Life Cycle Assessment of Environmental Impacts and Total Cost of Power Cable

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For responding the national demand of energy conservation and emission reduction (ECER) and promoting the green purchase of power equipments, it’s highly of importance to perform the analytic process of environmental impacts and total cost in lifetime for power equipments. Life cycle assessment (LCA) is an analytic approach which completely supervises the concerned objective within its life cycle. In this paper the life cycle is hypothetically divided into three main phases, respectively, the production phase, the operation phase and the recycling phase. On the basis of LCA, this study develops a model regarding the environmental impact analysis and total cost calculation for power cable within its life cycle. This model computes the emission level of main pollutants at each stage and illustrates the trend of total cost change with respect to changeable power load parameters. The experimental research indicates that the developed model is practically useful and rational with conclusions. In terms of environmental impacts of power cable, the effect from the production phase mostly lies in the discharge of abundant waste water. And the effect from the operation phase mainly concentrates upon the energy consumption and the emission of greenhouse gas. However, the effect from the recycling phase is very slight. Meanwhile, as for the perspective of total cost of power cable, the operating cost increases obviously as the power load arises.

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412-419

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October 2017

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© 2017 Trans Tech Publications Ltd. All Rights Reserved

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[1] Copper Development Association, Electrical Energy Efficiency, New York: Copper Development Association, (1997).

Google Scholar

[2] T. Shen, Economic operation analysis of cable lines, Guangdong Electr. Power, 19(12) (2006) 34-38.

Google Scholar

[3] F. Guo, K. Wen, G. F. Li, Design of Life Cycle Costs for Power Transmission Line, Electr. Power Construct. 32(2) (2007) 13-16.

Google Scholar

[4] C. Xu, Research of the application in power equipments' LCA management, Electr. Power, 43(3) (2010) 72-74.

Google Scholar

[5] International Electro-technical Commission, IEC Std 60300-3-3. Dependability management application guide of life cycle cost, Geneva, Switzerland: IEC, (2004).

Google Scholar

[6] S. S. Zha, J. Y. Zheng, J. J. Hu, Selection of main electrical connection of a 500 kV substation in initial stage based on idea of life cycle cost, Power Syst. Technol. 34(3) (2010) 117-121.

Google Scholar

[7] J. W. Guo, J. D. Xie, G. Q. Tang, Life cycle cost analysis in electrical equipment management, High Voltage Eng. 29(4) (2003) 13-16.

Google Scholar

[8] C. H. Yang, Transformer bidding based on life cycle costs, Yun Nan Electr. Power, 39(3) (2011) 27-31.

Google Scholar

[9] L. P. Ye, C. C. Qi, etc. Life cycle assessment of polyvinyl chloride production and its recyclability in China, J. Clean. Prod. 142(Part 4) (2017) 2965-2972.

DOI: 10.1016/j.jclepro.2016.10.171

Google Scholar

[10] G. Liu, J. Y. Cao, etc. Selection Criteria of High-voltage Submarine Cables for Offshore Wind Farms by Life Cycle Cost, High Voltage Eng. 41(8) (2015) 2674-2680.

Google Scholar

[11] H. P. Zhang, Study on Cost of Green Building Based on Life Cycle Theory, Chongqing University, (2012).

Google Scholar

[12] C. J. Wang, Electric wire manual, China Machine Press, 2009, 1115-1166.

Google Scholar

[13] China National Standardization Management Committee, GB/T 3956-2008. Conductors of insulated cable, Beijing, China Standard Press, (2008).

Google Scholar

[14] China National Standardization Management Committee, GB/T 12706-2008. Extruded insulated power cable and accessories from 1kV (Um=1. 2kV) to 35kV (Um=40. 5Kv, Beijing: China Standard Press, (2008).

Google Scholar

[15] China National Standardization Management Committee, GB/T 1179-2008. Round wire concentric-twisted overhead conductor, Beijing: China Standard Press, (2008).

Google Scholar

[16] Y. H. Wu, A. Y. Chen, Z. Wang, D. Z. Sun, Life Cycle Assessment of Polyvinyl Chloride Production, Environ. Sci. Technol. 23(5) (2010) 46-50.

Google Scholar

[17] M. Li, Z. Wang, D. Z. Sun, Study on Life Cycle Assessment of Polythene Production, Environ. Sci. Technol. 32(5) (2009) 37-39.

Google Scholar

[18] H. Xie, H. M. Liu, B. H. Qiu, Y. R. Yan, Life Cycle Assessment of Polypropylene Production and Comparison with Polylactic Acid, Chem. Fiber Text. Technol. 40(2) (2011) 56-61.

Google Scholar

[19] J. L. Jiang, J. F. Dai, W. J. Feng, J. C. Cheng, Life cycle assessment of metallic copper produced by the pyrometallurgical and hydrometallurgical processes, J. Lanzhou Univ. Technol. 32(1) (2006) 20-25.

Google Scholar

[20] M. X. Han, Q. H. Sun, Q. Qiao, X. S. Yang, Pollutants Emission Scenario Analysis of China Copper Smelter Industry, Environ. Sci. Manag. 34(12) (2009) 38-43.

Google Scholar

[21] X. Mao, Life Cycle Assessment of Terylene Textile, Shanghai: Dong Hua University, 2006, 12.

Google Scholar

[22] Z. Q. Gong, A Quantitative Method to the Assessment of the Life Cycle Embodied Environmental Profile of Building Materials, Beijing: Tsinghua University, 2004, 6.

Google Scholar