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Albania’s First National Communication to the United Nations Framework Convention on Climate Change Presented by: Ermira FIDA, MBA Project Manager Climate Change Enabling Activities COP 8, New Delhi, 23 October 2002
Transcript

Albania’s FirstNational Communication

to the United Nations FrameworkConvention on Climate Change

Presented by:

Ermira FIDA, MBAProject Manager

Climate Change Enabling Activities

COP 8, New Delhi, 23 October 2002

Content of the presentation

• Albania and UNFCCC• Organizational chart of the CC Project• Albania’s First National Communication• National circumstances• GHG inventory• GHG abatement• Vulnerability and Adaptation• Climate Change Action Plan• Main problems and Constrains• Public Awareness, Education• Lessons Learnt• Future plans• Recommendations

Albania and UNFCCC

• UNFCCC ratified in 1995• Non-Annex I Party• National Focal Point - MoE• Member of CACAM since 2001• Climate Change Project launched on October 1998• The FNC submitted on September 2002• A National Climate Change Action Plan - developed• Technology Needs Assessment – started

Commitments under the ConventionArticle 4• …to develop, periodically update, publish and make

available to the COP, national inventories ofanthropogenic emissions of GHGs…

• …to formulate, implement publish, and regularlyupdate national and where appropriate, regionalprograms containing measures to mitigate climatechange and to facilitate adaptation to climatechange…

• …to communicate to the COP, through theSecretariat, the above elements

Organizational Chartof Climate Change Project

UNDPImplementing

Agency

MoEExecuting Agency

Project Director

Project Manager

Steering Committee

Technical Teams

Project personnelAssistant,

Admin & Finance

Inventory Team AbatementTeam Vulnerability & Adaptation Team

Content of theAlbania’s FNC

• Executive summary• National Circumstances• GHG inventory - 1994• GHG abatement analysis• Vulnerability and

adaptation• National Climate Change

Action Plan• Public awareness, education

and training• Problems constraints and

needs• Annexes

National Circumstances

• dGeographic position

National Circumstances (cont.)

• Area – 28,745 Km2

– Hills and mountains accounts for 77 %• Average altitude - 708 m• Length of the state border – 1, 093 Km2

• Population – 3,3 million• Capitol - Tirana• Official language – Albanian• Local currency – Leks• GDP per capita (1994) – 610 $/capita• Shares of GDP (1994)

– Agriculture – 54 %– Services - 19.8 %– Industry – 12.5 %– Transport – 3.4 %

National Circumstances (cont.)Climate profile• Subtropical Mediterranean climate

– Mild winter with abundant precipitation– Hot dry summer

• A wide variation of the annual mean temperature– 7o C along the mountains– 15o C along the coast

• A negative trend of the mean annual temperatures– The influence of minimum temperatures versus maximum ones

• Annual precipitation total - 1, 485 mm– 70 % recorded during October – March– 80–120 runny days / year– Highest precipitation - in Alps, up to 3,000 mm– Lowest precipitation total - in southeast, 600 mm

National Circumstances (cont.)• Water resources

– relatively abundant water resources– surface, ground and marine

• Forests– accounts for 36 % of the territory

• 83% - natural and semi natural• damaged due to illegal cuttings and burning

• Agriculture– 50% of GDP– before 1990 - focused on cereals– after 1990 - shifted to animal foodstuffs supply

• Mining– rich in chromium, copper, iron – nickel– after 1990 - production collapsed– technology equipment - obsolete

National Circumstances (cont.)Energy• Energy consumption

– Electricity – 60 % of total consumption in urban area– Electricity – 30 % of total consumption in rural area– Fuel wood - 60 % of total consumption in rural area– LPG and kerosene – the rest

• Energy supply– Electricity: HPP - 94%, TPP – 6%– After 1990 - frequent electricity cuttings due to:

• Overuse• Lack of other alternatives

Transport• After 1990, a rapid expansion of private carsEnvironment

– MoE - established on October 2001– A package of environmental laws and by laws - adopted– An updated NEAP – adopted– Environmental monitoring – a weak point

GHG Inventory– Report on direct GHG emissions in 1994

• Carbon Dioxide (CO2 ), Methane (CH4), Nitrogen oxide(N2O)

– Report on indirect GHG emissions in 1994• Carbon Monoxide (CO), Nitrogen oxides (NOx),

(NMVOC).– Report on emissions by sectors/sub-sectors

• Energy, Agriculture, Industry, Forests, Waste,Solvents

• Bunker fuels (separate reporting)– Analyze CO2 emissions from energy sector for

1990-1994– Analyze main GHG indicators

• CO2 / GDP; CO2 / capita– Report on key sources– Report on data gaps– Assess the uncertainties

GHG Inventory• Base year

– 1994– 1990-1994, CO2 from energy sector

• Methodology– Revised 1996 IPCC guidelines

• Top –down• Bottom - up

– CORINAIR• Classification of Solvents

– IPCC default Emission Factors– Country specific

• EF(wood stoves, industrial boilers)• classification of fruit trees

– IPCC Good Practice Guidance

CH430.49%

N2O4.19%

CO265.32%

Industrial Process.

2.96%

Agricult. 27.12%

Waste 4.81% Energy

44.00% LUC&For estry

21.60%

• [7061.45 Gg] CO2 eqvemissions total

• CO2 - the main GHG

• Energy sector –themain source category

GHG inventory (cont)Main findings, 1994

19.80

12.00

10.50

9.20

8.60

8.40

7.50

7.10

6.60

3.11

1.97

1.30

USA

Denmark

Germany

UK

Japan

European Union

Greece

Austria

Italy

Fyrom

Albania

Armenia 1,97 ton/capita

• Energy consumption - lowcompared to the selectedcountries

• 94% of electricity - hydro• Residential sector

consumes about 60% ofelectricity

• Industry went down(energy consumption) after1990.

GHG inventory - CO2 /capita

6876

3758

2437

1026

650

595

560

539

510

391

362

361

Armenia

Albania

Fyrom

Greece

USA

UK

Germany

European Union

Japan

Italy

Austria

Denmark3,758 ton/Mill.USD

• Albania’s technology is veryold;

• Productivity of society islow compared to othercountries

• A large share of energy isused in residential sector(not in industrial sector toproduce higher value ofGDP)

GHG inventory - CO2/GDP

• Industry (35%)– manufacturing– construction

• Transport (27%)– Road

• Oil (87%)• Coal (11%)

Transport2 7 %

Commer7 .0%

Agricult .6 .4 %

Res ident .5 .4%

Energ y Ind .20%

Industry35%

2536.69

316.82

49.440

500

1000

1500

2000

2500

3000

oil coal natural gas

GHG inventoryEnergy

CO2 from fuel combustion

GHG inventory

3517.252794.9

1923.21 2392.65 2504.17

3422.9

2088.9

618.9 390.1 315.7128.18

139.36

194.11

92.3649.44

0

1000

2000

3000

4000

5000

6000

7000

8000

1990 1991 1992 1993 1994

natural gas

coal

oil

Gg

CO2 from fuel combustion (1990-1994)

GHG inventory

Agriculture

Enteric Fermen. 94.83%

Field Burning

of Agricul. Resid. 0.05%

Manure Manag. 5.12%

Cattle 72.26%

Buffalo 0.06%

Sheep 16.27%

Horses 1.48%

Swine 0.19%

Goats 7.90%

Mules and

Asses 1.84%

CH4 from agriculture CH4 from enteric fermentation

GHG inventory

Forests

-3000-2500-2000-1500-1000-500

0500

10001500200025003000350040004500

Total CO2 Uptake Increment Annual CO2 emission from woodbiomass

Balance of CO2 emisssion

In 1994, forests are a source of emissions, not a sink.

GHG inventory

Key sources• CH4 emissions from

enteric fermentation with22.49%,

• CO2 emissions from woodybiomass burned forenergy with 21.40%,

• CO2 emissions from fuelcombustion in industrywith 11.24%,

• CO2 fuel combustion,energy and transformationindustries with 8.15%, and

05

101520253035404550556065707580859095

100

1 2 3 4 5 6 7 8 9 10 11

%

GHG inventory

Uncertainty assessment• Difference between top-down and bottom up approach – 3.01%• The total combined uncertainty (CO2) – 19.4%

– Significant contributor – LUCF with 95.6%• The total combined uncertainty (CH4) – 55.8%

– Significant contributor - enteric fermentation with 47%• The total combined uncertainty (N2O) – 391%

– Significant contributor – stationary fuel combustion, energymanufacturing and construction industries, with 353%

• Overall uncertainty of GHG inventory 19.2%– Significant contributor – fuel wood with 79.2%

GHG abatement analysis

• Time horizon– 1994-2020

• Methodology– Baseline scenario

• LEAP, version 95.0 for Energy and Transport• Revised 1996 IPCC Guidelines for other sectors

– Abatement scenario• GACMO for Energy and Transport• Expert judgment for other sectors

GHG abatement analysis

• Focus on– quantified analysis for energy sector– qualitative analysis for non-energy sectors

• Analysis of examined measures by sector– Industry– Residential (Households)– Services– Agriculture– Transport– Waste– Power generation

• Comparative analysis of measures by– Cost– GHG abatement potential

GHG abatement analysisBaseline projections up to 2020

• [37,653 Gg] - CO2 eqvemissions total

• [24,000 Gg] - energy &transport (83%)

• CO2 – the main GHG

• Industry – 35%• Energy transform. – 29%

0

10000

20000

30000

40000

50000

60000

70000

80000

90000

Total CO2 CH4 N20

2020

2010

2000

1994

CO2-industry35.0%CO2-non energy

use9.5%

CO2-transformation

29.0%

CO2-transport19.0%

CO2-residential5.0%

CO2-service0.5%

CO2-agriculture2.0%

CO2 non biogenic

• Power generation - hydro instead of diesel• Power generation – natural gas instead of diesel• Waste - waste management measures• Industrial sector - efficient boilers• Transport - gas taxis• Residential sector - prepaid metres• Residential sector - efficient lamps• Residential sector - thermas switches in electric

heaters• Residential sector – thermo insulation• Residential sector - solar collectors

GHG abatement analysis

Key measures

GHG abatement analysis

Overall potential for GHG abatementEnergy and transport

0

2

4

6

8

10

12

14

16

18

20

22

24

26

1994

1996

1998

2000

2002

2004

2006

2008

2010

2012

2014

2016

2018

2020

reduct io n o f GHG in energy trans fo rmatio n s e c to rreduct io n o f GHG fro m e nergy c o ns umptio n in trans po rtreduct io n o f GHG fro m e nergy c o ns umptio n in agriculturereduct io n o f GHG fro m e nergy c o ns umptio n in indus tryreduct io n o f GHG fro m e nergy c o ns umptio n in s e rvic ereduct io n o f GHG fro m e nergy c o ns umptio n in re s identia l

GHG Abatement Scenario

overall reduction potential

10.7

9.0 12

.8

13.9

15.6

16.0

17.3 19

.521

.5

22.7

23.5

24.9

25.9

26.8

27.6

28.3

28.8

6.3

3.3

0.0

0.0

0.0

0.0

0.0

0.0

0.0

0.0

0

2

4

6

8

10

12

14

16

18

20

22

24

26

0

5

10

15

20

25

30

35

40

45

50

55

60

65

70

75

80

reductio n o f CO2 eqv in %

Total bas e line CO2 eqv

Total abatment line CO2 eqv

GHG abatement analysis

Ranking according to specific cost of measures

-750

-700

-650

-600

-550

-500

-450

-400

-350

-300

-250

-200

-150

-100

-50

0

50

100

150

Vulnerability and adaptation• Time horizons for CC Scenarios

– 2025, 2050, 2100• Methodology

– MAGIC/SCENGEN software for CC scenarios– IPCC technical guidelines for assessing CC Impacts and

adaptations, 1994– LEAP for impacts on Energy sector– Statistical models, expert judgment, regional analogies

for other sectors• Scope of assessment

– Hydrosphere, natural ecosystems, managed ecosystems,energy, industry,transport,health, population, tourism.

• Focus on– Evaluation of current climate situation– Expected climate changes– Expected impacts of climate changes– Measures for adaptation

Vulnerability and adaptation

Climate Change Scenario

Annual temperature increaseup to 1 0C, 1.8 0C, 3.6 0C respectively by 2025,2050, 2100

Annual precipitation decreaseup to –3.8%, -6.1%, -12.5% respectively by 2025,2050, 2100

Vulnerability and adaptation

Expected annual temperature changes(increase)

Vulnerability and adaptationExpected annual precipitation changes

(decrease)

Vulnerability and adaptation

• Reduction of theamount of surfacewater flow

• Decrease of waterstorage used by HPPsfor energy production

• Reduction of thequality of drinkingwater

• High potential offlooding risk

• Increase of salinityof aquifers (CZ)

Impacts on water resources

-100

-80

-60

-40

-20

0

20

Time Horizons

The

ave

rage

cha

nge

in m

ean

seso

nal r

unof

f (%

)

Spring

Summer

Autumn

Winter

Annual

2025 2050 21002025 2050 21002025 2050 2100

Vulnerability and adaptationImpacts on Agriculture

• Up to 2025– No considerable impacts in crops’ yields– The potential citrus and olive growing area will be

adopted in higher elevations (about 150 m) and will beenlarged.

• 2050-2100– Reduction of the extend of the arable land due to soil

erosion and alteration– Changes in growth cycles, harvest time and quality of

agricultural production (especially in CZ, due to intrusionof salt water in soil)

– Cultivation of early products in the open air orgreenhouses , due to an increase of temperatures inwinter

Vulnerability and adaptationImpacts on Energy

Energy consumption• An expected decrease in heating degree days• An expected increase in cooling degree days• An expected increased demand for energy for space cooling

during summer• An expected decreased demand for energy for space

heating during winterEnergy production• New Energy Scenario which consider Climate Change

– From 94% (hydro) versus 6%(thermo) – 47.7% (hydro) versus52.3% (thermo)

– Expected energy generation in 2025 – 23,816 GWh compared to1,795 GWh in 1990.

Vulnerability and adaptationElectricity generation – alternative

scenario

0

5000

10000

15000

20000

25000

1990

1992

1994

1996

1998

2000

2002

2004

2006

2008

2010

2012

2014

2016

2018

2020

2022

2024

ThermoHydro

Adaptation optionsWater

– Modification / construction of physical infrastructure – Pollution control– Improvement systems of monitoring and forecasting of flooding

and drought– Drafting & adoption new legislation for water use– Setting a real consumption fee– Implementation of the integrated coastal Zone Management

Energy– Consider expected change in runoff / water flow in integrated

resource planning, TPP and HPP design.– Invest in energy conservation systems for space cooling– Reduce energy subsides– Use solar and wind energy

Agriculture– Significant improvement of irrigation sector– Afforestation and setting up barriers for protection of arable

land– Cultivation of xerophilic crops

National Climate Change Action Plan

NCCAP – part of the revised NEAPFocused on:• Potentials to abate GHG emissions• Potentials for adaptation to CCExpected outcomes:• Reduction of the rates of GHG emissions (no targets)• Reduction of the vulnerability and adaptation• Promotion of the sustainable development• Poverty reduction• Protection of environment / implement the convention• Institutional strengthening• Capacity building and enhancement• Raise of public awareness in climate change issues

National Climate Change Action Plan• The main responsibility for implementation of the

NCCAP:– Ministry of Environment

• Period covered– up to 2020

• Revision according to:– New development plans and goals– Changes in legal framework– State-of-the-art data on climate change– National environmental strategy– Further developments in UNFCCC negotiations– Eligibility of funds under convention mechanisms and

other sources– Status of Albania under the Convention– Amount of funds allocated by the Government– Level of public awareness

Public awareness, education on CC

• The level of public awareness on CC is relatively low• Prior the start up of the project on NC, no public awareness

activities have been held• The project on NC has positively contributed on

awareness raising• Two national workshops organized:

• Initiation workshop for project on NC• Workshop on FNC

• Posters, newspaper articles, web page.• The level of education on CC is low, even for environmental

issues.• Some tendencies to introduce environmental education into

school curricula

Main problems and constraints

Institutional• Lack of legal framework for data reporting• Inflexibility of NEX modality• Low level of awareness on CCTechnical• Variability, reliability, availability of activity data• Inconsistency of data to the reporting format• Lack of country specific/regional EFs• Lack of adopted strategies for some sectors• Lack of future scenarios for different sectors• Lack of regular climate monitoring• Lack of finer resolution for climate modeling• Lack of trainingMethodological• Lack of guidelines on abatement and V&A• Lack of IPCC methodology for solvents, open dumps or

burning wastes

Lessons learntWe recognize the importance of :• The selection of the most qualified national

experts in NC process• The sustainability and maintenance of the teams

– Training of trainers• Close collaboration of inventory and abatement

teams• Exchange of information and experience at

national, regional, international level– Technical support provided by NCSP, UNFCCC Sec

• Working in relationship with similar enablingactivities in the region/country

• Peer review of inventory, abatement and V&Astudies

• Raising public awareness among policy makers

Recommendations

• Establishment of permanent mechanism forNational Communications to serve as a nationalSecretariat for UNFCCC

• Maintenance and enhancement of nationalcapacities built in the area of Climate Change

• Strengthening of regional cooperation• Improvement of the existing guidelines for

preparation of the NCs from NAI Parties• Making funds available for the preparation of the

SNC from NAI Parties• Assist NAI Parties for the preparation of the

SNC– NCSP, UNFCCC Sec.

• Establishment of a regional center for CC


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