Electric Power ›› 2025, Vol. 58 ›› Issue (4): 193-204.DOI: 10.11930/j.issn.1004-9649.202411030
• Carbon Emission Accounting and Governance • Previous Articles Next Articles
LI Keyun1,2(), ZHANG Ning1(
), ZHAO Le3, ZHAO Cheng3, LI Jiayu1,2, TANG Cheng1,2
Received:
2024-11-11
Accepted:
2025-02-09
Online:
2025-04-23
Published:
2025-04-28
Supported by:
LI Keyun, ZHANG Ning, ZHAO Le, ZHAO Cheng, LI Jiayu, TANG Cheng. Carbon Emission Accounting Methods for Key Electric Equipment and Materials in Power Transmission and Transformation Projects[J]. Electric Power, 2025, 58(4): 193-204.
类型 | 项目 | 排放因子 | 数据获取年份 | 地域代表性 | 适用性 | |||||
金属 材料 | 铝/(tCO2·t–1) | 20.3 | 2019 | 中国 | 原铝,用于制造导线、电缆等 | |||||
钢*/(tCO2·t–1) | 2.35 | 2021—2022 | 中国 | 厚钢板,用于制造在设备、桥梁等领域的耐候钢、容器钢等 | ||||||
铜*/(tCO2·t–1) | 26.96 | 2019 | 中国 | 阴极铜,用于制造导线、电缆、电气设备等 | ||||||
非金属 材料 | 玻璃/(tCO2·t–1) | 1.4 | 2021 | 英国 | 用于制造玻璃绝缘子 | |||||
瓷/(tCO2·t–1) | 1.2 | 2022 | 中国 | 用于制造瓷绝缘子 | ||||||
聚酯树脂/(tCO2·t–1) | 74.3 | 2019 | 中国 | 用于制造变压器绝缘材料 | ||||||
中间 产品 | 型钢/(tCO2·t–1) | 2.24 | 2022 | 中国安徽 | 重型H型钢,用于机械、建筑等领域 | |||||
冷轧钢板及钢带/(tCO2·t–1) | 2.6 | 2022 | 中国北京 | 用于制造变压器 | ||||||
热轧钢板及钢带/(tCO2·t–1) | 2.3 | 2023 | 中国河北 | 碳素结构钢,用于制造钢结构、机械等 | ||||||
8寸晶圆/(kgCO2·片–1) | 322.1 | 2022 | 中国台湾 | 硅晶圆,用于制造晶闸管 | ||||||
加工 工艺 | 热浸镀锌工艺/(tCO2·t–1) | 1.46 | 2022 | 中国安徽 | 用于对钢材进行热镀锌防腐处理 | |||||
导线加工工艺/(tCO2·km–1) | 0.15 | 2020 | 中国 | 用于生产钢芯铝绞线、铝包钢绞线等导线 | ||||||
能源 | 电力/(tCO2·(MW·h)–1) | 0.536 6 | 2022 | 中国 | 全国电力平均二氧化碳因子 | |||||
石油/(tCO2·t–1) | 2.5 | 2015 | 中国黑龙江 | 用于制造变压器油 |
Table 1 Carbon emission factors of key materials and energy in an ultra-high voltage direct current transmission project
类型 | 项目 | 排放因子 | 数据获取年份 | 地域代表性 | 适用性 | |||||
金属 材料 | 铝/(tCO2·t–1) | 20.3 | 2019 | 中国 | 原铝,用于制造导线、电缆等 | |||||
钢*/(tCO2·t–1) | 2.35 | 2021—2022 | 中国 | 厚钢板,用于制造在设备、桥梁等领域的耐候钢、容器钢等 | ||||||
铜*/(tCO2·t–1) | 26.96 | 2019 | 中国 | 阴极铜,用于制造导线、电缆、电气设备等 | ||||||
非金属 材料 | 玻璃/(tCO2·t–1) | 1.4 | 2021 | 英国 | 用于制造玻璃绝缘子 | |||||
瓷/(tCO2·t–1) | 1.2 | 2022 | 中国 | 用于制造瓷绝缘子 | ||||||
聚酯树脂/(tCO2·t–1) | 74.3 | 2019 | 中国 | 用于制造变压器绝缘材料 | ||||||
中间 产品 | 型钢/(tCO2·t–1) | 2.24 | 2022 | 中国安徽 | 重型H型钢,用于机械、建筑等领域 | |||||
冷轧钢板及钢带/(tCO2·t–1) | 2.6 | 2022 | 中国北京 | 用于制造变压器 | ||||||
热轧钢板及钢带/(tCO2·t–1) | 2.3 | 2023 | 中国河北 | 碳素结构钢,用于制造钢结构、机械等 | ||||||
8寸晶圆/(kgCO2·片–1) | 322.1 | 2022 | 中国台湾 | 硅晶圆,用于制造晶闸管 | ||||||
加工 工艺 | 热浸镀锌工艺/(tCO2·t–1) | 1.46 | 2022 | 中国安徽 | 用于对钢材进行热镀锌防腐处理 | |||||
导线加工工艺/(tCO2·km–1) | 0.15 | 2020 | 中国 | 用于生产钢芯铝绞线、铝包钢绞线等导线 | ||||||
能源 | 电力/(tCO2·(MW·h)–1) | 0.536 6 | 2022 | 中国 | 全国电力平均二氧化碳因子 | |||||
石油/(tCO2·t–1) | 2.5 | 2015 | 中国黑龙江 | 用于制造变压器油 |
导线计算内容 | 名称及单位 | 数值 | ||
原材料活动量 | 铝质量/t | 20 000 | ||
钢质量/t | 2 498 | |||
工艺活动量 | 导线长度/km | 7 315 | ||
碳排放量 | 原材料/tCO2 | 411 857 | ||
工艺/tCO2 | 1 090 | |||
总量/tCO2 | 412 947 |
Table 2 Accounting results of JL1/G3A-1000/45 wires using the disaggregated method
导线计算内容 | 名称及单位 | 数值 | ||
原材料活动量 | 铝质量/t | 20 000 | ||
钢质量/t | 2 498 | |||
工艺活动量 | 导线长度/km | 7 315 | ||
碳排放量 | 原材料/tCO2 | 411 857 | ||
工艺/tCO2 | 1 090 | |||
总量/tCO2 | 412 947 |
变压器活 动量组成 | ABB变压器单位容 量的活动量/(kg·(MV·A)–1) 或((kW·h)·(MV·A)–1) | 算例变压器碳 排放量/tCO2 | ||
铝 | 8.0 | 62 | ||
铜排 | 95 | 979 | ||
铜线 | 1.6 | 16 | ||
钢 | 182 | 163 | ||
硅钢 | 269 | 195 | ||
油漆 | 0.4 | 0.3 | ||
瓷 | 8.0 | 3.8 | ||
树脂 | 0.8 | 21 | ||
变压器油 | 192 | 183 | ||
电能耗量 | 37 100 | 7 585 | ||
总量 | 9 208 |
Table 3 Accounting results of 400 kV transformers using the parameter matching method
变压器活 动量组成 | ABB变压器单位容 量的活动量/(kg·(MV·A)–1) 或((kW·h)·(MV·A)–1) | 算例变压器碳 排放量/tCO2 | ||
铝 | 8.0 | 62 | ||
铜排 | 95 | 979 | ||
铜线 | 1.6 | 16 | ||
钢 | 182 | 163 | ||
硅钢 | 269 | 195 | ||
油漆 | 0.4 | 0.3 | ||
瓷 | 8.0 | 3.8 | ||
树脂 | 0.8 | 21 | ||
变压器油 | 192 | 183 | ||
电能耗量 | 37 100 | 7 585 | ||
总量 | 9 208 |
换流阀计算内容 | 名称及单位 | 数值 | ||
原材料活动量 | 硅片总质量/t | 0.73 | ||
钼片总质量/t | 0.36 | |||
铝片总质量/t | 0.22 | |||
铁芯总质量/t | 17 | |||
工艺活动量 | 晶闸管装配及试验电耗/(MW·h) | 177 | ||
电抗器装配及阀塔试验电耗/(MW·h) | 318 | |||
碳排放量 | 原材料碳排放/tCO2 | 2 135 | ||
工艺碳排放/tCO2 | 266 | |||
总碳排放/tCO2 | 2 401 |
Table 4 Accounting results of air insulated suspended converter valves using the traceability method
换流阀计算内容 | 名称及单位 | 数值 | ||
原材料活动量 | 硅片总质量/t | 0.73 | ||
钼片总质量/t | 0.36 | |||
铝片总质量/t | 0.22 | |||
铁芯总质量/t | 17 | |||
工艺活动量 | 晶闸管装配及试验电耗/(MW·h) | 177 | ||
电抗器装配及阀塔试验电耗/(MW·h) | 318 | |||
碳排放量 | 原材料碳排放/tCO2 | 2 135 | ||
工艺碳排放/tCO2 | 266 | |||
总碳排放/tCO2 | 2 401 |
设备及 材料 | 活动量获取方法及来源 | 活动量名称 | 数值 | |||
换流阀 晶闸管 | 工艺溯源法:项目资料、文献、换流阀制造商碳足迹报告[ | 晶闸管总数/个 | 2 880 | |||
硅片质量/kg | 734 | |||||
铝片质量/kg | 212 | |||||
生产耗电量/(MW·h) | 178 | |||||
变压器 | 参数适配法:项目资料、变压器制造商碳足迹报 告[ | 钢及硅钢质量/t | 6 886 | |||
铜质量/t | 3 017 | |||||
铝质量/t | 212 | |||||
变压器油质量/t | 4 005 | |||||
生产耗电量/(GW·h) | 761 | |||||
GIS | 参数适配法:项目资料、GIS制造商碳足迹报告[ | 铝质量/t | 12 661 | |||
铜质量/t | 1 339 | |||||
钢质量/t | 2 867 | |||||
SF6泄漏量/t | 3.7 | |||||
导线 | 分解统计法:项目资料、国家标准[ | 铝质量/t | 75 028 | |||
钢质量/t | 16 687 | |||||
杆塔材料 | 分解统计法:项目资料 | 铁塔钢材质量/t | 387 585 | |||
金具 | 分解统计法:项目资料、国家标准[ | 钢和铁质量/t | 17 489 | |||
铝质量/t | 1 002 | |||||
绝缘子 | 分解统计法:项目资料、文献[ | 玻璃质量/t | 22 105 | |||
钢质量/t | 12 745 | |||||
生产耗电量/t | 12 025 |
Table 5 Calculation results of key activity data
设备及 材料 | 活动量获取方法及来源 | 活动量名称 | 数值 | |||
换流阀 晶闸管 | 工艺溯源法:项目资料、文献、换流阀制造商碳足迹报告[ | 晶闸管总数/个 | 2 880 | |||
硅片质量/kg | 734 | |||||
铝片质量/kg | 212 | |||||
生产耗电量/(MW·h) | 178 | |||||
变压器 | 参数适配法:项目资料、变压器制造商碳足迹报 告[ | 钢及硅钢质量/t | 6 886 | |||
铜质量/t | 3 017 | |||||
铝质量/t | 212 | |||||
变压器油质量/t | 4 005 | |||||
生产耗电量/(GW·h) | 761 | |||||
GIS | 参数适配法:项目资料、GIS制造商碳足迹报告[ | 铝质量/t | 12 661 | |||
铜质量/t | 1 339 | |||||
钢质量/t | 2 867 | |||||
SF6泄漏量/t | 3.7 | |||||
导线 | 分解统计法:项目资料、国家标准[ | 铝质量/t | 75 028 | |||
钢质量/t | 16 687 | |||||
杆塔材料 | 分解统计法:项目资料 | 铁塔钢材质量/t | 387 585 | |||
金具 | 分解统计法:项目资料、国家标准[ | 钢和铁质量/t | 17 489 | |||
铝质量/t | 1 002 | |||||
绝缘子 | 分解统计法:项目资料、文献[ | 玻璃质量/t | 22 105 | |||
钢质量/t | 12 745 | |||||
生产耗电量/t | 12 025 |
设备及材料 | 碳排放量 | |
换流阀关键器件 | 2 401 | |
变压器 | 560 860 | |
GIS | 414 156 | |
导线 | 1 566 630 | |
杆塔材料 | 1 488 328 | |
金具 | 60 233 | |
绝缘子 | 75 371 | |
总量 | 4 167 979 |
Table 6 Accounting results of key electric equipment and materials in an ultra-high voltage direct current transmission project 单位:tCO2
设备及材料 | 碳排放量 | |
换流阀关键器件 | 2 401 | |
变压器 | 560 860 | |
GIS | 414 156 | |
导线 | 1 566 630 | |
杆塔材料 | 1 488 328 | |
金具 | 60 233 | |
绝缘子 | 75 371 | |
总量 | 4 167 979 |
文献研究对象 | 文献研究结论 | 本文研究结论 | ||
英国输变电网络,共计22 670 km架空线路,887 km地下电缆,681座变电站[ | 原材料铝碳排放占总量的40%,钢占比20%,铜占比5% | 原材料铝碳排放占总量的43.3%,钢占比23.6%,铜占比2.8% | ||
挪威输变电网络,共计10 971 km架空线路, | 架空线路碳排放占总量的63%,变压器占比12%,GIS占比15% | 架空线路碳排放占总量的73.3%,变压器占比13.5%,GIS占比10.0% | ||
中国特高压输电线路,8条±800 kV线路,14条 | 导线和杆塔材料碳排放占线路四大关键设备碳排放总量的89.6% | 导线和杆塔材料碳排放占线路四大关键设备碳排放总量的95.7% |
Table 7 Result comparison with existing research findings
文献研究对象 | 文献研究结论 | 本文研究结论 | ||
英国输变电网络,共计22 670 km架空线路,887 km地下电缆,681座变电站[ | 原材料铝碳排放占总量的40%,钢占比20%,铜占比5% | 原材料铝碳排放占总量的43.3%,钢占比23.6%,铜占比2.8% | ||
挪威输变电网络,共计10 971 km架空线路, | 架空线路碳排放占总量的63%,变压器占比12%,GIS占比15% | 架空线路碳排放占总量的73.3%,变压器占比13.5%,GIS占比10.0% | ||
中国特高压输电线路,8条±800 kV线路,14条 | 导线和杆塔材料碳排放占线路四大关键设备碳排放总量的89.6% | 导线和杆塔材料碳排放占线路四大关键设备碳排放总量的95.7% |
不确定敏感因子 | 变化率/% | 敏感度系数 | ||||||||||||||
–30 | –20 | –10 | 0 | 10 | 20 | 30 | ||||||||||
铝 | 3 626 555 | 3 807 030 | 3 987 504 | 4 167 979 | 4 348 454 | 4 528 928 | 4 709 403 | |||||||||
热浸镀锌工艺 | 3 998 217 | 4 054 804 | 4 111 392 | 4 167 979 | 4 224 566 | 4 281 154 | 4 337 741 | 0.135 8 | ||||||||
电力 | 4 043 374 | 4 084 909 | 4 126 444 | 4 167 979 | 4 209 514 | 4 251 049 | 4 292 584 | 0.099 7 | ||||||||
冷轧钢板及钢带 | 4 067 207 | 4 100 798 | 4 134 388 | 4 167 979 | 4 201 570 | 4 235 160 | 4 268 751 | 0.080 6 | ||||||||
热连轧钢板及钢带 | 4 078 834 | 4 108 549 | 4 138 264 | 4 167 979 | 4 197 694 | 4 227 409 | 4 257 124 | 0.071 3 | ||||||||
型钢 | 4 081 160 | 4 110 100 | 4 139 039 | 4 167 979 | 4 196 919 | 4 225 858 | 4 254 798 | 0.069 4 | ||||||||
钢 | 4 149 681 | 4 155 780 | 4 161 880 | 4 167 979 | 4 174 078 | 4 180 178 | 4 186 277 | 0.014 6 | ||||||||
铜 | 4 131 866 | 4 143 904 | 4 155 941 | 4 167 979 | 4 180 017 | 4 192 054 | 4 204 092 | 0.028 9 | ||||||||
玻璃 | 4 158 695 | 4 161 790 | 4 164 884 | 4 167 979 | 4 171 074 | 4 174 168 | 4 177 263 | 0.007 4 | ||||||||
聚酯树脂 | 4 164 759 | 4 165 832 | 4 166 906 | 4 167 979 | 4 169 052 | 4 170 126 | 4 171 199 | 0.002 6 | ||||||||
变压器油 | 4 164 938 | 4 165 951 | 4 166 965 | 4 167 979 | 4 168 993 | 4 170 007 | 4 171 020 | 0.002 4 | ||||||||
导线加工工艺 | 4 166 676 | 4 167 110 | 4 167 545 | 4 167 979 | 4 168 413 | 4 168 848 | 4 169 282 | 0.001 0 | ||||||||
瓷 | 4 167 895 | 4 167 923 | 4 167 951 | 4 167 979 | 4 168 007 | 4 168 035 | 4 168 063 | 0.000 1 |
Table 8 Sensitive analysis results of key emission factors
不确定敏感因子 | 变化率/% | 敏感度系数 | ||||||||||||||
–30 | –20 | –10 | 0 | 10 | 20 | 30 | ||||||||||
铝 | 3 626 555 | 3 807 030 | 3 987 504 | 4 167 979 | 4 348 454 | 4 528 928 | 4 709 403 | |||||||||
热浸镀锌工艺 | 3 998 217 | 4 054 804 | 4 111 392 | 4 167 979 | 4 224 566 | 4 281 154 | 4 337 741 | 0.135 8 | ||||||||
电力 | 4 043 374 | 4 084 909 | 4 126 444 | 4 167 979 | 4 209 514 | 4 251 049 | 4 292 584 | 0.099 7 | ||||||||
冷轧钢板及钢带 | 4 067 207 | 4 100 798 | 4 134 388 | 4 167 979 | 4 201 570 | 4 235 160 | 4 268 751 | 0.080 6 | ||||||||
热连轧钢板及钢带 | 4 078 834 | 4 108 549 | 4 138 264 | 4 167 979 | 4 197 694 | 4 227 409 | 4 257 124 | 0.071 3 | ||||||||
型钢 | 4 081 160 | 4 110 100 | 4 139 039 | 4 167 979 | 4 196 919 | 4 225 858 | 4 254 798 | 0.069 4 | ||||||||
钢 | 4 149 681 | 4 155 780 | 4 161 880 | 4 167 979 | 4 174 078 | 4 180 178 | 4 186 277 | 0.014 6 | ||||||||
铜 | 4 131 866 | 4 143 904 | 4 155 941 | 4 167 979 | 4 180 017 | 4 192 054 | 4 204 092 | 0.028 9 | ||||||||
玻璃 | 4 158 695 | 4 161 790 | 4 164 884 | 4 167 979 | 4 171 074 | 4 174 168 | 4 177 263 | 0.007 4 | ||||||||
聚酯树脂 | 4 164 759 | 4 165 832 | 4 166 906 | 4 167 979 | 4 169 052 | 4 170 126 | 4 171 199 | 0.002 6 | ||||||||
变压器油 | 4 164 938 | 4 165 951 | 4 166 965 | 4 167 979 | 4 168 993 | 4 170 007 | 4 171 020 | 0.002 4 | ||||||||
导线加工工艺 | 4 166 676 | 4 167 110 | 4 167 545 | 4 167 979 | 4 168 413 | 4 168 848 | 4 169 282 | 0.001 0 | ||||||||
瓷 | 4 167 895 | 4 167 923 | 4 167 951 | 4 167 979 | 4 168 007 | 4 168 035 | 4 168 063 | 0.000 1 |
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