
NR |
|
Spain |
Forestry landt |
A total for forestry land is provided |
Forests: total live biomass |
The formula for calculation of the increase in forestry biomass uses the terms indicated below: the growth in larger trees, where the factor of 1.6 allows VCCu to be expanded into the volume of total live biomass. The formula has ignored the potential contribution of undergrowth and sparse trees in cleared forestry areas, as being, in the first case, contributions difficult to estimate precisely and, in the second case, of a low amount, perhaps less than 2%. In addition, the contribution of trees on non-forestry land (urban trees, etc.) is ignored. [MISC. 6, p. 211] |
NR |
NR |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
Sweden |
Forestry land Agricultural land Rangelands/grasslands Wetland/Peatlands Other (mountains, nature reserves, urban areas, infrast., etc.) Forest conservation added (productive forest area under conservation 1990) |
Totals for each land system are provided |
Forestry land: Above and below ground forest biomass and soil organic carbon estimated to 1 m Agricultural land and pastures: carbon content in agricultural / pasture soils including biomass Wetland/peatlands: average peatdepths to 2 m |
NR |
NR |
NR |
|
Switzerland |
Forestry land Agricultural land Rangelands/grasslands Wetland/tundra Otherv. stock of wood products (housing, paper ...) |
Besides the totals, data for forestry lands is split to soil carbon and carbon stock in biomass |
Forestry land: biomass; Cropland and rangeland/grassland: only soil carbon stocks 0-20 cm, biomass stocks are not include |
Some references and key assumptions provided. [MISC. 6/Add.1, p. 75] |
The average change over the years 1990 to 1995 in biomass is +1300 t C per year; this increase may continue the next one or two decades. |
NR |
|
United Kingdom |
The land system notations are changed to Woodlands, Arable, Pasture, Semi-natural, Other. |
Besides the totals, data on vegetation carbon stock and soil carbon is provided. |
Above and below ground biomass for all plant types, woody and non-woody. Soil carbon to a depth of 1 m (or less where appropriate) for mineral soils and to bedrock for peat soils. |
Reference is made to an additional document [MISC. 6, p. 223] |
Carbon stocks in forests are increasing due to programmes of A. Stocks of soil carbon, may be decreasing due to past expansion of agricultural use but this trend is slowing due to a range of agri-environment policies which have expanded conservation areas and tended to extensity agricultural practices. |
QtA (uncertainty = ą 25%) |
Table 3 (b) (continued)
|
Party |
Data provided |
Information provided |
||||
|
Land systems |
Carbon stock |
Carbon pool |
Methods |
Possible changes in carbon stocks |
Uncertainties |
|
|
United States |
The land system notations are changed: Forest (managed only); crop lands, grazing lands; wetland;w other (urban, water, etc). |
Totals for each land system are provided. |
Managed forests: as in Table 2.b, without carbon in wood products. Croplands and grazing lands: carbon stocks in the top 30 cm of soil. |
Forests: as in Table 2.b; Cropland and grazing land: IPCC methodology. Details could be found in MISC. 6/add. 1, p. 120. |
Possible future trends in carbon stocks are discussed in details. [MISC. 6/add. 1, p. 121] |
QlA/ QtA (Forests: 80% confidence interval. Cropland and grazing land: QlA) |
q The uncertainty of the total carbon stock in living biomass (334 ą 42 Mt C) was calculated by assuming a relative uncertainty of 20 % for the land categories "Agricultural lands" and "Grasslands" and of 70 % for the category "Other". The uncertainty of the total carbon stock in soil (792 ą 209 Mt C) was calculated by assuming a relative uncertainty of 70 % for the land category "Other".
r Data are reported only for forest and agricultural land.
s Under "Other", Norway also reports "Carbon in products and waste".
t Only forestry land is included in the estimates
u VCC: Taken directly from Table 201 ĢExistencias por especie y Comunidad Autónomaģ in the publication entlited ĢSegundo Inventario Forestal Nacional - Vol. Españaģ.
v Other includes : stock of wood products, housing, paper
w Grazing lands and wetlands are subdivided to privately and federally owned.
Table 3 (c): Definition of land systems provided by Annex I Parties
Part 1: Forestry land
|
Party |
Forestry Land |
|
Austria |
"Forestry land" according to the Austrian Forestry Act is an area stocked by trees (a list of tree species in this context is given in an annex to the Austrian Forestry Act), if the stocking of trees represents an area of at least 1000 m2 and is of an average width of at least 10 m. Forest areas, which are unstocked due to forest management practices (for instance harvesting areas or areas used for timber storage, skidding tracks or forest roads), are still referred to as "forestry land" according to the Austrian Forestry Act. |
|
Canada |
See definition of a forest in Table 2.c. |
|
Denmark |
3) Orchards, parkland, willow scrub, windbreaks etc. are not included in the forest area. |
|
Finland |
According to the Finnish system, forestry land is grouped into three classes according to site productivity: (i) Forestry land, where the potential annual increment is at least 1 m3/ha/a; (ii) Scrub land (unproductive forestry land), where the potential annual increment is between 0.1 - 1.0 m3/ha/a; Waste land, unless naturally treeless, products less then 0.1 m3/ha/a, and (iv) other forestry lands, mainly roads, depots, etc. The international definition of forestry land, as applied in the UN/ECE-FAO Temperate and Boreal Forest Resource Assessment 2000, sets a 10% canopy cover as the threshold between forestry land and other lands. |
|
France |
Forestry lands: forests and other woodlands, in accordance with FAO definitions, including forests, woodlands, poplar plantations, scattered trees, hedges and heathland. |
|
Iceland |
Forestry lands are native birch woodland and planted forest using native species and introduced conifers and broadleaf trees. |
|
Irelandw |
Woodland cover was estimated as the sum of the Broad-leaved forest, Coniferous forest, Mixed forest and Transitional woodland/scrub categories. |
|
Japan |
"Land with trees and/or bamboo growing in a group, and/or land provided for collective vegetation of trees and/or bamboo (Article 2.1, the Japanese Forest Law). |
|
Netherlands |
Crown cover 20%, minimum area 0.5 ha, minimum average width 30 m. |
|
New Zealand |
Planted forests, indigenous forest, shrublands, mangrove. |
|
Norway |
See definition of a forest in table 2.c. |
|
United Statesw |
Managed forest (timberland) only. Other forestry lands (such as parks, wilderness, wildlife preserves, and recreation areas) are not included. |
Part 2: Agricultural land
|
Party |
Agricultural land |
|
Austria |
Agricultural lands" include lands which are used for crop and cereal production and gardenland (e.g. vineyards, orchards etc.). |
|
France |
Cultivated land, fallow land, orchards and vineyards, family gardens. |
|
Germany |
There are two terms commonly used in German agro-statistics to describe agricultural lands "Landwirtschaftlich genutzte Fläche" LN and "Landwirtschaftsfläche" LF. While LF describes the total area devoted to agriculture, LN describes only that part of LN which is actually used and set aside land, private parks, lawns and decorational gardens are excluded. LN is reported here and covers all area used for agriculture, horticulture and viticulture. In German agro-statistics the subclasses grassland and grassland to graze animals are usually report within LN. We excluded it here, as it seems reasonable to report it in under the next category. |
|
Iceland |
Agricultural land are permanent hay fields, potato fields and barley fields. |
|
Irelandw |
The area of tillage was estimated as the sum of the Non-irrigated arable land and half of the Complex cultivation patterns categories. |
|
Japan |
Corresponding divisions: paddy fields, normal patches, fruit farms, grasslands, and facilities. |
|
Netherlands |
The area of agricultural lands include permanent crops, arable land, vegetables, greenhouses and flower cultivation.. |
|
New Zealand |
Pastoral, horticultural (sub-divisions provided in Table II ). |
|
Norway |
The area of grain crops corresponds quite closely with the annually cultivated land. Areas of other annually cultivated crops are very small. The remainder 2/3 is mainly grass lay of varying age, e.g. from 4 to 7 years. Cultivated areas in different counties are provided from agricultural statistics. |
|
United Statesw |
Cropland includes all land on which agricultural field crops are grown. This includes annual crop production, perennial crop production such as hay, and land that is still considered agricultural land but is not currently being used for crop production (e.g. set-aside and Conservation Reserve Program). All cropland is considered as managed for purposes of food and fibre production, using a variety of practices including crop selection and rotation, tillage, manuring, fertilisation, irrigation, harvest and residue management. |
w Land systems classification are modified as shown in table 3b.
Part 3: Rangelands/grasslands
|
Party |
Rangelands/grasslands |
|
Austria |
Grasslands" includes agricultural used grasslands, agricultural used alpine pastures and no more used agricultural grasslands, which have not been converted to other uses |
|
France |
Agricultural land under herbaceous cover. |
|
Germany |
This term is not to be found in German agrostatistics, however the subclasses grassland and grassland to graze animals fit into this category. |
|
Iceland |
Rangelands/grasslands are non-cultivated land used for grazing. |
|
Ireland |
The area of grassland was estimated to be the sum of Pastures, Land principally occupied by agriculture with significant areas of natural vegetation, Natural grassland and half of the Complex cultivation patterns and Natural grassland categories. |
|
Netherlands |
Including grasslands in low areas. |
|
New Zealand |
Tussock |
|
United Statesw |
Grazing land (privately owned and federally owned) is defined by the Society for Range Management as: "a collective term that includes all lands having plants harvested by grazing without reference to land tenure or other land-uses, management, or treatment practices." Grazing land includes all land on which the primary productive use is for herbivore grazing, including permanent (or long-term) pasture and rangeland. Our definition for grazing land does not include forested land that is grazed or land used primarily for annual crops or hay production that may be seasonally grazed. |
Part 4: Wetlands/tundra
|
Party |
Wetlands/tundra |
|
Canada |
Wetlands in Canada are defined as lands saturated with water long enough to allow the physical processes or biological activities characteristic of aquatic environments. They are divided into peatlands (bogs and fens) and non-peat accumulating wetlands (marsh, swamps and shallow water). |
|
France |
Water and wetlands. |
|
Iceland |
Wetland are bogs and mires (no permafrost or tundra areas are found in Iceland). |
|
Irelandw |
The area of peatland was estimated as the sum of Peat bogs, the Moors and heathland, and half of the Natural grassland. |
|
Netherlands |
The area of wetlands (Wetland International, 1998) includes designated areas in the Netherlands but does not include coastal zones (i.e. Waddensea). |
|
Norway |
See "other" definitions below |
|
United States |
Areas for "Wetland" (privately owned and federally owned) derive from the category for organic soil, non-cropland in the IPCC inventory. Wetland areas include private lands that have histosols (i.e., organic) soils only. They do not include other wetland soils or tundra. |
Part 5: Other
|
Party |
Other |
|
Austria |
Other" includes alpine unused areas with undisturbed vegetation which do not belong to the category Forestry lands", sealed land for buildings, land for traffic infrastructure, glaciers and rocks, surface waters etc |
|
Finland |
Includes: build-up land, unclassified, other spatially not specified: wood products (inlcudes wooden products of Finnish building stock) and wood products in landfills. |
|
France |
Bare rock areas, "artificialized" land, urbanised land, and "off limit" areas. |
|
Germany |
Buildings and surroundings: This term describes areas covered by buildings as well as the surrounding free areas which have a functional association to the use of the buildings, such as playgrounds home gardens, yards and others. Recreational land: All types of sport grounds, or areas devoted to present animals (zoological gardens) or plants (botany gardens). Transportation and traffic area: Areas devoted for transportations by road-, rail-. Air- or water traffics. Water covered: Inland areas covered permanently or non permanently by water, regardless of natural or manmade origin, including river banks towing paths and similar. Other: All uses not attributable to above mentioned categories |
|
Iceland |
Deserts are areas with limited plant cover either due to erosion or sand encroachment (mainly on the central highlands). |
|
Ireland |
Other comprises Green urban areas and Sport and leisure areas. |
|
Japan |
Square parks, Neighbourhood parks, Community parks, Comprehensive parks, Sport parks, Large scale parks, Specific parks, National government parks, Buffer greenbelts, Ornamental green spaces, Greenways, Specified community parks, and Green space conservation zones |
|
Netherlands |
The area of other land includes urban land, lakes, rivers and infrastructure, nature areas, and for other land-use (CBS, 1998). |
|
New Zealand |
Include bare grounds, urban areas, etc. |
|
Norway |
"Other wooded lands" defines areas with a minimum of 5 % crown coverage and tree heights over 5 meters at maturity, or a crown coverage of more than 10% and tree heights under 5 meters at maturity, which is the FAO definition. |
|
Sweden |
Mountains, nature reserves, urban areas, infrastructure, etc. |
|
Switzerland |
Stock of wood products (housing, paper ) |
|
United States |
Chiefly urban/peri-urban, other rural land, and some montane tundra |
Data and summary information related to Table III of the data format (Article 3.4. of the Kyoto Protocol)
Table 4 (a): Preliminary data and information provided by Annex I Party on Article 3.4 activities, related GHG emissions and removals, involved areas, and projected carbon stocks changes (additional activities under Article 3.4)
The structure of this table diverts slightly from the information requested in the original mandate (see annex) with respect to the non-CO2 gases. The data for N2O and CH4, are displayed in a common column under "non-CO2" as only few Parties have treated these gases.
Most of the Parties have indicated that they have reported for activities according to the periods "since 1990 up to 1995", "since 1990 up to 1999" and "since 1990 up to 2012". However, other Parties have indicated different periods. Any deviation from the standard reporting periods indicated in the data format are indicated in a note at the end of the table.
Table 4 (b): Summary of information on GHG emissions and removals, involved areas, and projected carbon stock changes relevant to Article 3.4 activities in Annex I Parties
This table contains an excerpt of the explanatory text submitted by each Party related to additional activities under Article 3.4, the accounting approaches used, the carbon pools, the methods used to provide estimates, and the projections for the first commitment period.
Table 4 (c): Definitions of activities proposed under Article 3.4
This table compiles the definitions provided by each Parties of additional activities under Article 3.4. As for tables 3 (c) and 4 (c), only a selection of the explanatory text submitted by Parties is displayed in the table.
Table 4 (a): Preliminary data and information provided by Annex I Party on Article 3.4, related GHG emissions and removals, involved areas, and projected carbon stocks changes (additional activities under Article 3.4)
|
Party |
Activity |
Accounting framework |
aI (1000 ha) |
CO2, I (Gg CO2)* |
non-CO2, I (Gg CO2 equiv.)*§ |
aII (1000 ha) |
CO2, II (Gg CO2)* |
non-CO2, II (Gg CO2 equiv.)*§ |
acp (1000 ha) |
D Ccp (Gg C) |
CO2, cp (Gg CO2)* |
non-CO2, CP (Gg CO2 equiv.)*§ |
|
|
Australia |
1. Revegetation activities |
LB |
NR |
NR |
NR |
NR |
NR |
NR |
1 048 |
10 906 |
39 989 |
NR |
|
|
Canadaa |
1. Forest management |
LB |
134 000 |
477 000 |
-8 000 (CH4) -6 000 (N2O) |
134 000 |
730 000 |
-11 000 (CH4) -10 000 (N2O) |
134 000 |
48 000 |
176 000 |
-4 000(CH4) -5 000(N2O) |
|
|
2. Cropland management |
LB |
a) lowb |
34 666 |
-22 091 |
NR |
34 385 |
-22 161 |
NR |
34 150 |
3 078 |
11 285 |
0 |
|
|
b) medium |
34 666 |
-22 091 |
NR |
34 385 |
-22 161 |
NR |
33 400 |
13 089 |
47 992 |
-87.03(CH4) -7 008(N2O) |
|||
|
c) high |
34 666 |
-22 091 |
NR |
34 385 |
-22 161 |
NR |
33 300 |
20 478 |
75 087 |
-87.13(CH4) -8 500(N2O) |
|||
|
3. Grazing land management and livestock |
LB |
a) low |
26 174 |
3 587 |
NR |
26 798 |
8 682 |
NR |
26 487 |
2 073 |
7 603 |
0 |
|
|
b) medium |
26 174 |
3 587 |
NR |
26 798 |
8682 |
NR |
27 300 |
7 051 |
25 853 |
-3 307(CH4) -2 422(N2O) |
|||
|
4. Shelterbelt |
LB |
a) low |
20 |
300 |
NR |
30 |
600 |
NR |
70 |
400 |
1 400 |
0 |
|
|
b) high |
20 |
300 |
NR |
30 |
600 |
NR |
120 |
600 |
2 200 |
0 |
|||
|
Finlandc |
1. Forest management (including forest conservation) |
LB |
23 000 |
154 900 |
NR |
23 000 |
198 200 |
NR |
23 000 |
11 000d |
40 000d |
NR |
|
Table 4 (a) (continued)
|
Party |
Activity |
Accounting framework |
aI (1000 ha) |
CO2, I (Gg CO2)* |
non-CO2, I (Gg CO2 equiv.)*§ |
aII (1000 ha) |
CO2, II (Gg CO2)* |
non-CO2, II (Gg CO2 equiv.)*§ |
acp (1000 ha) |
D Ccp (Gg C) |
CO2, cp (Gg CO2)* |
non-CO2, CP (Gg CO2 equiv.)*§ |
|
France |
R. Reference |
LB |
13 948 |
167 422 |
NR |
13 948 |
279 036 |
NR |
13 948 |
38 016h |
139 518 |
NR |
|
1. Forest management in state forests |
LB |
1 610 |
3 901 |
NR |
1 610 |
6 502 |
NR |
1 610 |
886h |
3 251 |
NR |
|
|
2. Forest management in other public forests |
LB |
1 984 |
18 352 |
NR |
1 984 |
30 586 |
NR |
1 984 |
4 167h |
15 293 |
NR |
|
|
3. Forest management in private forests |
LB |
2 497 |
34 793 |
NR |
2 497 |
57 989 |
NR |
2 497 |
7 900 h |
28 995 |
NR |
|
|
4. Conversion of mixed coppice/high forest stands into high forests |
AB |
110 |
513 |
NR |
184 |
855 |
NR |
423 |
536 h |
1 966 |
NR |
|
|
5. Enhancement of carbon sink in wood products |
scenario A: economic growth = +1% |
NR |
NR |
NR |
NR |
NR |
NR |
13 000 |
||||
|
scenario A: economic growth = +3% |
NR |
NR |
NR |
NR |
NR |
NR |
32 000 |
|||||
|
Germanye |
1. Forest management |
LB |
10 740 |
168 597 |
NR |
10 740 |
335 748 |
NR |
10 740 |
43 000 |
155 000 |
NR |
|
Iceland |
1. Revegetation |
LB |
12.5 |
172 |
NR |
28.2 |
699 |
NR |
70 |
262 h |
963 |
NR |
|
Italy |
1. Activities to prevent carbon emissions (fire prevention) |
AB |
11 |
2 238 |
32 (CH4) 3.3 (N2O) |
81 |
4 201 |
127.7 (CH4) 13 (N2O) |
NR |
NR |
NR |
NR |
|
2. Conversion of grazing lands to forest |
AB |
437 |
4 955 |
NR |
631 |
8 125 |
NR |
1 308 |
5 537 h |
20 321 |
NR |
|
|
Japane |
1. Forest management |
|||||||||||
|
1.a. all forests |
AB |
25 146 |
457 512 |
NR |
25 197 |
740 564 |
NR |
25 220 |
56 840 |
208 415 |
NR |
|
|
1.b. managed forests |
AB |
8 084 |
135 792 |
NR |
8 657 |
233 156 |
NR |
12 450 |
48 948 |
179 475 |
NR |
|
|
2. Urban greening |
AB |
15 050f |
166 |
NR |
38 050f |
698 |
NR |
83 050f |
378 |
1 386 |
NR |
|
Table 4 (a) (continued)
|
Party |
Activity |
Accounting framework |
aI (1000 ha) |
CO2, I (Gg CO2)* |
non-CO2, I (Gg CO2 equiv.)*§ |
aII (1000 ha) |
CO2, II (Gg CO2)* |
non-CO2, II (Gg CO2 equiv.)*§ |
acp (1000 ha) |
D Ccp (Gg C) |
CO2, cp (Gg CO2)* |
non-CO2, CP (Gg CO2 equiv.)*§ |
|
Netherlandsg |
1. Forestry improved management |
LB/AB |
5.4 |
59 |
NR |
6.34 |
70 |
NR |
10.24 |
154 |
563 |
NR |
|
2. Cropland |
LB/AB |
55 |
60 |
NR |
91 |
100 |
NR |
209 |
63 |
230 |
NR |
|
|
3. Grazing land |
LB/AB |
2 700 |
-16 200 |
NR |
4,500 |
-27 000 |
NR |
10 350 |
-3 682 |
-13 500 |
NR |
|
|
Norway |
1. Fertilisation |
AB |
2 |
51 |
0.56 (N2O) |
2 |
84 |
0.93 (N2O) |
35 |
725 |
683 |
1.54 (N2O) |
|
Spain |
Activity 1 |
LB |
13 905 |
949 |
NR |
13 905 |
1 855 |
NR |
NR |
NR |
NR |
NR |
|
Sweden |
1. Forest management |
LB |
23 000 |
198 000 |
NR |
23 000 |
297 000 |
NR |
23 000 |
22 500 |
82 500 |
NR |
|
2. Forest conservation |
LB |
200 |
440 |
NR |
260 |
570 |
NR |
510 |
300 |
1 000 |
NR |
|
|
Switzerland |
1. Establishment of carbon forests and forest reserves to increase carbon stock |
LB |
12 |
790 |
NR |
12 |
1 185 |
NR |
100 |
1 450 |
5 316 |
NR |
|
AB |
12 |
NR |
NR |
12 |
NR |
NR |
100 |
NR |
NR |
NR |
||
|
2. Cropland management |
LB |
1 |
3 |
NR |
4 |
14 |
NR |
19 |
29 |
105 |
NR |
|
|
3. Cropland conversion to grassland |
LB |
3 |
11 |
NR |
8.63 |
34 |
NR |
11 |
26 |
95 |
NR |
|
|
4. Grassland management |
LB |
56 |
NR |
NR |
80.34 |
NR |
NR |
100 |
NR |
NR |
NR |
|
|
5. Increased use of wood products and other long term wood materials |
AB |
NR |
NR |
NR |
NR |
369 |
NR |
NR |
220 |
806 |
NR |
|
|
United Kingdom |
1. Forest management |
LB |
1 400 |
57 000 |
NR |
1 400 |
100 000 |
NR |
1 400 |
12 250 |
45 000 |
NRg |
|
2. Bioenergy crops |
LB |
0.084 |
15 |
0 |
0.423 |
80 |
0 |
125 |
1 250 |
4 600 |
NRg |
|
|
United States |
1. Forest management |
LB |
192 100 |
2 593 000 |
IEi |
198 930 |
8 770 000 |
NR |
196 150 |
1 442 000 |
5 292 140 h |
NR |
|
2. Cropland management |
LB |
167 770 |
28 000 |
-18 000(CH4) -410 000(N2O) |
168280 |
305 000 |
-68 000(CH4) -1 500 000(N2O) |
168 280 |
78 000 |
286 260 h |
NR |
|
|
3. Grazing land management |
LB |
274 410 |
72 000 |
-140 000(N2O)j |
276140 |
184 000 |
-270 000(N2O) |
276 140 |
41 000 |
150 470 h |
NR |
a Non-CO2 emissions associated with agricultural land management are already included in the GHG accounting for the Kyoto Protocol. This table shows only those additional emissions and removals that would be added into the accounting for the Protocol if cropland management and grazing land management & livestock are included under Article 3.4. In this case, NR for non-CO2 gases indicates that data are not estimated.
b The low, medium and high range of these estimates reflects different adoption rates of sink-enhancing practices.
c Change in forest area is not considered in this assessment, but changes in carbon stocks are included in gross figures. Non-CO2 gases are not included in the assessment, however, the Party reports that some estimates are available and provides reference to a publication.
d Different estimates vary between 4000-13 500 Gg C and 15-50 Mt CO2 during 2008-2012.
e In this case, NR for non-CO2 gases indicates that data are not estimated.
f For urban greening, the data shown are number of planted trees per year (x 1000)
g NR in this case indicates that the data are not available.
h These numbers were calculated by the secretariat, from D Ccp or CO2, cp data provided by Parties, by using 3.67 as a conversion factor.
I Estimates of all N2O emissions from soil from which nitrogen fertilizer is applied are included under "cropland management".
j Estimates for CH4 are not included because the removal of this gas by soils is not proposed by this Party under Article 3.4.
Note: Some Parties have reported against different periods compared to the one indicated in the data format as follows: USA: aI: 1992, aII : 1997, CO2I : 1990-1991, CO2II : 1990-1996. Germany: aI and CO2I:1994. Switzerland: for activities 2 and 3:aII : 1998. Sweden: aII: 1998, CO2II : 1990-1998.
Most of the Parties do not indicate whether they include or exclude the last year of the standard period of the data format in their calculations. Japan, Netherlands, and Norway indicate that the last year is included.
* These columns would contain the sum over the years concerned of net annual emissions by sources and removals by sinks for the Article 3.4 activities proposed.
A negative sign indicates either emissions by sources or a decrease in carbon stocks. A positive sign indicates either removals by sinks or an increase in carbon stocks.
To convert a carbon amount to CO2 multiply it by 3.67.
§ CH4 and N2O emissions are converted to CO2 equivalent emissions by using the global warming potential (GWP) values of 21 for CH4 and 310 for N2O (Source: Second Assessment Report of the IPCC, 1995)
aI Area (1000 ha) in 1995 or possibly an earlier specific year involved in the Article 3.4 activity since 1990.
CO2, I Net CO2 emissions (Gg CO2) by sources and removals by sinks related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
CH4, I CH4 emissions (Gg CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
N2O, I N2O emissions (t CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
aII Area (1000 ha) in 1999 or possibly an earlier specific year involved in the Article 3.4 activity since 1990.
CO2, II Net CO2 emissions (Gg CO2) by sources and removals by sinks related to the Article 3.4 activity,
accumulated from 1990 to the same year as used in aII.
CH4, II CH4 emissions (Gg CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aII.
N2O, II N2O emissions (Gg CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aII.
acp Projected area (1000 ha) in 2012 involved in the Article 3.4 activity since 1990.
ΔCcp Projected carbon stock changes (Gg C) over the first commitment period related to the Article 3.4 activity since 1990.
CO2, cp Projected net CO2 emissions related contribution (Gg CO2) of the Article 3.4 activity to the first commitment period assigned amount
of the Party.
CH4, cp Projected CH4 emissions related contribution (Gg CO2 equivalent) of the Article 3.4 activity to the first commitment period assigned
amount of the Party.
N2O, cp Projected N2O emissions related contribution (Gg CO2 equivalent) of the Article 3.4 activity to the first commitment period assigned
amount of the Party.
Table 4 (b): Summary of information on GHG emissions and removals, involved areas, and projected carbon stock changes relevant to Article 3.4 in Annex I Parties (additional activities under Article 3.4)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Australia |
Revegetation |
LB |
The data presented in Table III assumes a LB accounting framework, in which an area of land would be drawn into the Article 3.4 accounting system when an identified revegetation activity has occurred post 1990. [MISC. 6, p.30] |
Above ground biomass. |
A rate of carbon sequestration of 2.3 tonnes of carbon per hectare per year was used for revegetation areas, based on analysis by the Bureau of Resource Sciences. This is the average rate of carbon sequestration rate for the current mix of revegetation activities in Australia, including wide spaces trees, trees in windbreaks and shelterbelts, trees in alley plantings, salt bush, tea tree and oil mallee. [MISC. 6, p.30] |
Data and key assumptions are provided. Mathematical programming model of Australias broadacre agricultural sector based on farm level data collected in ABAREs Australian agricultural and grazing industries survey. |
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Canadah |
Forest management |
LB |
We have used a variety of assumptions and currently available data to derive the estimates shown in Table III, but we emphasize that these approaches do not reflect the systems that Canada proposes to use to measure and monitor additional activities. These proposed systems currently are being assessed and will be implemented as required once decisions have been made on what is acceptable. Our proposal for the inclusion of forest management would be accounted for using a LB accounting approach in terms of the managed forest area. [MISC. 6, p. 84] |
All biomass pools (above and below ground living biomass, harvested materials and harvested slash). Soil carbon not included (although proposal for inclusion of all pools that are sources). |
Our estimates are based on the methodology of the Revised 1996 IPCC Guidelines for National Greenhouse Gas Inventories and the data underlying Canadas latest report on LUCF, published in 1999 as part of our greenhouse gas inventory (Sellers and Wellisch 1998, Neitzert et al. 1999) [MISC. 6, p. 85] |
Data and key assumptions are provided for each activity. |
|
Cropland management |
Details on the approaches are given in MISC. 6, p. 86, 93 (see annex 3 to Canadas submission). |
Soil organic carbon pool. |
CEEMA, CRAM, CENTURY model. [MISC. 6, p. 86, 93] |
|||
|
Grazing land management |
||||||
|
Shelterbelt management |
Above and below ground biomass carbon. |
Based on information on land productivity, tree species and growth rates. [MISC. 6, p. 86, 93] |
||||
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Finland |
Forest management (including forest conservation) |
LB |
Forest inventories and information systems provide data on stemwood increment, harvesting and drain. For assessing the carbon balance, annual carbon sequestration estimates of woody biomass are based on increment figures of the Finnish national Forest Inventory. Annual carbon release estimates are derived from harvesting statistics, estimated cutting waste and natural mortality. [MISC. 6, p. 147] |
In this preliminary assessment above ground woody biomass, and below ground woody carbon are included. |
The Finnish National Forest Inventory is based on inventories on systematical sampling areas. The specific technical inventory illustration can be found e.g. on the website of Finnish Forest Research Institute, http://www.metla.fi/tutkimus/vmi/nfi.htm [MISC. 6, p. 148] |
Data and key assumptions are provided. Future projections are based on the Finnish National Forestry Programme (approved by the Government of Finland in 1999). that aims at increasing use of wood for renewable source of energy by 2010. |
|
France |
Forest management in: - state forests |
LB |
No explanations are provided |
Above and below ground biomass, harvested materials |
See table 2 .b. and MISC. 6, p.155. |
Data and key assumption are provided. |
|
- other public forests |
||||||
|
- private forests |
||||||
|
Conversion of mixed coppice/high forest stands into high forests |
AB |
|||||
|
Enhancement of carbon sink in wood products |
NR |
|||||
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Germany |
Forest management |
LB |
No explanations are provided. |
Above ground biomass. Litter, below-ground biomass and soil carbon have been considered to remain constant over time under sustainable management and have not been included. |
Carbon sequestration has been estimated by comparing biomass increment and harvest, using the methodology for greenhouse gas inventories (IPCC guidelines for GHG Inventories). [MISC. 6, p. 172] |
Data available Key assumption provided. |
|
Iceland |
Revegetation |
LB |
Methods to measure the sequestration (in trees and by afforestation, sequestration in biomass other than trees, and sequestration in soils). The research program (initiated in 1998), aims to formulate an Icelandic Sequestration Method (Ice-C-Method) which will be, after completion, used for determining carbon sequestration. At this stage it is mostly designed for revegetation activities, but other similar methods are being developed for the forestry activities. [MISC. 6/Add.1, p. 7] |
Soil carbon, above-ground biomass, litter and rootmat. Life roots below the rootmat are excluded as research shows that this fraction normally yields <1% of the total carbon. |
All data is verifiable with aerial information stored in a GIS system, together with information on site conditions and revegetation treatment. Each area receives its carbon sequestration rate, based on research (Ice-C-Method), and samples are taken from each site for carbon measurement. The carbon sequestration for each of the sites is then adjusted according to results from measurements. [MISC. 6/Add.1, p. 8] |
Data is provided only for CO2 |
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Italy |
Activities to preserve carbon emissions (fire prevention) |
AB |
No explanations provided |
Not specified |
No explanations provided |
No data and information. |
|
Conversion of grazing land to forests |
Only data are provided. |
|||||
|
Soil carbon conservation |
NR |
|||||
|
Forest conservation |
NR |
|||||
|
Japan |
Forest management |
AB |
The AB accounting approach is applied for estimation. Sequestration is estimated based on growth of the Managed Forest in the assessment period and, as with carbon stocks from the activities under Article 3.3, above- and below-ground biomass is estimated with standing tree volume, and then sequestration under Article 3.3 and emissions due to harvest are subtracted. [MISC. 6/Add.1, p.24] |
Carbon pools of above- and below-ground biomass other than understory vegetation, litter, humus and soil carbon. |
No models or key parameters are used. [MISC. 6/Add.1, p.24] |
Data and references provided. |
|
Urban Greening |
Accounted by the number of planted trees for this estimation. Therefore, it is also applicable in the case of other divisions of land. Use the annual average number of planted trees and the trends from 1991 to 1995. Estimate carbon stocks by multiplying this projected activity data: biomass increase in the wooded land under the IPCC definition (2.0 t/ha); carbon content coefficient (0.5); surveyed number of planted tree in the urban park (1,000 pieces/ha). Since these activities develop areas of land, to plant trees artificially where there has been previously no greenery, no baseline is used. This is because it can be regarded as the same activities as "afforestation" under Article.3.3. [MISC. 6/Add.1, p.24] |
Above- and below-ground biomass other than understory vegetation, litter, humus and soil carbon are included in carbon pools. |
Surveys of current status of urban parks which form green zones in urban planning. [MISC. 6/Add.1, p.24] |
Data available Key assumptions provided. |
||
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Netherlands |
Forest management |
AB, LBi |
For details on forest management approach see Table 2.b and MISC.6, p. 198 |
Whole tree biomass, litter, soil organic matter, slash and wood products |
The average carbon pools in the forest biomass and average regrowth rates are used. No further stratification has been applied apart from regrowth rates for forests on agricultural lands and regrowth rates for the existing forest that is being harvested. For the subsequent periods simple assumptions were made for the regrowth rates times area per age class. We did not distinguish between forest growth rates (and soil carbon losses) on former cropland or pasture, or different soil types. [MISC. 6, p. 198] |
Data and key assumptions are provided. |
|
Cropland management |
For details on cropland management see MISC. 6, p.199 |
Below ground C in litter and soil. |
Methodologies and data are scarce; calculations for the C stocks soil could be made based on model calculations and soil types. With these model exercises, N2O emissions for agriculture in the Netherlands have been estimated (ROB-Agro-Report, in prep). The accounting approaches are based on statistical data from annual inventories on agricultural practices and farm management that are available from LEI-DLO and CBS as sources of statistical data; these are considered to be equal to FAO inventories. [MISC. 6, p.199] |
|||
|
Crazing land management |
For details on grazing land management see MISC.6, p.200 |
|||||
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Norway |
Increased fertilisation in older forests |
AB |
The assessed activity can be interpreted to be narrow-based, and we have calculated the outcome in increased carbon uptake from estimations of area of practice and increased increment following the fertilisation. Our assessment also includes estimates of emissions of nitrous oxide resulting from the activity. [MISC. 6/Add. 1, p. 65] |
Above-ground (stem woods, tops and branches), below ground (stumps and coarse roots) biomass and soil carbon. Carbon stocks in harvested materials are not included |
For details on methods see MISC. 6/Add. 1, p. 66. |
Data and key assumption provided. Trends beyond the first commitment period are also given. |
|
Spain |
Activity 1 |
LB |
[MISC. 6, p. 213] |
Biomass |
There are not global scale measurements of C, but local experimentation areas. Method of calculation is based in VCC data provided by the difference between the Second National Forest Inventory (IFN-2) and the First National Inventory (INF-1). [MISC. 6, p. 213] |
No data and information are provided. |
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
Sweden |
Forest management |
LB |
Considered as a broad activity. The managed forest area is averaged to be constant over the years 1990 2012. Productive forestry land differs from other landtypes, marginal lands, etc which also may contain slow growing forests or tree cover, by storing certain amount of carbon every year provided that the biomass increment is bigger than removals by harvesting or any other circumstance like fires, storms, etc. [MISC. 6, p. 217] |
Above and below ground forest biomass |
No information is provided. |
Only data are provided. |
|
Forest conservation |
LB |
Considered as a narrow activity. Forests included in Table III are all well growing exceeding average annual increment of Swedish forests as no forest measures like thinning or any kind of cutting occur. [MISC. 6, p. 217] |
||||
|
Switzerland |
Establishment of carbon forests and forest re-serves to increase carbon stock |
LB/AB |
No additional information is reported. |
Not specified. |
Estimation of possible area in CP multiplied by average growth of Swiss forests. MISC.6/Add 1, p.77 |
Data and key assumptions are provided. |
|
Cropland management |
LB |
Activities belong to the broad categories cropland/grassland management and cropland conversion [MISC. 6/Add. 1, p. 77] |
Soil organic carbon 0-20 cm. Aboveground biomass is not included. |
Changes in C-stocks were calculated using the area and rates of annual C-gain. [MISC. 6/Add. 1, p. 77] |
||
|
Cropland conversion to grassland |
Only data are provided. |
|||||
|
Grassland management |
Data and information are provided |
|||||
|
Increased use of wood products and other long term wood materials |
AB |
No information |
No specified. |
Estimation based on extrapolation of "End-use of wood products" |
Only data are provided. |
|
Table 4 (b) (continued)
|
Party |
Activities |
Information provided on |
||||
|
Accounting approaches |
Carbon pools |
Methods |
Projections |
|||
|
AB/LB |
Additional explanations |
|||||
|
United Kingdom |
Forest management |
LB |
All but some 300 kha of the UK's 2.3 Mha forest estate is managed and is accumulating carbon. The increase in carbon stock in forests planted since 1990 is reported here in Table I.A under Article 3.3 of the Kyoto Protocol and the difference between this amount and that in the GHG Inventory is entered here in Table III.A (under forest management). These values therefore refer to the accumulation in carbon on the standing forest area in 1990 for periods subsequent to that date up to the end of the I CP. [MISC. 6, p. 224] |
Not specified. |
The methods used for calculating the uptake of carbon by the UK forest stock are described in Milne et al (1998) and Cannell et al (1999). [MISC. 6, p. 224] |
Only data are provided. |
|
Bioenergy crop production |
LB |
The data show only enhanced soil carbon uptake in arable land planted with short rotation coppice (SRC), assuming the same accumulation of SOC under short-rotation woody bioenergy crops as seen under natural woodland regeneration (1.17% y-1; see Smith et al 2000). MISC. 6, p. 224] |
Not specified. |
No information is provided. |
||
|
United States |
Forest management |
LB |
The accounting approach is a broad, land-based approach in which the total managed land areas for each category are included. All net carbon removals associated with these activities are accounted for by estimating changes in carbon stocks from the beginning to the end of the period. [MISC. 6/Add. 1, p. 129] |
As in table 1.B Carbon in dead wood in the forest is not currently included; estimates of this pool are under construction. |
Data analysis and models, see Table 2.b. |
Data (only on carbon change) and key assumption are provided. Trends beyond the first commitment period are given. |
|
Cropland management |
Carbon stock changes in the top 30 cm of soil |
IPCC and models [MISC. 6/Add. 1, p. 133] |
||||
|
Grazing land management |
||||||
h We have used a variety of assumptions and currently available data to derive the estimates shown in Table III, but we emphasize that these approaches do not reflect the systems that Canada proposes to use to measure and monitor additional activities. These proposed systems currently are being assessed and will be implemented as required once decisions have been made on what is acceptable.
i No difference in the reported values.
Table 4 (c): Definitions of activities proposed under Article 3.4
|
Party |
Activity |
Definition |
|
Australia |
Revegetation activities |
Revegetation is defined as the human induced establishment of woody vegetation that covers a minimum area of 0.5 hectare with a minimum width in any direction of 10 metres and does not meet the definitions of afforestation or reforestation under Article 3. Eligible revegetation activities include:
|
|
Canada |
Forest management |
For the purposes of Article 3.4, forest management is the broad set of management activities in the forest related to multiple use values including timber, which is the forest use of greatest significance for carbon stock changes. |
|
Cropland management |
Cropland refers to land that produces annual field crops (grains, oilseeds, pulses, and potatoes) for harvest or green manure, as well as summerfallow land. Summerfallow, idle land in the agricultural census, is cropland that is not seeded to a crop for one growing season, and on which chemical or tillage weed control practices are used. The practice of summerfallow is used in the most arid regions of the prairies to store soil moisture for the succeeding crop. Statistics Canada defines zero tillage as a practice with "no tillage prior to seeding" that includes direct seeding into stubble or sod, and ridge tilling. Minimum tillage is defined as "tillage prior to seeding that retains most of the crop residue on the surface" (Statistics Canada). Conventional cropping systems are any other systems in which tillage incorporates most of the crop residue into the soil (Statistics Canada). |
|
|
Grazing land management and livestock |
Grazing land management applies to land used for livestock production (hayland, improved and natural pasture) and includes estimates of direct and indirect emissions from the associated animals. Hayland is alfalfa and alfalfa mixtures or other tame hay cut for hay or silage. Improved pasture includes land that has been cultivated and seeded, or drained, irrigated, fertilized, or controlled for weeds or brush. Natural pasture includes native pasture, native hay, and rangelands (Statistics Canada). |
|
|
Shelterbelt |
Carbon sequestration from the planting of trees and shrubs on agricultural land in the form of shelterbelts on the Prairies was also assessed. |
|
|
Finland |
Forest management (including forest conservation) |
Forest management is considered as a broad activity, and it includes forest conservation. |
Table 4 (c) (continued)
|
Party |
Activity |
Definition |
|
France |
Forest management in state forests |
Forest management in State forests which had an approved management plan in 1990; |
|
Forest management in other public forests |
Forest management in other public forests which had an approved management plan in 1990; |
|
|
Forest management in private forests |
Forest management in private forests which had an approved management plan in 1990; |
|
|
Conversion of mixed coppice/high forest stands into high forests |
Conversion of mixed coppice/high forest stands into high forests; |
|
|
Enhancement of carbon sink in wood products (except for paper and paper board) |
Enhancement of carbon sink in wood products in France (except for paper and paper board) |
|
|
Germany |
Forest management |
The activity comprises the sustainable multipurpose management of forests for wood and non-wood goods and services, protection and recreation. Typically, production, protection and recreation aims are reached through sustainable management on the same area. Carbon sequestration is only one of the multiple functions of sustainable managed forests. |
|
Iceland |
Revegetation |
Direct human activity to increase carbon stocks in above- and below-ground biomass and in soils on sites with minimal vegetative cover and low organic matter content. |
|
Italy |
Activities to prevent carbon emissions |
Fire prevention. (No further definition provided) |
|
Conversion of grazing lands to forest |
As a consequence of a clear commitment made by the European Community and the national authorities to reduce the price protection policy for many agricultural products, marginal agricultural land is abandoned and naturally converted to forestland. This is not a "natural" process, being linked to Common Agricultural Policy reform, to a new model of rural development based on a multi-sectoral economy (tourism and recreation, handicraft, high quality agricultural products for niche market, timber production, etc.). |
|
|
Japan |
Forest management |
Activities to establish healthy and vital forests, in order to develop and enhance various functions of forests comprehensively, and to assure national land conservation, prevent disasters and provide a comfortable environment.More specifically, the activities include plantation, regeneration assisting practices such as surface scarification and brush cutting, weeding, clean-cutting among others. |
|
Urban greening |
Activities in planting trees on the urban parks, roads, rivers, etc., sewage-disposal plants, facilities for government and other public offices, public housing, among others |
Table 4 (c) (continued)
|
Party |
Activity |
Definition |
|
Netherlands |
Forest management |
This management includes thinning and normal harvest and regeneration cycle. Most of the forest area has been managed in even-aged stands as monocultures in regular rotations of 60 to 100 years. Managed is changing towards stand which are uneven-aged and mixes and more selective cutting and longer rotations (80-120 years). Management today does hardly include any drainage of sites or fertilization or liming except in cases of restoration of nutrient balances following acidification and/or eutrification. Forest fires are rare and management does not include pest control. |
|
Cropland management |
Improved cropland management includes reduced tillage (more shallow and less frequent), improved management and application of crop residues (aimed at reducing the loss of residue N and thus of C), less bare-fallow (introducing cover crops), increased ley-arable farming on former arable land (as a result of expanding the area where biological farming principles are applied and no mineral fertilizer is applied). |
|
|
Grazing land management |
According to the EU definition, permanent grassland is grassland that is not in rotation and that is continuous grassland for 5 or more consecutive years. In the Netherlands, a large area of grassland is regularly subject to ploughing and reseeding to maintain productivity and introduce new and more productive grass varieties. This practice would qualify as grassland management. This practice requires additional nitrogen fertilization to compensate for the nitrogen lost. In the Netherlands, peatlands are often covered by grazing land. Drainage management is very important on these areas. Measures for improved grazing land management would include reducing the area and intensity of improving grassland productivity through ploughing and reseeding and replace with a practice where reseeding is done without ploughing "old" and permanent grassland or where ploughing and re-seeding is applied in spring and not in autumn. |
|
|
Norway |
Increased fertilization |
In Norway the fertilised area on mineral soil the last years accounts to about 2000 ha per year. We have estimated that it would be technically possible to increase the fertilised area to about 35,000 ha per year, and this is described further in the following. The increased nitrogen fertilisation described is implemented only in older forests (cutting class IV and V), where the effects on carbon stocks are highest. Fertilisation in younger forest (cutting class II and III) can give increased increment, but this activity is excluded because of the controversy with regard to possible environmental effects and the long period of economic return. |
|
Spain |
Activity 1 |
No definition is provided. |
|
Sweden |
Forest management |
Broad activity |
|
Forest conservation |
Narrow activity. Areas are well-defined and protected by legal means without time limits. |
Table 4 (c) (continued)
|
Party |
Activity |
Definition |
|
Switzerland |
Establishment of carbon forests and forest re-serves to increase carbon stock |
No definition is provided. |
|
Cropland management |
Key practice is conservation tillage |
|
|
Cropland conversion to grassland |
Key practice is conversion of cropland to grassland |
|
|
Grassland management |
Management change from intensive hay/pasture to extensively managed, low input grassland. |
|
|
Increased use of wood products and other long term wood materials |
No definition is provided. |
|
|
United |
Forest management |
No definition is provided. |
|
Kingdom |
Bioenergy crops |
No definition is provided. |
|
United States |
Forest management |
Forest management is an activity involving the regeneration, tending, protection, harvest, access and utilization of forest resources to meet goals defined by the forest landowner. "Managed forests" are also known in the U.S. as timberlands. They are defined in the U.S. database as those lands which are capable of producing at least 1.4 m3ha-1yr-1 of industrial wood under natural conditions and are not reserved for purposes other than timber production. For example, timberlands do not include parks, wilderness, recreation areas, wildlife preserves, or other forests that are inaccessible or otherwise not available or appropriate for wood production. |
|
Cropland management |
Cropland includes all land on which agricultural field crops are grown. This includes annual crop production, perennial crop production such as hay, and land that is still considered agricultural land but is not currently being used for crop production (e.g. set-aside and Conservation Reserve Program). All cropland is considered as managed for purposes of food and fiber production, using a variety of practices including crop selection and rotation, tillage, manuring, fertilization, irrigation, harvest and residue management. |
|
|
Grazing land management |
Grazing land is defined by the Society for Range Management as: "a collective term that includes all lands having plants harvested by grazing without reference to land tenure or other land-uses, management, or treatment practices." Grazing land includes all land on which the primary productive use is for herbivore grazing, including permanent (or long-term) pasture and rangeland. Grazing land management encompasses all practices aimed at manipulating the amount and type of forage and livestock produced, including regulation of animal stocking rates, forage species selection, fertilization, liming and irrigation. Our definition for grazing land does not include forested land that is grazed or land used primarily for annual crops or hay production that may be seasonally grazed. |
Annex
FORMATS FOR THE SUBMISSION DUE ON 1 AUGUST 2000 OF PRELIMINARY, COUNTRY-SPECIFIC DATA AND INFORMATION BY ANNEX I PARTIES FOR PROPOSALS RELATED TO ARTICLE 3.3 AND 3.4 OF THE KYOTO PROTOCOL
This annex provides formats for the submission due on 1 August 2000 of preliminary,
country-specific data and information on proposals by Annex I Parties for activities related to Article 3.3 and 3.4 of the Kyoto Protocol. These formats, together with any rules, modalities or guidelines adopted for this annex, or the data and information that will be submitted by Parties using this annex, by no means prejudge decisions or conclusions that may be made by either the Conference of the Parties (COP) or the Subsidiary Body for Scientific and Technological Advice (SBSTA) at future sessions.
The terms and abbreviations used throughout this annex refer to the definitions given in the Intergovernmental Panel on Climate Change (IPCC) Special Report on Land-Use, Land-Use Change and Forestry in table 3-1, on pages 130-131 (definitional scenarios) and the section "Land-Based versus Activity-Based Accounting" on pages 130-131 (accounting approaches). For example, the abbreviation "FAO" refers to a definitional scenario where: "A forest refers to a land that has, or will have because of continued growth, more than 10% canopy cover; deforestation is a decline of canopy cover to below 10%, but excludes changes within the forest class; reforestation is artificial establishment of forest on lands that had them previously (including regeneration post-harvest); afforestation is artificial establishment of forest on lands that were not historically forest."
When completing the annex, Parties may modify the definitional scenarios or accounting approaches or use country-specific definitions or approaches. In such cases where the definitions or approaches deviate from those provided by the IPCC Special Report, this should be clearly stated and the applied definitions and/or approaches must be explained in the explanatory text that must accompany each table.
In its submission the Annex I Party should complete those portions of tables I and III that directly relate to its preferred proposals. Furthermore, the Annex I Parties may provide data and information in relation to other options using tables I and III.
Table I - Preliminary data and information provided by Annex I Party on carbon stock changes and areas related to
Article 3.3 activities
aI Area (ha) afforested and reforested, or deforested since 1990 up to 1995 or possibly an earlier specific year.
ĒCI Carbon stock change (t C) since 1990 up to the same year as used in aI on land afforested, reforested, and deforested.
aII Area (ha) afforested and reforested, or deforested since 1990 up to 1999 or an earlier specific year.
ĒCII Carbon stock change (t C) since 1990 up to the same year as used in aII on land afforested, reforested, and deforested.
acp Projected area (ha) afforested and reforested, or deforested since 1990 up to 2012.
ĒCcp Projected carbon stock change (t C) over the first commitment period on land afforested, reforested, and deforested
since 1990 up to 2012.
Methods and approaches
Specify: a) Forest definition used;
b) Definitions for afforestation, reforestation and deforestation used;
c) Applied accounting approaches;
d) Included carbon pools;
e) Other.
EXPLANATORY TEXT (table I)
Parties should submit information under all headings listed below where the information is relevant to the approach taken in their submission and to the extent that data and methodologies exist.
1. Definitions and accounting:
a) Forest,
b) Afforestation, reforestation, and deforestation,
c) Accounting approaches.
2. Carbon pools included (e.g. above-ground biomass, litter and woody debris, below-ground biomass, soil carbon, and harvested materials);
3. Stratification (e.g. biomes and regions);
4. Methodologies and data:
a) Data sources,
b) Sampling techniques,
c) Models and key parameters,
d) Uncertainties.
5. Treatment of non-CO2 greenhouse gases.
6. Methods and key assumptions in projections for the first commitment period (20082012) and discussion, if possible, of trends beyond the first commitment period.
Table II - Preliminary data and information provided by Annex I Party on carbon stocks and area estimates
(First sentence of Article 3.4)
|
Land system |
Area (ha) |
Carbon stock in 1990 (t C) |
|
Forestry lands |
||
|
Agricultural lands |
||
|
Rangelands/grasslands |
||
|
Wetland/tundra |
||
|
Other |
||
|
Total (as listed above) |
EXPLANATORY TEXT (table II)
Parties should submit information under all headings listed below where the information is relevant to the approach taken in their submission and to the extent that data and methodologies exist.
1. Description of land categories, including any land categories not covered.
2. Carbon pools - distinctions and assumptions.
3. Data sources.
4. Methods.
5. Possible changes in carbon stocks.
6. Uncertainties.
* These columns would contain the sum over the years concerned of net annual emissions by sources and removals by sinks for the Article 3.4 activities proposed.
A negative sign indicates either emissions by sources or a decrease in carbon stocks. A positive sign indicates either removals by sinks or an increase in carbon stocks.
To convert a carbon amount to CO2 multiply it by 3.67.
§ CH4 and N2O emissions are converted to CO2 equivalent emissions by using the global warming potential (GWP) values of 21 for CH4 and 310 for N2O (Source: Second Assessment Report of the IPCC, 1995)
aI Area (ha) in 1995 or possibly an earlier specific year involved in the Article 3.4 activity since 1990.
CO2, I Net CO2 emissions (t CO2) by sources and removals by sinks related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
CH4, I CH4 emissions (t CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
N2O, I N2O emissions (t CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aI.
aII Area (ha) in 1999 or possibly an earlier specific year involved in the Article 3.4 activity since 1990.
CO2, II Net CO2 emissions (t CO2) by sources and removals by sinks related to the Article 3.4 activity,
accumulated from 1990 to the same year as used in aII.
CH4, II CH4 emissions (t CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aII.
N2O, II N2O emissions (t CO2 equivalent) by sources related to the Article 3.4 activity, accumulated from 1990
to the same year as used in aII.
acp Projected area (ha) in 2012 involved in the Article 3.4 activity since 1990.
ĒCcp Projected carbon stock changes (t C) over the first commitment period related to the Article 3.4 activity since 1990.
CO2, cp Projected net CO2 emissions related contribution (t CO2) of the Article 3.4 activity to the first commitment period assigned amount
of the Party.
CH4, cp Projected CH4 emissions related contribution (t CO2 equivalent) of the Article 3.4 activity to the first commitment period assigned
amount of the Party.
N2O, cp Projected N2O emissions related contribution (t CO2 equivalent) of the Article 3.4 activity to the first commitment period assigned
amount of the Party.
Methods and approaches
Specify: a) Whether the definition of activity is considered broad or narrow (cf. Section 4.3.2. page 195 of the IPCC Special Report);
b) How the estimates were computed;
c) Other.
EXPLANATORY TEXT (table III)
Parties should submit information under all headings listed below where the information is relevant to the approach taken in
their submissions and to the extent that data and methodologies exist.
1. Activities and accounting:
a) Definitions and descriptions of all activities proposed,
b) Scope of activities and how they fit into broader managed land categories,
c) Accounting approaches,
d) Proposals for key accounting features, e.g. assumptions on baselines, basis for the area estimates covered by activity.
2. Carbon pools included (e.g. above ground biomass, litter and woody debris, below-ground biomass, soil carbon, and harvested materials).
3. Methodologies and data:
a) Data sources,
b) Sampling techniques,
c) Models and key parameters,
d) Uncertainties.
4. Treatment of non CO2 greenhouse gases.
5. Methods and key assumptions in projections for the first commitment period (20082012) and discussion, if possible, of trends beyond the first commitment period.
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