목차
Title page
Contents
Executive summary 13
1. Introduction 15
1.1. What to expect from this report 15
1.2. How can this report help policymakers? 15
1.3. Overview of the project 16
2. Tamil Nadu's emissions inventory 17
2.1. Energy sector 18
2.2. Industrial processes and product use 20
2.3. Agriculture, forestry, and other land use (AFOLU) 20
2.4. Waste (wastewater and solid waste) 22
3. Modelling framework and scenario analysis for the future 24
3.1. Accounting for emissions 25
3.2. What the GCAM does not do 25
3.3. Drafting TN's long-term NZ transition plan 25
3.4. Key socio-economic assumptions 26
4. Results: TN's energy sector net-zero transition pathways 28
4.1. Industry sector 28
4.2. Transport sector 29
4.3. Building sector 33
4.4. Agriculture sector 34
4.5. Final energy demand 35
4.6. Power sector 36
5. What does TN's NZ transition mean for its emissions? 38
5.1. Energy sector emissions outlook 38
5.2. Land-use sector sequestration potential 40
6. Jobs, investment potential and co-benefits 44
7. Measurement, reporting and verification 46
8. Key insights, recommendations and conclusion 47
8.1. Key Insights 47
8.2. Key recommendations for sectoral targets 49
8.3. Conclusion 50
Annexure 1: Key inputs for and assumptions used in the model 51
Annexure 2: Forestry parameters 53
Acronyms 54
References 55
Table 1. The selected tree species and allocated area for the afforestation programme 40
Table 2. Power sector job potential under net-zero scenario 44
Table 3. New Additional Installed Capacity and associated investments potential during respective periods 45
Table 4. Sectoral targets to align with a net-zero future 49
Figure 1. Energy sector emissions in TN (2005-19) 18
Figure 2. Industrial emissions 19
Figure 3. Percentage share of GHG emissions, by fuel type, due to fuel combustion 19
Figure 4. GHG emissions estimate for the IPPU sector in TN 20
Figure 5. GHG emissions estimate for the AFOLU sector in TN (MtCO₂Eq) 21
Figure 6. Aggregate sources and non-CO₂ emissions sources on land 21
Figure 7. Land-use GHG emissions estimate (MtCO₂Eq) 22
Figure 8. GHG emissions of the waste sector in TN 23
Figure 9. Industrial wastewater emissions 23
Figure 10. Area-wise GHG emissions estimates for domestic wastewater 24
Figure 11. Schematic representation of the GCAM 25
Figure 12. Timeline of activities for TN's NZ transition plan 27
Figure 13. Final industrial energy demand in the BAU (a) and NZ (b) scenarios 29
Figure 14. Transport service demand, by mode, in the passenger vehicle segment, in the BAU (a) and NZ (b) scenarios 30
Figure 15. Transport energy demand, by fuel, in the BAU (a) and NZ (b) scenarios 31
Figure 16. Building energy demand, by fuel, in the BAU (a) and NZ (b) scenarios 33
Figure 17. Building energy demand, by service, in the BAU (a) and NZ (b) scenarios 34
Figure 18. Agriculture energy demand, by fuel, in the BAU (a) and NZ (b) scenarios 35
Figure 19. Final energy demand, by fuel, in the BAU (a) and NZ (b) scenarios 35
Figure 20. Final energy demand, by sector, in the BAU (a) and NZ (b) scenarios 36
Figure 21. Electricity consumption, by sector, in the BAU (a) and NZ (b) scenarios 37
Figure 22. Electricity generation, by fuel, in the BAU (a) and NZ (b) scenarios 38
Figure 23. TN Energy sector emissions profile 39
Figure 24. Overall CO₂ emissions, in the BAU (a) and NZ (b) scenarios 39
Figure 25. The spatial distribution of SOC in the cropland area and the Q3 value (steady state) of the SOC from all the grid cells 42
Figure 26. The expansion of agroforestry area and carbon sequestration for the different rotational periods (10 and 15 years) considered in the study 42
Figure 27. The carbon sequestration of different tree species considered in this study based on different rotational periods (10 and 15 years) 43
Figure 28. MRV framework 46
Boxes
BOX 1. Electric Bus based Public transportation 32
Box Tables
Table B1. Buses Stocks Target, 2025-2050 32
Annex Tables
Table A1. Key socio-economic assumptions 51
Table A2. Assumptions on cost of electricity generation technologies 52
Table A3. Assumptions on the CUF of electricity generation technologies, 2020 52
Table A4. Sources of forest parameters for calculating the carbon stock 53
제목 페이지
내용물
약어 및 두문자어 5
요약 7
소개: 제조업과 미국의 미래 8
고급 제조를 위한 비전, 목표, 목표 및 권장 사항 9
목표, 목표 및 권장 사항 10
목표 1. 첨단 제조 기술 개발 및 구현 12
목표 1.1. 탈탄소화를 지원하기 위한 깨끗하고 지속 가능한 제조 활성화 12
목표 1.2. 마이크로일렉트로닉스 및 반도체용 제조 가속화 13
목표 1.3. 바이오경제를 지원하는 첨단 제조 구현 14
목표 1.4. 혁신소재 및 공정기술 개발 15
목표 1.5. 스마트 제조의 미래를 이끌다 16
목표 2. 첨단 제조 인력 육성 17
목표 2.1. 첨단 제조 인재 풀 확대 및 다양화 18
목표 2.2. 고급 제조 교육 및 훈련 개발, 확장 및 촉진 19
목표 2.3. 고용주와 교육 기관 간의 연결 강화 20
목표 3. 제조 공급망에 탄력성 구축 20
목표 3.1. 공급망 상호 연결 강화 21
목표 3.2. 제조 공급망 취약성을 줄이기 위한 노력 확대 21
목표 3.3. 첨단 제조 생태계 강화 및 활성화 22
추가 기관 간 기여자 24
부록 A. 에이전시 참여 및 지표 25
부록 B. 2018 전략 계획의 목표 달성 과정 27
부록 C. 자세한 권장 사항 33