Material Flows Resulting from Large Scale Deployment of Wind Energy in Germany

被引:47
作者
Zimmermann, Till [1 ,2 ]
Rehberger, Max [1 ]
Goessing-Reisemann, Stefan [1 ,2 ]
机构
[1] Univ Bremen, Fac Prod Engn, Dept Technol Design & Dev, D-28359 Bremen, Germany
[2] ARTEC, Res Ctr Sustainabil Studies, D-28359 Bremen, Germany
来源
RESOURCES-BASEL | 2013年 / 2卷 / 03期
关键词
material flows; MFA; wind energy; Weibull distribution; material demand; secondary materials; renewable energies;
D O I
10.3390/resources2030303
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The ambitious targets for renewable energies in Germany indicate that the steady growth of installed capacity of the past years will continue for the coming decades. This development is connected with significant material flows-primary material demand as well as secondary material flows. These flows have been analyzed for Germany up to the year 2050 using a statistical model for the turbines' discard patterns. The analysis encompasses the flows of bulk metals, plastics, and rare earths (required for permanent magnets in gearless converters). Different expansion scenarios for wind energy are considered as well as different turbine technologies, future development of hub height and rotor diameter, and an enhanced deployment of converters located offshore. In addition to the direct material use, the total material requirement has been calculated using the material input per service unit (MIPS) concept. The analysis shows that the demand for iron, steel, and aluminum will not exceed around 6% of the current domestic consumption. The situation for rare earths appears to be different with a maximum annual neodymium demand for wind energy converters corresponding to about a quarter of the overall 2010 consumption. It has been shown that by efficiently utilizing secondary material flows a net material demand reduction of up to two thirds by 2050 seems possible, (i.e., if secondary material flows are fully used to substitute primary material demand).
引用
收藏
页码:303 / 334
页数:32
相关论文
共 69 条
[1]   Superconducting wind turbine generators [J].
Abrahamsen, A. B. ;
Mijatovic, N. ;
Seiler, E. ;
Zirngibl, T. ;
Traeholt, C. ;
Norgard, P. B. ;
Pedersen, N. F. ;
Andersen, N. H. ;
Ostergard, J. .
SUPERCONDUCTOR SCIENCE & TECHNOLOGY, 2010, 23 (03)
[2]  
Althaus H. J., 2007, LIFE CYCLE INVENTORI
[3]  
[Anonymous], 2013, GLOB WIND REP ANN MA
[4]   Failure Modes and Effects Analysis (FMEA) for wind turbines [J].
Arabian-Hoseynabadi, H. ;
Oraee, H. ;
Tavner, P. J. .
INTERNATIONAL JOURNAL OF ELECTRICAL POWER & ENERGY SYSTEMS, 2010, 32 (07) :817-824
[5]   Environmental implications of large-scale adoption of wind power: a scenario-based life cycle assessment [J].
Arvesen, Anders ;
Hertwich, Edgar G. .
ENVIRONMENTAL RESEARCH LETTERS, 2011, 6 (04)
[6]  
Babies H.-G., 2011, DEUTSCHLAND ROHSTOFF
[7]  
Berkhout V., 2012, WIND ENERGY REPORT G
[8]  
BRIEM S, 2004, LEBENSZYKLUSANALYSE
[9]  
Bringezu S., 2003, J IND ECOL, V7, P43, DOI DOI 10.1162/108819803322564343
[10]  
Buchert M., 2011, C WIND TURB SUPPL CH