4.6 Article

Optimizing pollinator conservation and crop yield among perennial bioenergy crops

期刊

GLOBAL CHANGE BIOLOGY BIOENERGY
卷 13, 期 7, 页码 1030-1042

出版社

WILEY
DOI: 10.1111/gcbb.12826

关键词

agricultural management; biofuel crops; conservation; landscape diversity; Pareto optimality; restored prairie; switchgrass

资金

  1. National Science Foundation [DEB 1832042]
  2. Great Lakes Bioenergy Research Center
  3. US Department of Energy [DE-SC0018409]
  4. Michigan State University
  5. U.S. Department of Energy (DOE) [DE-SC0018409] Funding Source: U.S. Department of Energy (DOE)

向作者/读者索取更多资源

Transitioning current agricultural landscapes into diversified, multifunctional systems is essential to combat the decline of biodiversity and meet the needs of a growing human population. Perennial cellulosic biofuel crops show potential in enhancing biodiversity and addressing biofuel demands, but tradeoffs exist in terms of performance and conservation. Restored prairie emerges as the optimal biofuel crop, balancing pollinator conservation and crop yield, highlighting the importance of sustainable markets and policy for maximizing ecosystem services from agricultural landscapes.
In order to both combat the decline of biodiversity and produce food, fuel, and fiber for a growing human population, current agricultural landscapes must transition into diversified, multifunctional systems. Perennial cellulosic biofuel crops have potential to meet both of these challenges, acting as multifunctional systems that can enhance biodiversity. What is not well understood, and what we test here, are the tradeoffs among different perennial crops in their performance as biofuels and in biodiversity conservation. Working in an established bioenergy experiment with four native, perennial, cellulosic biofuel crop varieties-ranging from monoculture to diverse restoration planting-we tested the effect of biofuel crop management on flower communities, pollinator communities, and crop yield. The greatest abundance and diversity of pollinators and flowers were in treatments that were successional (unmanaged), followed by restored prairie (seeded mix of native grasses and forbs), switchgrass, and a mix of native grasses. However, biofuel crop yield was approximately the inverse, with native grasses having the highest yield, followed by switchgrass and prairie, then successional treatments. Restored prairie was the optimal biofuel crop when both pollinator conservation and crop yield are valued similarly. We add to mounting evidence that policy is needed to create sustainable markets that value the multifunctionality of perennial biofuel systems in order to achieve greater ecosystem services from agricultural landscapes.

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