• The Korean Journal of Mycology
• /
• v.47 no.1
• /
• pp.43-50
• /
• 2019

We investigated the biodiversity of endophytic fungi of Bolboschoenus planiculmis and Schoenoplectus triqueter in Korea. Twenty five of these host plants were collected from six sampling sites. Internal transcribed spacer analysis identified a total of eighty five isolates from the collected plants. The isolates comprised nineteen taxa; most of the isolates (92%) belonged to class Dothideomycetes, followed by Sordariomyetes (4.8%), Agaricomycetes (1.6%), and Eurotiomycetes (0.8%). The most prevalent fungus was Cladosporium perangustum in B. planiculmis and Macrospora scirpicola in S. triqueter. There are very few studies of endophytic fungi in halophytes and these have reported biodiversity patterns different from those of previous studies in Korea. Our results should provide useful information for future research in Korea.

• Journal of Wetlands Research
• /
• v.8 no.3
• /
• pp.39-49
• /
• 2006

Seasonal biomass and carbon, nitrogen contents change of marsh club-rush (Schoenoplectus trigueter) was investigated in Nakdong river estuary, located near Busan, Korea. New shoot of S. trigueter sprouted from tuber in April and fast growth season was followed until mature in August. Mature lengths of shoot and root were 60 and 9.4 cm, respectively. The increase of biomass showed similar seasonal trends with length. Mature biomass were $3.5gind^{-1}$ in wet weight and $0.6gind^{-1}$ in dry weight. The biomass of S. trigueter in areal basis was also highest during July and August ($186gDWm^{-2}$). The shoot of S. trigueter was disappeared in October from the ground but the biomass of shoot was maintained as a form of detritus in sediment. The amount of S. trigueter detritus was about 30~50% of the biomass in August. During winter, the amount of detritus decreased with time but the biomass of root+tuber remained same, implying the root+tuber part is alive. The net productivity of S. trigueter estimated from biomass change were $538gDWm^{-2}yr^{-1}$, $240g-Cm^{-2}yr^{-1}$, $8.2g-Nm^{-2}yr^{-1}$ in dry weight, carbon and nitrogen equivalent respectively. During winter, carbon to nitrogen ratio in detritus increased implying the preferred remineralization of nitrogen during microbial degradation.