Symbiotic relationship between filamentous algae (Halomicronema sp.) and extracellular polymeric substance-producing algae (Chlamydomonas sp.) through biomimetic simulation of natural algal mats

被引:9
作者
Lee, Ha Eun [1 ]
Lee, Jun Ho [2 ]
Park, Seung Moon [3 ]
Kim, Dae Geun [1 ]
机构
[1] Jeonbuk Natl Univ, LED Agribio Fus Technol Res Ctr, Iksan Si, Jeonrabug Do, South Korea
[2] Jeonbuk Natl Univ, Dept Agr Chem, Jeonju Si, Jeonrabug Do, South Korea
[3] Jeonbuk Natl Univ, Dept Bioenvironm Chem, Jeonju Si, Jeonrabug Do, South Korea
关键词
extracellular polymeric substance; filamentous algae; viscous algae; biomass; biomimetic algal mat; BIOMASS PRODUCTIVITY; MICROALGAE; GROWTH; CULTIVATION; BIOFLOCCULATION; POLYSACCHARIDE; CYANOBACTERIA; OPTIMIZATION; BIOFILMS; LIGHT;
D O I
10.3389/fmicb.2023.1176069
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
To lower the cost of biomass harvesting, the growth of natural biofilm is considered to be an optimal alternative to microalgae aggregation. This study investigated algal mats that naturally agglomerate into a lump and float on water surfaces. Halomicronema sp., a filamentous cyanobacterium with high cell aggregation and adhesion to substrates, and Chlamydomonas sp., which grows rapidly and produces high extracellular polymeric substances (EPS) in certain environments, are the main microalgae that make up selected mats through next-generation sequencing analysis. These two species play a major role in the formation of solid mats, and showed a symbiotic relationship as the medium and nutritional source, particularly owing to the large amount of EPS formed by the reaction between EPS and calcium ions through zeta potential and Fourier-transform infrared spectroscopy analysis. This led to the formation of an ecological biomimetic algal mat (BAM) that mimics the natural algal mat system, and this is a way to reduce costs in the biomass production process as there is no separate treatment process for harvesting.
引用
收藏
页数:14
相关论文
共 64 条
[21]   Improving the efficiency of wastewater treatment and microalgae production for biofuels [J].
Huang, Haozhe ;
Zhong, Shaorong ;
Wen, Siqi ;
Luo, Chao ;
Long, Tianyu .
RESOURCES CONSERVATION AND RECYCLING, 2022, 178
[22]   Microbial Mat Communities along an Oxygen Gradient in a Perennially Ice-Covered Antarctic Lake [J].
Jungblut, Anne D. ;
Hawes, Ian ;
Mackey, Tyler J. ;
Krusor, Megan ;
Doran, Peter T. ;
Sumner, Dawn Y. ;
Eisen, Jonathan A. ;
Hillman, Colin ;
Goroncy, Alexander K. .
APPLIED AND ENVIRONMENTAL MICROBIOLOGY, 2016, 82 (02) :620-630
[23]   Non-enclosure methods for non-suspended microalgae cultivation: literature review and research needs [J].
Katarzyna, Ledwoch ;
Sai, Gu ;
Singh, Oinam Avijeet .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2015, 42 :1418-1427
[24]   Biochemical characterization of cyanobacterial extracellular polymers (EPS) from modern marine stromatolites (Bahamas) [J].
Kawaguchi, T ;
Decho, AW .
PREPARATIVE BIOCHEMISTRY & BIOTECHNOLOGY, 2000, 30 (04) :321-330
[25]   Manipulation of light wavelength at appropriate growth stage to enhance biomass productivity and fatty acid methyl ester yield using Chlorella vulgaris [J].
Kim, Dae Geun ;
Lee, Changsu ;
Park, Seung-Moon ;
Choi, Yoon-E .
BIORESOURCE TECHNOLOGY, 2014, 159 :240-248
[26]   Growth and fatty acid composition of three heterotrophic Chlorella species [J].
Kim, Dae Geun ;
Hur, Sung Bum .
ALGAE, 2013, 28 (01) :101-109
[27]  
Kim Y. J., 2021, J KOREAN SOC WATER W, V35, P379, DOI [10.11001/jksww.2021.35.6.379, DOI 10.11001/JKSWW.2021.35.6.379]
[28]  
Kurjahn M, 2023, Arxiv, DOI [arXiv:2202.13658, 10.48550/arXiv.2202.13658, DOI 10.48550/ARXIV.2202.13658]
[29]   A review on sediment bioflocculation: Dynamics, influencing factors and modeling [J].
Lai, Haojie ;
Fang, Hongwei ;
Huang, Lei ;
He, Guojian ;
Reible, Danny .
SCIENCE OF THE TOTAL ENVIRONMENT, 2018, 642 :1184-1200
[30]  
Li C.H., 2019, ENV ARSENIC CHANGING, P141, DOI [10.1201/9781351046633, DOI 10.1201/9781351046633]