Water quality variation and algal succession in commercial hybrid catfish production ponds

This study on water quality variation and algal succession in commercial hybrid catfishproduction ponds was conducted in 2007 in Bang Pa-In district, Ayutthaya province, Thailand. Thestudy covered two fish crops, May-August and September-December. The physico-chemical waterquality in the catfish pon...

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Main Author: Siripen Traichaiyaporn
Format: Article
Language:English
Published: Maejo University 2012-03-01
Series:Maejo International Journal of Science and Technology
Subjects:
Online Access:http://www.mijst.mju.ac.th/vol6/105-118.pdf
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spelling doaj-f87d317912834b29878e2d0c3fb49c872020-11-25T00:12:17ZengMaejo UniversityMaejo International Journal of Science and Technology1905-78732012-03-01601105118Water quality variation and algal succession in commercial hybrid catfish production pondsSiripen TraichaiyapornThis study on water quality variation and algal succession in commercial hybrid catfishproduction ponds was conducted in 2007 in Bang Pa-In district, Ayutthaya province, Thailand. Thestudy covered two fish crops, May-August and September-December. The physico-chemical waterquality in the catfish ponds changed dramatically over the study period due to the practices of waterchanging, lime application and the culture duration before harvesting. Samples of algae collectedduring the first crop period contained 83 species belonging to the following divisions: Chlorophyta(34 species), Cyanophyta (28 species), Euglenophyta (12 species), Bacillariophyta (6 species),Chrysophyta (1 species), Pyrrhophyta (1 species) and Cryptophyta (1 species). Samples collectedduring the second crop contained 60 species of the following divisions: Chlorophyta (28 species),Cyanophyta (16 species), Euglenophyta (10 species) and Bacillariophyta (6 species). Cyanophytawas the most abundant in both crops, followed by Chlorophyta, Euglenophyta, Bacillariophyta,Chrysophyta, Cryptophyta and Pyrrhophyta. The blue-green algae Microcystis increasinglydominated the algal population during the course of the culture period. Pseudanabaena spp. weresucceeded by Oscillatoria spp. and then Microcystis spp. in the first crop. Microcystis spp.dominated during the first two months of the second crop, and then was succeeded byPlanktolyngbya spp. and Nitzschia spp. in the third and fourth months. In summary, water qualitymay account for algal proliferation resulting in algal blooms and influence algal succession incommercial catfish production ponds.http://www.mijst.mju.ac.th/vol6/105-118.pdfwater qualityalgal successioncommercial production pondhybrid catfish
collection DOAJ
language English
format Article
sources DOAJ
author Siripen Traichaiyaporn
spellingShingle Siripen Traichaiyaporn
Water quality variation and algal succession in commercial hybrid catfish production ponds
Maejo International Journal of Science and Technology
water quality
algal succession
commercial production pond
hybrid catfish
author_facet Siripen Traichaiyaporn
author_sort Siripen Traichaiyaporn
title Water quality variation and algal succession in commercial hybrid catfish production ponds
title_short Water quality variation and algal succession in commercial hybrid catfish production ponds
title_full Water quality variation and algal succession in commercial hybrid catfish production ponds
title_fullStr Water quality variation and algal succession in commercial hybrid catfish production ponds
title_full_unstemmed Water quality variation and algal succession in commercial hybrid catfish production ponds
title_sort water quality variation and algal succession in commercial hybrid catfish production ponds
publisher Maejo University
series Maejo International Journal of Science and Technology
issn 1905-7873
publishDate 2012-03-01
description This study on water quality variation and algal succession in commercial hybrid catfishproduction ponds was conducted in 2007 in Bang Pa-In district, Ayutthaya province, Thailand. Thestudy covered two fish crops, May-August and September-December. The physico-chemical waterquality in the catfish ponds changed dramatically over the study period due to the practices of waterchanging, lime application and the culture duration before harvesting. Samples of algae collectedduring the first crop period contained 83 species belonging to the following divisions: Chlorophyta(34 species), Cyanophyta (28 species), Euglenophyta (12 species), Bacillariophyta (6 species),Chrysophyta (1 species), Pyrrhophyta (1 species) and Cryptophyta (1 species). Samples collectedduring the second crop contained 60 species of the following divisions: Chlorophyta (28 species),Cyanophyta (16 species), Euglenophyta (10 species) and Bacillariophyta (6 species). Cyanophytawas the most abundant in both crops, followed by Chlorophyta, Euglenophyta, Bacillariophyta,Chrysophyta, Cryptophyta and Pyrrhophyta. The blue-green algae Microcystis increasinglydominated the algal population during the course of the culture period. Pseudanabaena spp. weresucceeded by Oscillatoria spp. and then Microcystis spp. in the first crop. Microcystis spp.dominated during the first two months of the second crop, and then was succeeded byPlanktolyngbya spp. and Nitzschia spp. in the third and fourth months. In summary, water qualitymay account for algal proliferation resulting in algal blooms and influence algal succession incommercial catfish production ponds.
topic water quality
algal succession
commercial production pond
hybrid catfish
url http://www.mijst.mju.ac.th/vol6/105-118.pdf
work_keys_str_mv AT siripentraichaiyaporn waterqualityvariationandalgalsuccessionincommercialhybridcatfishproductionponds
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