Kayla R Kurtz,Lindsay Green-Gavrielidis,Lucie Maranda,Carol S Thornber,Danielle M Moloney,Vinka Oyanedel-Craver
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引用次数: 0
摘要
海洋藻类石灰莼通常被用作生物污损模式生物。由于生物污损研究主要使用野外采集的标本,包括物种特征、季节性可用性和生理状态等因素都会妨碍研究结果的可复制性。为了解决这些限制因素,我们制定了一套按需实验室培养和释放莼菜动物孢子的方案。使用水刀比较了实验室培养的莼菜叶片和野外采集的莼菜叶片的生物污损潜力。在孢子附着力(水喷射前)或水喷射后孢子保留比例方面,野外和实验室培养的样本之间没有发现明显差异。不过,在每种试验类型中,水刀暴露前和暴露后的差异都很大,这表明孢子粘附和保留水平在不同的试验中差异很大。此外,我们所有的实验室培养物都是 C 支系莼菜(LPP 复合体)。这种按需生产莼菜孢子的方案可以改进生物污损研究方法,对不同实验室和地区的结果进行比较,并加快防生物污损策略的开发。
A comparison of the biofouling potential of field-collected and laboratory-cultured Ulva.
The marine algae Ulva spp. are commonly used as model biofouling organisms. As biofouling studies are primarily conducted using field-collected specimens, factors including species identity, seasonal availability, and physiological status can hinder the replicability of the results. To address these limitations, a protocol was developed for the on-demand laboratory culture and release of Ulva zoospores. The biofouling potential of laboratory-cultured and field-collected Ulva blades was compared using a waterjet. No significant differences were found between field and laboratory-cultured samples in either spore adhesion (before waterjet) or the proportion of spores retained after waterjet exposure. However, there was significant variability within each session type in pre- and post-waterjet exposures, indicating that spore adhesion and retention levels vary significantly among trial runs. In addition, all our laboratory cultures were Ulva Clade C (LPP complex). In contrast, our field samples contained a mix of Ulva Clade C, U. compressa clade I, and U. flexuosa Clade D. This protocol for on-demand production of Ulva spores can improve biofouling research approaches, enables comparison of results across laboratories and regions, and accelerate the development of anti-biofouling strategies.