Title: INDUSTRIAL PROCESS SECTOR Hands on Training Workshop of the CGE on NGGI for NAI Parties to the UNFCCC, Africa Region Pretoria, South Africa 18-22 September 2006
1INDUSTRIAL PROCESS SECTOR Hands on Training
Workshop of the CGE on NGGI for NAI Parties to
the UNFCCC, Africa RegionPretoria, South
Africa18-22 September 2006
2OUTLINE- GHANA CASE STUDY
- RE96GL APPROACH AND STEPS
- Country sources and subsource categories
identified - Summary of Process Descriptions of source
categories and estimated missions - Methodological Choices
- Collection of AD
- IPCC Default and CS-EF
- GPG 2000 approaches for selected source categories
3OUTLINE-GHANA CASE STUDY
- SECTION B
- Potential problems with the use of Re96GL,
effects, and suggested approaches regarding - AD and CBI
- Data Sources
- Lack of AD and EFs
- Institutional Arrangements
4OUTLINE- GHANA CASE STUDY
- SECTION C
- ESTIMATION AND REPORTING -Using country source
worksheets and other countries reported data to
complete the electronic software
5Re96GL Approach and Steps Country Sources
identified
- 2A-Mineral Production
- 2A2-Lime production , Pg 2.4.1
- 2A3-Soda ash production and Use Pg 2.6.1
- 2B Chemical Industry
- 2B1-Calcium Carbide use Pg 2.11.2
- 2C Meta Production
- 2C1-Iron and Steel Pg 2.13.3.2
- 2C2- Aluminum Pg 2.13.5.1
-
6Re96GL Approach and StepsChoice of Activity Data
- Plant level measurements or direct emissions
reports with documented methodologies - Where direct measurements are not available,
estimations are based on calculation with
plant-specific data
7Re96GL Approach and StepsChoice of Default
Emission Factors
- Process reaction-based EFs (Stoichiometric
Ratios) - Production-based emission factors
- Technology-specific emission Factors
- Reported Country/Region-specific plant-level
measurements
8Re96GL Approach and StepsSample Tiers by
Sub-source Categories
- 2C5-Calcium Carbide Use in Steel Melting plants
CO2) - T1a -Consumption of Carbide in acetylene
production (tonne carbide) and EF (tone
CO2/tonne carbide (Default)
9Re96GL Approach and StepsTiers by Sub-source
Categories
- 2C-Metal production (Iron and Steel)
- Tier 1a-consumption of reducing agent (tonne) and
EF (tonne C/tonne reducing agent) - Tier 1b-production of the metal (tonnes) and EF
(tonne CO2/tonne metal)
10Key source analysis and prioritization
- Demonstrate Key source Analysis by Level using
the Ghana Inventory Results
11Country-Specific Methodology and good practice
plant-level EF and AD
- The case of Aluminum production inventory in Ghana
12Good practice Activity Data (Plant-level EF
based on Tier 1a Method)
13Consumption of reducing agent (anode carbon)
14Net carbon consumption
15Comparability of good practice plant level and
IPCC Default
Process Parameter Country Specific (Plant level Tier 2) 7-year average IPCC Default including baking emissions (5)
Net Carbon consumption assuming 98 purity of anode carbon tonne C/tonne 0.445
Emission factor (tonne CO2/tonne Al.) 1.63 1.58
Difference 3.5
16Emissions Estimation and Reporting Use of IPCC
Electronic Inventory Software
- Hand-on using the various country data for
different source categories
17REPORTING TABLESLong Summary and Short
summary(Reference IPCC Inventory Software)
18Emissions Estimation and Reporting-Selected
country reviews
- Discussion of the identified problems with
reporting and methodological choices of selected
countries identified in the IP sector of the INC
19Lack of Activity Data and Emissions Factors
encountered in the use of Re96GL GPG 2000 Tier1
good practice Options
- Notes Annex 2 - Table 2 gives the
methodological choices and GHG estimation for
Tier 1 methods based on national circumstances
where EFs and certain types of ADs are not
available.)
20GPG 2000 DECISION TREE APPROACH TO ESTIMATIONS
- SAMPLE ILLUSTRATIONS
- 2.A.1Cement Production
- 2.C1 Iron and Steel
- 2.C.2 Aluminum production
- Handbook Annex 3 Table 3 presents detailed
estimations of Emission factors of the source
categories above based on the various GPG 2000
Tier level methods
21 UNCERTAINTY ESTIMATION GPG 2000 OPTIONS
Table 3.2 of GPG2000 illustrates the use of
default factors in estimating uncertainties based
on the various Tier level methods