Peanut as a potential crop for bioenergy production via Cd-phytoextraction: A life-cycle pot experiment

被引:25
|
作者
Su, Genqiang [1 ]
Li, Fen [1 ]
Lin, Jingshuang [1 ]
Liu, Caifeng [1 ]
Shi, Gangrong [1 ]
机构
[1] Huaibei Normal Univ, Coll Life Sci, Huaibei 235000, Peoples R China
基金
中国国家自然科学基金;
关键词
Peanut; Bioenergy production; Cadmium accumulation; Cadmium tolerance; Phytoextraction; CADMIUM; PHYTOREMEDIATION; ACCUMULATION; TOLERANCE; SOIL; QUALITY; BIOMASS; METALS; PLANTS; OIL;
D O I
10.1007/s11104-012-1394-1
中图分类号
S3 [农学(农艺学)];
学科分类号
0901 ;
摘要
The current study aimed to assess the potential of peanut (Arachis hypogaea L.) for bioenergy production via phytoextraction in cadmium (Cd) -contaminated soils and screen appropriate cultivars for this approach. A life-cycle pot experiment was conducted to determine the biomass, seed yield, oil content and Cd accumulation of seven peanut cultivars under Cd concentration gradients of 0, 2, and 4 mg kg(-1). Peanut exhibits genotypic variations in Cd tolerance, seed production, oil content, and Cd accumulation. Exposure of plants to 2 and 4 mg kg(-1) Cd did not inhibit shoot biomass, seed yield, and oil content for most of the cultivars tested. There are large amounts of Cd accumulated in the shoots. Although the seed Cd concentration of peanut was relatively high, the Cd concentration in seed oils was very low (0.04-0.08 mg kg(-1)). Among the cultivars, Qishan 208 showed significant Cd tolerance, high shoot biomass, high pod and seed yield, high seed oil content, considerable shoot Cd concentration, and the largest translocation factor and total Cd in shoots. The cultivation of peanut in Cd-contaminated farmland was confirmed to be feasible for bioenergy production via phytoextraction, and Qishan 208 is a good candidate for this approach.
引用
下载
收藏
页码:337 / 345
页数:9
相关论文
共 41 条
  • [21] Life-cycle net energy assessment of large-scale hydrogen production via photoelectrochemical water splitting
    Sathre, Roger
    Scown, Corinne D.
    Morrow, William R., III
    Stevens, John C.
    Sharp, Ian D.
    Ager, Joel W., III
    Walczak, Karl
    Houle, Frances A.
    Greenblatt, Jeffery B.
    ENERGY & ENVIRONMENTAL SCIENCE, 2014, 7 (10) : 3264 - 3278
  • [22] Life-cycle environmental and economic impacts of energy-crop fuel-chains: an integrated assessment of potential GHG avoidance in Ireland
    Styles, David
    Jones, Michael B.
    ENVIRONMENTAL SCIENCE & POLICY, 2008, 11 (04) : 294 - 306
  • [23] Towards solar power supply for copper production in Chile: Assessment of global warming potential using a life-cycle approach
    Moreno-Leiva, Simon
    Diaz-Ferran, Gustavo
    Haas, Jannik
    Telsnig, Thomas
    Diaz-Alvarado, Felipe A.
    Palma-Behnke, Rodrigo
    Kracht, Willy
    Roman, Roberto
    Chudinzow, Dimitrij
    Eltrop, Ludger
    JOURNAL OF CLEANER PRODUCTION, 2017, 164 : 242 - 249
  • [24] Life-cycle assessment of hydrogen production via catalytic gasification of wheat straw in the presence of straw derived biochar catalyst
    Loy, Adrian Chun Minh
    Alhazmi, Hatem
    Lock, Serene Sow Mun
    Yiin, Chung Loong
    Cheah, Kin Wai
    Chin, Bridgid Lai Fui
    How, Bing Shen
    Yusup, Suzana
    BIORESOURCE TECHNOLOGY, 2021, 341
  • [25] Life-cycle assessment of biohythane production via two-stage anaerobic fermentation from microalgae and food waste
    Sun, Chihe
    Xia, Ao
    Liao, Qiang
    Fu, Qian
    Huang, Yun
    Zhu, Xun
    RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2019, 112 : 395 - 410
  • [26] Life-cycle modeling reveals high recovery potential of at-risk wild Chinook salmon via improved migrant survival
    Jacobs, Gregory R.
    Thurow, Russell F.
    Petrosky, Charles E.
    Osenberg, Craig W.
    Wenger, Seth J.
    CANADIAN JOURNAL OF EARTH SCIENCES, 2023, 81 (02) : 297 - 310
  • [27] Life-Cycle Assessment of Potential Algal Biodiesel Production in the United Kingdom: A Comparison of Raceways and Air-Lift Tubular Bioreactors
    Stephenson, Anna L.
    Kazamia, Elena
    Dennis, John S.
    Howe, Christopher J.
    Scott, Stuart A.
    Smith, Alison G.
    ENERGY & FUELS, 2010, 24 (07) : 4062 - 4077
  • [28] Techno-economic and life-cycle analyses of sustainable aviation fuel production via integrated catalytic deoxygenation and hydrothermal gasification
    Umenweke, Great C.
    Pace, Robert B.
    Santillan-Jimenez, Eduardo
    Okolie, Jude A.
    CHEMICAL ENGINEERING JOURNAL, 2023, 452
  • [29] Life-cycle assessment of microalgae liquid biofuel production in biofilm cultivation system via conversion technologies of transesterification, hydrothermal liquefaction and pyrolysis
    Wei, Chaoyang
    Xu, Yilin
    Li, Yinghui
    Wei, Wenjie
    Feng, Yucheng
    Li, Zhuo
    Xu, Long
    JOURNAL OF CLEANER PRODUCTION, 2024, 436
  • [30] Improved Environmental Life Cycle Assessment of Crop Production at the Catchment Scale via a Process-Based Nitrogen Simulation Model
    Liao, Wenjie
    van der Werf, Hayo M. G.
    Salmon-Monviola, Jordy
    ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2015, 49 (18) : 10790 - 10796