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揭示瑞士真菌近期大量结果的环境驱动因素。

Unraveling environmental drivers of a recent increase in Swiss fungi fruiting.

机构信息

Swiss Federal Research Institute WSL, Birmensdorf, Switzerland.

出版信息

Glob Chang Biol. 2013 Sep;19(9):2785-94. doi: 10.1111/gcb.12263. Epub 2013 Jul 14.

DOI:10.1111/gcb.12263
PMID:23686649
Abstract

Disentangling biotic and abiotic drivers of wild mushroom fruiting is fraught with difficulties because mycelial growth is hidden belowground, symbiotic and saprotrophic supply strategies may interact, and myco-ecological observations are often either discontinuous or too short. Here, we compiled and analyzed 115 417 weekly fungal fruit body counts from permanent Swiss inventories between 1975 and 2006. Mushroom fruiting exhibited an average autumnal delay of 12 days after 1991 compared with before, the annual number of fruit bodies increased from 1801 to 5414 and the mean species richness doubled from 10 to 20. Intra- and interannual coherency of symbiotic and saprotrophic mushroom fruiting, together with little agreement between mycorrhizal yield and tree growth suggests direct climate controls on fruit body formation of both nutritional modes. Our results contradict a previously reported declining of mushroom harvests and propose rethinking the conceptual role of symbiotic pathways in fungi-host interaction. Moreover, this conceptual advancement may foster new cross-disciplinary research avenues, and stimulate questions about possible amplifications of the global carbon cycle, as enhanced fungal production in moist mid-latitude forests rises carbon cycling and thus increases greenhouse gas exchanges between terrestrial ecosystems and the atmosphere.

摘要

解开野生蘑菇结实的生物和非生物驱动因素存在困难,因为菌丝体的生长是隐藏在地下的,共生和腐生供应策略可能会相互作用,而真菌生态学的观察通常是不连续的或太短。在这里,我们编译和分析了 1975 年至 2006 年间瑞士永久库存中 115417 个每周真菌果实的计数。与 1991 年之前相比,蘑菇结实的秋季平均延迟了 12 天,每年的果实数量从 1801 个增加到 5414 个,平均物种丰富度从 10 种增加到 20 种。共生和腐生蘑菇结实的年内和年际一致性,以及菌根产量和树木生长之间几乎没有一致性,表明直接的气候控制对这两种营养模式的果实形成都有影响。我们的结果与先前报道的蘑菇收获量下降的情况相矛盾,并提出重新思考共生途径在真菌-宿主相互作用中的概念作用。此外,这种概念上的进步可能会促进新的跨学科研究途径,并引发关于全球碳循环可能放大的问题,因为潮湿的中纬度森林中真菌产量的增加会促进碳循环,从而增加陆地生态系统和大气之间的温室气体交换。

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