A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions

This study focused on Sciaenops ocellatus in deep-water cage culture studying the changes of the main energy substances and metabolites during swimming. Based on our results, a physical energy distribution model was constructed. The main conclusions were as follows: (1) A power function relationship...

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Main Authors: Ping W., Shuai C., Yudong L., Yun P., Fukun G.
Format: Article in Journal/Newspaper
Language:unknown
Subjects:
Online Access:http://hdl.handle.net/10524/59308
id ftunivhmevols:oai:evols.library.manoa.hawaii.edu:10524/59308
record_format openpolar
spelling ftunivhmevols:oai:evols.library.manoa.hawaii.edu:10524/59308 2023-05-15T18:05:54+02:00 A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions Ping W. Shuai C. Yudong L. Yun P. Fukun G. 9 pages http://hdl.handle.net/10524/59308 unknown physical energy distribution model Sciaenops ocellatus sea area selections swimming capacity Fish culture--Israel. Fish culture Article Text ftunivhmevols 2019-01-02T18:07:43Z This study focused on Sciaenops ocellatus in deep-water cage culture studying the changes of the main energy substances and metabolites during swimming. Based on our results, a physical energy distribution model was constructed. The main conclusions were as follows: (1) A power function relationship between the maximum swimming time and swimming speed of the red drum was found. (2) At high swimming speed, there was a significant increase in red drum blood glucose concentration, a slight decrease in the amount of muscle glycogen, and a significant decrease in hepatic glycogen. When fish were close to fatigue, hepatic glycogen concentration was close to depletion, so hepatic glycogen concentration in the red drum can be used as an important indicator to determine sustained swimming ability in the fish. (3) There was a significant increase in lactic acid and lactic acid concentration during swimming at a high speed, which indicated that the process of high-speed swimming in the red drum was accompanied by anaerobic respiration and aerobic respiration. (4) This study established a simple swimming physical energy distribution model of red drum based on the energy consumption of hepatic glycogen. The model shows a linear relationship between time and swimming speed. (5) A calculation method for the maximum tidal current velocity in red drum farming areas was put forward based on the physical energy distribution model of the red drum and the rules of the tidal currents. Thish may give practical reference for farming site selection. Article in Journal/Newspaper Red drum Sciaenops ocellatus Digital Repository of the University of Hawaii at Manoa
institution Open Polar
collection Digital Repository of the University of Hawaii at Manoa
op_collection_id ftunivhmevols
language unknown
topic physical energy distribution model
Sciaenops ocellatus
sea area selections
swimming capacity
Fish culture--Israel.
Fish culture
spellingShingle physical energy distribution model
Sciaenops ocellatus
sea area selections
swimming capacity
Fish culture--Israel.
Fish culture
Ping W.
Shuai C.
Yudong L.
Yun P.
Fukun G.
A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
topic_facet physical energy distribution model
Sciaenops ocellatus
sea area selections
swimming capacity
Fish culture--Israel.
Fish culture
description This study focused on Sciaenops ocellatus in deep-water cage culture studying the changes of the main energy substances and metabolites during swimming. Based on our results, a physical energy distribution model was constructed. The main conclusions were as follows: (1) A power function relationship between the maximum swimming time and swimming speed of the red drum was found. (2) At high swimming speed, there was a significant increase in red drum blood glucose concentration, a slight decrease in the amount of muscle glycogen, and a significant decrease in hepatic glycogen. When fish were close to fatigue, hepatic glycogen concentration was close to depletion, so hepatic glycogen concentration in the red drum can be used as an important indicator to determine sustained swimming ability in the fish. (3) There was a significant increase in lactic acid and lactic acid concentration during swimming at a high speed, which indicated that the process of high-speed swimming in the red drum was accompanied by anaerobic respiration and aerobic respiration. (4) This study established a simple swimming physical energy distribution model of red drum based on the energy consumption of hepatic glycogen. The model shows a linear relationship between time and swimming speed. (5) A calculation method for the maximum tidal current velocity in red drum farming areas was put forward based on the physical energy distribution model of the red drum and the rules of the tidal currents. Thish may give practical reference for farming site selection.
format Article in Journal/Newspaper
author Ping W.
Shuai C.
Yudong L.
Yun P.
Fukun G.
author_facet Ping W.
Shuai C.
Yudong L.
Yun P.
Fukun G.
author_sort Ping W.
title A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
title_short A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
title_full A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
title_fullStr A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
title_full_unstemmed A preliminary study of physical energy distribution model of Sciaenops ocellatus under swimming conditions
title_sort preliminary study of physical energy distribution model of sciaenops ocellatus under swimming conditions
url http://hdl.handle.net/10524/59308
genre Red drum
Sciaenops ocellatus
genre_facet Red drum
Sciaenops ocellatus
_version_ 1766177435200520192