Carbon Stocks and Emissions of Malaysian Forests

Similar documents
INTRODUCTION FORESTS & GREENHOUSE GASES

Greenhouse Gas (GHG) Status on Land Use Change and Forestry Sector in Myanmar

Climate Change Adaptation Measures for Forest Ecosystems

Scientific updates on current emissions and sinks of greenhouse gases and implications for future emissions pathways

Bioenergy and indirect land use change

Updating Forest Cover and Assessing Aboveground Biomass in Various Tropical Forest Ecosystems from PALSAR-2 Polarizations

3 (1) Acacia spp. Eucalyptus spp. Tectona grandis. Pinus spp. Pinus caribaea. Mixed Hardwoods. Mixed Fast-Growing Hardwoods.

Standard Methods for Estimating Greenhouse Gas Emissions from Forests and Peatlands in Indonesia

Recent carbon trends and the fate of the natural sink

Greenhouse gases and agricultural: an introduction to the processes and tools to quantify them Richard T. Conant

Peatland Carbon Stocks and Fluxes:

Standard Methods for Estimating Greenhouse Gas Emissions from Forests and Peatlands in Indonesia

Prof Brendan Mackey, PhD

Global. Carbon Trends. Pep Canadell Global Carbon Project CSIRO Marine and Atmospheric Research Canberra, Australia

Carbon Footprint of Malaysian Palm oil and Future Areas of Research. Chan Kook Weng

DRIVERS OF LAND USE CHANGE AND THE ROLE OF PALM OIL PRODUCTION IN INDONESIA AND MALAYSIA

The Global Carbon Cycle

Indonesia Burning The Impact of Fire on Tropical Peatlands : Focus on Central Kalimantan

On the amount of mitigation required to solve the carbon problem: new constraints from recent carbon cycle science. Stephen W.

Sustainable Palm Oil Developments in Malaysia

People, Oceans and Climate Change

Beyond REDD+ What management of land can and cannot do to help control atmospheric CO 2. R.A. Houghton Woods Hole Research Center

3.1.2 Linkage between this Chapter and the IPCC Guidelines Reporting Categories

climate change Contents CO 2 (ppm)

Peatland degradation fuels climate change

The Big Picture: Relationship between Forests and Climate Change

Terrestrial Carbon Cycle, Part 1

Fragmentation of tropical forests a forgotten process in the global carbon cycle?

Pathways of Agricultural Expansion Across the Tropics:

Human perturbations to the global Nitrogen cycle

Fahmuddin Agus Indonesian Soil Research Institute Jl. Tentara Pelajar, No. 12, Cimanggu, Bogor 16114, Indonesia

Implications of the IPCC AR5 Report for the UNFCCC Negotiations and Mitigation Options in AFOLU (Agriculture Forest and Other Land Use)

Major atmospheric emissions from peat fires in SEA during non-drought years: Evidence from the 2013 Sumatran fires David Gaveau

APP s Sustainability Roadmap Frequently Asked Questions

CarboZALF and greenhouse gas emission research

Enhancing the science basis

REDD Methodological Module. Estimation of emissions from market effects LK-ME

People, Oceans and Climate Change

Wetlands, Carbon and Climate Change

Overview of developments of wood-based bioenergy in the Netherlands and EU

SUSTAINABLE MANAGEMENT OF CRITICAL WETLANDS ECOSYSTEMS

Monitoring Deforestation and Forest Degradation on National and Local Level in Indonesia

The Cost of Avoiding Deforestation

Methodological Guidance on Lands with Wet and Drained Soils, and Constructed Wetlands for Wastewater Treatment

FOREST MEASUREMENT AND MONITORING WORKSHOP September 4-5 Puyo, Ecuador

Luncheon Panel Promotion Strategies for Globally Sources Timber from Sustainably Managed Forests

Emissions from Land Use and Land Use Change from the Oil Palm Industry in Indonesia, Malaysia and Papua New Guinea

Carbon Budget. Last update: 26 September 2008

Forestry, Climate Change, and Kyoto

2013 SUPPLEMENT TO THE 2006 IPCC GUIDELINES FOR NATIONAL GREENHOUSE GAS INVENTORIES: WETLANDS

Module 3.3 Guidance on reporting REDD+ performance using IPCC guidelines and guidance

GLOBAL SOIL ORGANIC CARBON. Map 1.0 VERSION

Planning hydrological restoration of peatlands in Indonesia to mitigate carbon dioxide emissions

Human nitrogen fixation and greenhouse gas emissions: a global assessment


CANADA. INFORMAL SUBMISSION TO THE AWG-KP Information and Data on Land Use, Land-Use Change and Forestry (LULUCF) September 2009

The Chinese Grain for Green Program assessing the sequestered carbon from the land reform

A global perspective on land use and cover change

Soil Carbon Sequestration

Development of National GHG Inventory: INDONESIA

Gold Standard Afforestation/Reforestation (A/R) GHG Emissions Reduction & Sequestration Methodology

Budget10 released on 5 December 2011 ppt version 8 December Carbon Budget

Impact of Grain Farming on Climate Change

FHU 5204: Sem : Lecture Series#1 (2jam) Prof. Dr. Wan Razali W.M.

The Living world. Tropical rainforests (core content) Revisio n undert aken. Cover ed in class?

Rock/ soil type and altitude differences.

Indonesian Palm Oil Industry Under Future Climate Change

The Ability Of Mangrove Areas To Conserves Carbon Stock In Semi Arid Region

Codes and Guidelines for Sustainable Forest Management

STATEMENT. Issued by participants of the. International Symposium, Workshop and Seminar on Tropical Peatland, Yogyakarta, Indonesia, August 2007

GLOBAL SYMPOSIUM ON SOIL ORGANIC CARBON, Rome, Italy, March 2017

BASELINES, PERMANENCE AND LEAKAGE IN REDD

Development of Sub National FREL in West Kalimantan

Chapter 6 Oil-palm estate development in Southeast Asia: consequences for peat swamp forests and livelihoods in Indonesia

CARBON SEQUESTRATION POTENTIAL IN ABOVEGROUND BIOMASS OF THONG PHA PHUM NATIONAL FOREST, THAILAND

2013 Revised Supplementary Methods and Good Practice Guidance Arising from the Kyoto Protocol G.1

C-CASCADES FACTSHEET THE IMPORTANCE OF THE LAND-OCEAN AQUATIC CONTINUUM CARBON CYCLE FOR CLIMATE PROJECTIONS

Narration: This presentation is divided into four sections. It looks first at climate change and adaptation for natural forests, and then for

Status of forest biomass and carbon stock assessment in South and Central America

Forest Mitigation: A Permanent Contribution to the Paris Agreement?

Climate and Biodiversity

THE INVENTORY OF GREENHOUSE GASES (GHG) IN MALAYSIA

REDD+ Policy and Implementation in Indonesia: a review. Daniel Murdiyarso

ISFL Methodological Approach for GHG accounting

FINAL REPORT IPCC COMPLIANT GHG REPORTING METHODOLOGY FOR FOREST LANDS IN ZAMBIA

Global view on perspectives for biodiesel.

Energy, Greenhouse Gases and the Carbon Cycle

NGO POSITION ON THE POST-2020 LULUCF REGULATION

Atul Jain University of Illinois, Urbana, IL 61801, USA

Datasets for use in the IPCC Guidelines

Biochar Carbon Sequestration

Afforestation, Reforestation and Deforestation

Climate: describes the average condition, including temperature and precipitation, over long periods in a given area

NAMAs and MRV MANNER. Ministry of Environment, Republic of Indonesia. July 2010

NF Presentation to Gov Riau Jan

Secretariat of the Convention on Biological Diversity

Topic A2. Wetlands in the IPCC processes

Towards the Improvement of National Forest Monitoring Approaches

Degradation of of Forest Ecosystems

Transcription:

Carbon Stocks and Emissions of Malaysian Forests Abd Latif M., Ismail H., & Elizabeth P. Forest Research Institute Malaysia 52109 Kepong, Selangor, Malaysia ISO 9001 : 2008 www.frim.gov.my

Content Background Global forest carbon emissions and stocks Regional forest carbon stocks National carbon stocks National GHG emissions from forest Comparative carbon stocks in oil palm plantations Conclusion www.frim.gov.my

Background Three greenhouse gases have increased in the atmosphere since pre-industrial times, and this increase is the main driving cause of climate change. CO 2, CH 4 and N 2 O altogether amount to 80% of the total radiative forcing from well-mixed greenhouse gases. The increase of CO 2, CH 4 and N 2 O is caused by anthropogenic emissions from the use of fossil fuel as a source of energy and from land use and land use change, in particular agriculture. The observed change in the atmospheric concentration of CO 2, CH 4 and N 2 O results from the dynamic balance between anthropogenic emissions, and the perturbation of natural processes that leads to a partial removal of these gases from the atmosphere. 5 th AR, IPCC

Fate of Anthropogenic CO 2 Emissions (2003-2012 average) 8.6 ± 0.4 GtC/yr 92% 4.3±0.1 GtC/yr 45% 0.8 ± 0.5 GtC/yr 8% + 2.6 ± 0.5 GtC/yr 27% 2.6 ± 0.8 GtC/yr 27% Calculated as the residual of all other flux components Source: Le Quéré et al 2013; CDIAC Data; Global Carbon Project 2013 www.frim.gov.my

Uncertainty in Land-Use Change Emissions Uncertainty in land-use change is large, particularly in early years. This budget uses updated estimates, and has higher cumulative emissions than the IPCC AR5. Cumulative emissions 1870 2011: 155 ± 55 GtC (this budget), 145 ± 60 GtC (IPCC) Source: Le Quéré et al 2013; Houghton & Hackler (in review); Global Carbon Project 2013 www.frim.gov.my

Rate of deforestation Decreasing in several countries About 13 mill. ha/yr converted to other land uses of 16 mill. ha/yr in 1990s Brazil and Indonesia have significantly reduced deforestation rate; S. America & Africa largest net loss of forest www.frim.gov.my

Forests store a vast amount of carbon 289 Gt or 145 bil ton Carbon in biomass. carbon stocks decrease 0.5 bil ton/yr 2005-10, due to reduction of forest area. www.frim.gov.my

Carbon stocks in different forest types Biome Area (10 6 km 2 ) Carbon Stocks (Gt C) Vegetation Soils Total Tropical forests 17.6 212 (45%) 216 428 Temperate forests 10.4 59 100 159 Boreal forests 13.7 88 471 559 Tropical savannas & grasslands 22.5 66 264 330 Temperate grasslands & 12.5 9 295 304 shrublands Deserts & semi-deserts 45.5 8 191 199 Tundra 9.5 6 121 127 Wetlands 3.5 15 225 240 Croplands 16.0 3 128 131 151.2

Forest carbon stocks -region Country Forest type Biomass content (t/ha) Malaysia Peninsular Malaysia Good Logged (1-10 years) Logged (11-20 years) Logged (20-30 years) Logged (>30 years) Logged Peat swamp Peat swamp 167 96 110 131 135 98 120 Remark Philip & Abdul Rahim Nik, 2009, Malaysia - Inland forest Sarawak Hill forest Malaysia - Sabah Unlogged forest Logged (~1970) Logged (1988/9) Logged (1995/6) Logged (2000/2) Logged (2003/6) Logged (2007) Lowland forest Peat swamp Oil palm Timber plantations 140-193 165-203 177 144 94 150 166 102 122 108 33-64 26 58 IPCC, 1996 Morel et al, 2011

Forest carbon stocks -region Country Forest type Biomass content (t/ha) Philippines Surigao del Sur, Mindanao Remark Matured 96.7 Lasco et al, 2006 Logged 1-5 yrs 46.6 Logged 6-10 yrs 57.4 Logged 11-15 yrs 49.5 Logged 16-20 yrs 57.3 Indonesia East Kalimantan 254.5 Yamakura, et al 1986 Old forest 250-350 Murdiyarso & Wasrin, 1996 Thailand Ton Mai Yak 137.8 Terakunpisut,Gaj KP27 70.3 aseni Pong Phu Ron 46.3 & Ruankawe (2007) Singapore Primary forest 168 Ngo, et al 2013 Secondary forest 105

Changes in Regional C Stocks Country Site Carbon Stocks (t/ ha) Net Changes in Carbon Stocks (t/ ha/yr) Thailand HKK 105.6-0.12 Malaysia Pasoh 169.9 0.81 Lambir 248.6 0.52 Philippines Palanan 145.1 0.11 www.frim.gov.my

Changes in Forested Area in Malaysia: 1990-2010 Permanent Reserved Forest 1990-2000 2000-2010 14.3% -0.7% Protected Areas 0% 74% Stateland Forest -32% -34% Rubber -22% - 21% *Oil palm 67% 44 ^Cocoa -81% -73% Source: FAO, 2010;*MPOB ; ^LKM

Changes in Forest Areas Forest change occurred in the Permanent Reserved Forest and Stateland Forest. Rubber and oil palm areas were also significantly reduced and many of these areas have been converted to oil palm plantations. Regression models indicated that poverty rate affected forest area between 1970-1984. Poverty rate of 20% and below did not affect the forest area, (Miyamoto et al, 2014). Oil palm expansion has a significant negative relation with forest area change in a single regression model, (Miyamoto et al, 2014).

Changes in Carbon Stocks 3500.00 3000.00 Million tonnes 2500.00 2000.00 1500.00 1990 2000 2010 1000.00 500.00 0.00 Above Ground Carbon Stocks Below Ground Carbon Stocks Carbon in Litter Soil

CO 2 Removals 140.00 120.00 100.00 Mt CO 2 e 80.00 60.00 40.00 20.00 0.00 Permanent Reserve Forest Stateland Forest Plantation Forests Oil palm Rubber Non-forest type species (000 trees) Category

Total Emissions 18 16 14 million tonnes C/yr 12 10 8 6 4 2 0 PRF State land Commercial harvest 1990-00 2000-2010

Carbon Stock in Oil Palm Plantation Age (yr) Aboveground carbon stocks (t/ha) Reference Mineral soil Peat soil 23 40.5 Khalid et al, (1999) 16 21-37 Henson & Mohd Tayeb, (2003 Matured 22.44 Morel, et al,(2011) Riau (3-30 yrs) 10-60 Syahrinudin, (2005)

Conclusion Carbon stocks are different in different forest types and regions Carbon stocks has not changed much in the Malaysian forest thus suggesting the sustainable forest management practices undertaken has not reduced the carbon stocks GHG emissions from the forest have reduced between 1990-2010 www.frim.gov.my