Bio Carbon Fund

Post on 01-Jan-2016

38 views 0 download

Tags:

description

Bio Carbon Fund. Harnessing the carbon market to sustain ecosystems and alleviate poverty. Atmosphere. 3.2. Why Sinks Matter Global Carbon Cycle (1990s) Units Gt C or Gt C y -1. 750. 63.0. 6.3. 1.6. Fossil Deposits. 60. Plants. About 4,100. 91.7. 500. Soil. 90. 2000. 0.7. - PowerPoint PPT Presentation

Transcript of Bio Carbon Fund

1

BioCarbon Fund

Harnessing the carbon market to sustain ecosystems and alleviate poverty

Atmosphere

Fossil Deposits

6.363.0

91.7

60

90

3.2

Plants

Soil

Oceans

750

500

2000

38,400

About 4,100

1.6

Why Why Sinks Sinks MatteMatte

rr

Global Global Carbon Carbon

Cycle Cycle (1990s)(1990s)

Units Units Gt CGt C or or Gt C y Gt C y -1-1

0.7

3 Gt/y net uptake

20% of current emissions & 40% of historic emissions

3

History of emissionsHistory of emissions

-1000

0

1000

2000

3000

4000

5000

1850 1900 1950 2000

Mt

C /

ye

ar

LULUCF Annex 1 LULUCF Non Annex 1

Fossil C Annex 1 Fossil C Non Annex 1

!

4

Multiple Goals of the BioCarbonFund

5

AtmosphericAtmospheric

Atmospheric benefit The project must contribute

to reducing GHG in atmosphere

Additionality - The project would not have gone ahead without the stimulus of the CDM (i.e. it cannot be BAU) and net emissions must be “reduced below those that would have occurred in the absence of the registered CDM project activity”

6

Environmental GoalEnvironmental Goal

A project must make a positive contribution to improving the quality of the environment, e.g.

Conserve biodiversity Reduce soil losses Rehabilitate degraded

lands

Such benefits are an integral component of well chosen projects – not an add on

7

Social GoalSocial Goal

A project must make a positive contribution to improving the livelihoods of local people and especially the poorest and indigenous peoples, e.g.

Additional income Income stability Education, capacity building,

technology transfer Health benefits

Projects with high social value are much more likely to be maintained – ie permanence

8

BioCarbon Fund and BioCarbon Fund and AdaptationAdaptation

Adaptation challenge: to increase the biological and social resilience of communities reliant on agricultural and forest ecosystems

Fund can act as a catalyst for changing land-use practices

Source of funding

Demonstration of new practices/crops

Conservation of buffers, genetic resources etc

9

Seeking synergies between the Seeking synergies between the major environmental conventionsmajor environmental conventions

Climate, environmental and livelihood goals

Compatibility with national sustainable development goals

Local participation: communities, NGOs, private and public sectors

Actions that assist adaptation to climate change

Emphasis on managing the whole landscape

UNCCD

10

Types of Projects

11

Landscape approachLandscape approach

Multiple asset types distributed across the landscape

Risk spreading within project

Gives local communities multiple reasons for maintaining sequestration

Social benefits through resilience and adaptability

12

Restoration PlantingsRestoration Plantings – First – First WindowWindow

Examples: Stabilization of dunes through tree planting Reconstructing corridors to connect forest fragments

Primary role of the plantings is long term environmental protection

May have other local uses such as wood, fruits etc

13

Community Forestry Community Forestry – First – First

WindowWindow

Community Forestry – First Window

Plantings usually carried out by grower cooperatives or community groups

Plantings have high community value including biodiversity

Individual plots often only a few hectares

Trees are used for fruit, wood products, fuel wood, shelter etc

14

Agroforestry Agroforestry – First window– First window

Establish trees over cropping and/or gardening activities as additional crop or wood suppliers

Establish trees within grazed pastures or rangelands either for drought fodder, shelter or additional products

Often linked with improved agricultural practice

Usually community based

15

TIST TanzaniaTIST Tanzania

BioCarbon Fund project proposal

Planting started in 1999

>2,000 small groups in 4 regions, growing fast (self-selection into program)

> 9 million trees planted (80 species); 4 million seedlings in nurseries

2,000 mature trees = 1,000 t CO2e

2 US¢ paid per live tree per year

Mostly compatible with CDM rules (full-scale or small-scale afforestation/reforestation)

16

TIST Tanzania: without projectTIST Tanzania: without project

Abandoned land

Damaging practices

Fuelwood shortage

Decreasing fertility

17

TIST Tanzania: with projectTIST Tanzania: with project

Village nurseries Groups with a purpose

Grass growth under treesTrees line up houses, paths

18

Commercial PlantationsCommercial Plantations

We see only a small role for commercial plantations in the CDM

Most will not pass an appropriately applied additionality test

Some would fail sustainability tests

19

A Second WindowA Second Window

Activities in the CDM in the first Commitment Period are limited to afforestation and reforestation

This leaves many activities that are allowed in Annex 1 countries and which would be very useful in meeting all

three goals of the BioCF, excluded to developing countries Within landscape projects there will usually be a mixture of

activities, including carbon sequestering activities other than A&R

Most projects will be measuring the changes in carbon stocks across the whole landscape (ie all activities) as part of baseline and leakage estimates

20

Avoided DeforestationAvoided Deforestation

A major concern during negotiations

Strong support from many NGOs and Host countries to explore this issue

Not the wholesale “preservation” of major tracts of forest

Protection of forest fragments within the wider landscape

Often links with forest restoration, corridor creation etc

21

Role of the BioCarbon FundRole of the BioCarbon Fund

Learning by doing

Real life testing of the most stringent standards Additionality, Measurement, PermanenceAdditionality, Measurement, Permanence

Providing the poorest people with resources and a stake in climate change

Development and adaptation opportunities for those with the greatest exposure to climate change and the fewest possibilities to take an active role

Must start NOW

22

Can ‘Kyoto’ credit be gained for Can ‘Kyoto’ credit be gained for forest conservation?forest conservation?

Brazilian proposal (“soft caps”) For a particular region (all of a nation’s rainforest?) Set a target for a rate of decline in clearing Credits gained for clearing rates even lower than this

target Some credit must be “banked” against possible later

increases in clearing Rest can be sold through a CDM type mechanism Target re-set every commitment period based on previous

period (as in fossil emission targets)

23

Avoided deforestation – “soft cap”Avoided deforestation – “soft cap”

-100

-50

0

50

100

150

200

250

300

1988 1998 2008 2018 2028

Em

issi

on

s/sa

les

(MtC

/y)

an

d/o

r cl

ea

ring

(km

2/y

)

Clearing Aver Target Credits Sales 1 Total sales Bank

-50

-25

0

25

50

75

100

2012 2017 2022 2027 2032

Net

ben

efit

ove

r ta

rget

s

-1000

-500

0

500

1000

1500

2000

CO

2 re

mis

sio

ns

avo

ided

aft

er 2

008

24

What impact would such a system What impact would such a system have?have?

Encourage developing countries to engage in mitigation actions

Source of income for avoided deforestation

Financially viable? PNG example 30 m3/ha forest – prob c. 50 tC/ha Timber value c. $2400 Carbon value c. $500 to $1000 Other values ??

Keeps options open

25

Fire managementFire management

26

Emissions from fireEmissions from fire

27

Summary

Temperate forests 0.4 Gt C / y

Tropical forests 0.7 Gt C / y

Savanna & grassland

2.8 Gt C / y

Van der Werf et al Science 2004

Total annual emissionsTotal annual emissions

28

The goal is to reduce fire frequency, thus leading to greater sequestered carbon

Year to year variability

Non Europe Russia under fire management

c. 100 M ha

USA

29

0

10

20

30

40

50

60

70

80

0 100 200 300 400 500 600 700 800 900 1000

C (

t/h

a)

an

d a

ge

(y

r)

0

10

20

30

40

50

60

70

El Nino

management

Biom

Age

SD Age

50

55

60

65

70

460 470 480 490 500 510 520 530

-10

-5

0

5

10

Stored carbon Average storage Credits

Fire probabilities reduced from 0.020 to 0.012 at year 500.

Measurement error ±5% of stored carbon

In 12% of commitment periods proponents would report a carbon loss

30

Fire management projectsFire management projects

An increasing source of emissions as climate changes

A feasible deal for very brave investors with very large budgets

Or

As a component of national reporting that includes all forms of land-use

31

Land based emissions/uptakes Land based emissions/uptakes and compliance regimesand compliance regimes

Should a revised compliance systems more fully Should a revised compliance systems more fully incorporate land based emissions/uptakes?incorporate land based emissions/uptakes?

Pros Ensures monitoring of fluxes/sequestered carbon

Targets to reduce emissions can be set as for fossil emissions

May offer incentives for reduced clearing and better land-management practices

The system need not reward bad practice

But …

32

A fully included land-use sector would A fully included land-use sector would show annual fluctuations in sequestered show annual fluctuations in sequestered

carbon of ±1.5 Gt Ccarbon of ±1.5 Gt C

33

What does this mean for (eg) the What does this mean for (eg) the USA?USA?

USA emissions reduction target were 115 Mt C/y below 1990 or about 300 to 500 Mt C/y below BAU projections

USA terrestrial ecosystems are a net sink of 300 to 700 Mt C / y

The USA would have to incorporate an average figure in its baseline

Any mistake would be expensive or profitable (c. $4B / y per 100 MtC)

34

What does this mean for (eg) the What does this mean for (eg) the USA?USA?

But sequestration will vary by several hundreds of Mt C year by year

i.e. by about the same amount as its Kyoto target would have been

Most sink capacity appears to come from changes in age structures, fire reduction etc

Also 80 Mt C / y (+200 to –100) from CO2 fertilisation Is this a free ride? And, should the effects of reforestation in mid to high latitudes be

discounted?

35

Modelling and the BioCFModelling and the BioCF

Simplicity and transparency

Simple spreadsheet modelling of Financing Carbon pools Landscape dynamics

Avoid “crackpot rigour” – i.e. the detailed analysis of an idea that should never have been contemplated in the first place, or is so ill defined as to be misleading

Models should be as simple as possible – but no simpler