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捕捉到的掷孢子弹射过程。

The captured launch of a ballistospore.

作者信息

Pringle Anne, Patek Sheila N, Fischer Mark, Stolze Jessica, Money Nicholas P

机构信息

Department of Organismic and Evolutionary Biology, Harvard University, Cambridge, Massachusetts 02138, USA.

出版信息

Mycologia. 2005 Jul-Aug;97(4):866-71. doi: 10.3852/mycologia.97.4.866.

DOI:10.3852/mycologia.97.4.866
PMID:16457355
Abstract

Ballistospore discharge is a feature of 30000 species of mushrooms, basidiomycete yeasts and pathogenic rusts and smuts. The biomechanics of discharge may involve an abrupt change in the center of mass associated with the coalescence of Buller's drop and the spore. However this process occurs so rapidly that the launch of the ballistospore has never been visualized. Here we report ultra high-speed video recordings of the earliest events of spore dispersal using the yeast Itersonilia perplexans and the distantly related jelly fungus Auricularia auricula. Images taken at camera speeds of up to 100,000 frames/ s demonstrate that ballistospore discharge does involve the coalescence of Buller's drop and the spore. Recordings of I. perplexans demonstrate that although coalescence may result from the directed collapse of Buller's drop onto the spore, it also may involve the movement of the spore toward the drop. The release of surface tension at coalescence provides the energy and directional momentum to propel the drop and spore away from the fungus. Analyses show that ballistospores launch into the air at initial accelerations in excess of 10,000 g. There is no known analog of this micromechanical process in animals, plants or bacteria, but the recent development of a surface tension motor may mimic the fungal biology described here.

摘要

弹射孢子是30000种蘑菇、担子菌酵母以及致病锈菌和黑粉菌的一个特征。弹射的生物力学过程可能涉及与布勒氏液滴和孢子合并相关的质心突然变化。然而,这个过程发生得非常迅速,以至于弹射孢子的发射从未被可视化过。在这里,我们报告了使用酵母奇异伊氏酵母和远亲木耳对孢子传播最早事件的超高速视频记录。以高达100000帧/秒的相机速度拍摄的图像表明,弹射孢子的发射确实涉及布勒氏液滴和孢子的合并。对奇异伊氏酵母的记录表明,虽然合并可能是由于布勒氏液滴向孢子的定向塌陷导致的,但也可能涉及孢子向液滴的移动。合并时表面张力的释放提供了能量和定向动量,将液滴和孢子推离真菌。分析表明,弹射孢子以超过10000g的初始加速度发射到空气中。在动物、植物或细菌中,没有已知的类似这种微机械过程的情况,但最近表面张力马达的发展可能会模拟这里描述的真菌生物学过程。

相似文献

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The captured launch of a ballistospore.捕捉到的掷孢子弹射过程。
Mycologia. 2005 Jul-Aug;97(4):866-71. doi: 10.3852/mycologia.97.4.866.
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Adaptation of the spore discharge mechanism in the basidiomycota.担子菌门中孢子释放机制的适应性
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How far and how fast can mushroom spores fly? Physical limits on ballistospore size and discharge distance in the Basidiomycota.蘑菇孢子能飞多远、多快?担子菌门中弹道孢子大小和排放距离的物理极限。
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The fastest short jump in nature: Progress in understanding the mechanism of ballistospore discharge.自然界中最快的短距离跳跃:了解弹射孢子释放机制的进展
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Phs1 and the synthesis of very long chain Fatty acids are required for ballistospore formation.担孢子形成需要Phs1和超长链脂肪酸的合成。
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