Methodologies
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  • Impact Improved Forest Management
  • Forest Nature Reserve
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  • Forest Nature Reserve (FNR)
    • Summary
    • 1. Introduction
    • 2. Sources, Reference Standards, and Modules
    • 3. Applicability
    • 4. Environmental and Social Safeguarding
    • 5. Relation to the Nature Climate Standard
    • 6. Quantification of Climate Impact
      • 6.1 Project Boundaries (PREFERRED)
      • 6.2 Baseline (PREFERRED)
      • 6.3 Quantification
      • 6.4 Durability and Monitoring (PREFERRED)
      • 6.5 Leakage (PREFERRED)
      • 6.6 Risk of Reversal (PREFERRED)
      • 6.7 Double Counting (PREFERRED)
    • References
  • Feedback on Methodology
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  • 6.4.1. Purpose of Monitoring
  • 6.4.2. Types of data and information to be provided in the report, including units of measurement
  • 6.4.3. Origin of the Data
  • 6.4.4. Monitoring methodologies, including estimation, simulation, measurement, and calculation approaches and uncertainty
  • 6.4.5. Monitoring frequency taking into account the needs of the intended users
  • 6.4.6. Roles and responsibilities in the context of monitoring
  • 6.4.7. Controls and internal data checks
  • 6.4.8. Management systems for information on greenhouse gases, including storage location and retention of stored data
  • 6.4.9 Reporting on the climate protection project
  • 6.4.6.2. Parameters to be monitored
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  1. Forest Nature Reserve (FNR)
  2. 6. Quantification of Climate Impact

6.4 Durability and Monitoring (PREFERRED)

Previous6.3 QuantificationNext6.5 Leakage (PREFERRED)

Last updated 5 months ago

corresponds to NCS

The project start is defined by concrete activities to promote the sink performance and by the documented intention to commit.

The project duration is at least 50 years. According to the model assumptions (see "Determination of sink performance in natural forest reserves"), the stock doubles in about 40 years.

The monitoring period is 1 to 5 years.

The project operator commits to maintaining a stock level higher than the "normal" wood stock for the duration of the climate protection project, by building up stock and/or guaranteeing that a certain stock level is not fallen below.

If the project assumptions are based on an inventory, then a new inventory must be conducted no later than after 15 years (inventory date), in the mountains after 20 years. The deadline can be extended if a new inventory is carried out within five years of the project being validated according to this method. If the project assumptions are not based on an inventory, such an inventory must be carried out within five years.

The reference scenario is periodically, but at the latest within the framework of the new inventory, checked for its validity. In the case of exceptional events such as calamities, if it is assumed that the project assumptions are no longer valid and could affect already issued certificates, the project owner is obliged to report this to the registry organisation, so that it can stop the project from selling certificates if necessary. The project assumptions are also reviewed in the event of forest damage exceeding one year's harvesting rate.

If the new inventory shows lower storage values than previously reported, the corresponding amounts must be entered negatively in the project register. For measures to minimise risk, the conditions in chapter apply.

Projects of the two methods "Method for Climate Protection Projects in Forests for Switzerland" and "SILVACONSULT® Forest Carbon Standard" are transferred into this method as part of the monitoring.

6.4.1. Purpose of Monitoring

Natural forest reserves: For forest reserves with a duration of at least 50 years, emission reductions (sink performance) are determined ex-ante based on model assumptions. The monitoring method consists of monitoring the non-use of wood on the reserve area. This means checking that the conditions according to MCPFE are met and no wood is actually used.

The same regulations apply for old-growth wood islands. When establishing and accounting for old-growth wood islands, recognised principles must be observed such as the "Selection criteria for old-growth wood islands, recommendations for delineation and assessment of old-growth wood islands".

Thibault L. et al. 2010: Selection criteria for old-growth wood islands Recommendations for delisting and assessment of old-growth wood islands. Eid. Research Institute WSL 77 p., ()

The areas of natural forest reserves are considered separately from other project areas.

6.4.2. Types of data and information to be provided in the report, including units of measurement

Project area in hectares, accurate to 0.1 ha, or rounded down to the whole ha value.

The additional standing total tree biomass in tCO₂, derived from the standing living timber stock in m3/ha by tree species or species groups, is credited. The other storage types are conservatively excluded from crediting.

Timber stock: The standing wood stock is specified in m3 and converted to tCO₂e living tree biomass.

Increment: The increment in m3 is converted to tCO₂e living tree biomass.

Use: Use is relinquished in natural forest reserves.

6.4.3. Origin of the Data

The origin of the data is declared in each case. Stock and growth data come from measured inventories or model assumptions. The area from operational planning / GIS analysis. Model assumptions from literature.

6.4.4. Monitoring methodologies, including estimation, simulation, measurement, and calculation approaches and uncertainty

Sink performance The sink performance is determined by tree species or species groups. Generally recognised values from the literature for the parameters wood density, carbon content and biomass expansion must be used.

Use Use is relinquished in natural forest reserves.

Increment The increment is determined or estimated on the basis of sampling inventories. Recognised methods must be used. In the case of estimates, the conservative approach must be considered.

Mortality Mortality is not synonymous with the immediate release of bound carbon. Mortality is recorded in the stock change method or within the framework of inventories.

Leakage NLandiNLand_{i}NLandi​ = Land utilisation amount in year i of crediting

NPNPNP = sustainable utilisation potential of the land

1.11Mio[ha]∗0.9∗7.1[m3ha∗Jahr]=7.1Mio[m3Jahr]1.11 Mio [ha] * 0.9 * 7.1 [\frac{m3}{ha*Jahr}] = 7.1 Mio[\frac{m3}{Jahr}]1.11Mio[ha]∗0.9∗7.1[ha∗Jahrm3​]=7.1Mio[Jahrm3​]

SLLandiSLLand_{i}SLLandi​ = Credited forest sink performance in the country, sum of all projects, in monitoring year i for leakage control

If (NPi−SLLandi)>NLandi(NP_{i} - SLLand_{i}) > NLand_{i}(NPi​−SLLandi​)>NLandi​ then Leakage=0Leakage = 0Leakage=0 otherwise Leakage=10Leakage = 10Leakage=10%

6.4.5. Monitoring frequency taking into account the needs of the intended users

The monitoring period extends over the entire project duration of 50 years in natural forest reserves. The individual monitoring periods (ex-post) can last between 1 and 5 years. Monitoring must be maintained throughout the project duration.

6.4.6. Roles and responsibilities in the context of monitoring

The project owner ensures that monitoring is conducted properly (self-management, programme manager, external body).

6.4.7. Controls and internal data checks

Recognised quality assurance methods must be ensured for the acquisition and processing of relevant data.

6.4.8. Management systems for information on greenhouse gases, including storage location and retention of stored data

The project owner ensures that the data are stored properly (self-management, programme manager, external body).

6.4.9 Reporting on the climate protection project

The applicant of the project must create a greenhouse gas report (monitoring report) and make it available to the intended users. The greenhouse gas report must

  • identify the intended application and the intended user of the greenhouse gas report and

  • have a structure and content that meet the needs of the intended user.

Information that applies to multiple projects in a programme can be maintained by the programme organisation and does not need to be recorded anew for each project.

6.4.6.2. Parameters to be monitored

Parameter
Project area, forest reserve area

Description of the parameter

Creditable project area

Unit

Hectare

Data source

operational planning, land registry, etc.

Parameter
Authority-approved forest management plan

Description of the parameter

Management plan, forest planning, or similar document containing a condition assessment and planning for the forestry operation.

Unit

n/a

Data source

Owner/Operation

Parameter
Forest management certification

Optional

Description of the parameter

Status of a voluntary certification

Unit

n/a

Data source

Databases FSC, PEFC etc.

Parameter
Public consultation on the project

Required if no management plan, voluntary certification, or forest development plan is present)

Description of the parameter

Document

Unit

n/a

Data source

Owner/Operation

Parameter
New inventories

Description of the parameter

In the case of newer inventories, the calculation bases must be adjusted, e.g. stock, growth

Unit

n/a

Data source

Inventory report/Owner/Operation/others

Parameter
Use of timber by the country (N-Land)

Description of the parameter

Total national volume of timber use in the year of crediting (N-Land)

Unit

m³

Data source

Timber use statistics of the country

Parameter
Credited forest sink performance (SL-Land)

Summe aller Wald-Senkenleistungsprojekte im Inland, im Monitoringjahr (SL-Land)

zur Kontrolle von Leakage

Description of the parameter

Projects

Unit

m³

Data source

Central position

Parameter
Leakage control parameter

Description of the parameter

May not exceed the value of potential land use (less project sink performance) for an assumption of leakage=0

Unit

m³

Data source

Calculation, total timber usage of the country (statistics) minus total sink performance of all projects (statistics)

6.4.6.3. Fixed parameter

Parameter
Stehender Holzvorrat

Description of the parameter

Reference value and project - starting value

Unit

m³

Data source

Inventory reports, inventories projected from the project start, qualified estimates

Parameter
Wood density softwood, dry matter DM

Description of the parameter

to be specified country or region-specific

Unit

t DM/m³

Data source

Parameter
Wood density hardwood, dry matter DM

Description of the parameter

to be specified according to the country or region

Unit

t DM/m³

Data source

Parameter
Biomass expansion factor BEF hardwood

Description of the parameter

to be specified according to the country or region

Unit

tCO₂/m³

Data source

Parameter
Biomass expansion factor BEF softwood

Description of the parameter

to be specified according to the country or region

Unit

tCO₂/m³

Data source

Parameter
C content in biomass dry matter

Description of the parameter

0.5

Unit

Dimensionless

Data source

Parameter
CO₂/C ratio

Description of the parameter

44/12 = 3.67

Unit

Dimensionless

Data source

Parameter
Sustainable land use potential (NP)

Description of the parameter

to be specified according to the country

Unit

Mio. m³/year

Data source

-

Carbon storage as in chap. .

The sink capacity is quantified and described in chapter .&#x20

Timber stock The timber stock is determined through acknowledged methods of forest inventory in m3 standing stem wood. The results must be documented including the specification of the traceable accuracy. See chapter . When estimating the stock, the estimation parameters must be recognised and conservatively applied. The timber stock is recorded by tree species or groups of species and converted to the living tree biomass using recognised factors.

According to Ref. , for example, productive forest land in Switzerland totals 1.11 million ha, of which medium to long term 10% are excluded from commercial use as reserves.

Leakage control parameter The total utilisation of the land may not exceed the value of the potentially possible utilisation (minus project sink performances) to assume leakage = zero, (see chap. ).

e.g. : Volz, Richard; Nauser, Markus; Hofer, Peter (2001): Climate policy needs the forest and the wood. Forest and Wood 3/01, pp. 39-41

e.g. : Volz, Richard; Nauser, Markus; Hofer, Peter (2001): Climate policy needs the forest and the wood. Forest and Wood 3/01, pp. 39-41

e.g. : Thürig Esther, Schmid Stéphanie 2008: Annual CO₂ flows in the forest: Calculation method for the greenhouse gas inventory. J. Forestry. 159 (2008) 2: 31–38

e.g. : Thürig Esther, Schmid Stéphanie 2008: Annual CO₂ flows in the forest: Calculation method for the greenhouse gas inventory. J. Forestry. 159 (2008) 2:31–38

e.g. : Thürig Esther, Schmid Stéphanie 2008: Annual CO₂ flows in the forest: Calculation method for the greenhouse gas inventory. J. Forestry. 159 (2008) 2:31–38

e.g. : Thürig Esther, Schmid Stéphanie 2008: Annual CO₂ flows in the forest: Calculation method for the greenhouse gas inventory. J. Forestry. 159 (2008) 2:31–38

6.3
6.3
6.5
6.6
2.5.8
6.3.1
Ref. 15
18
Ref. 24
Ref. 24
Ref. 6
Ref. 6
Ref. 6
Ref. 6