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WW Reynolds (1977)
Temperature as a proximate factor in orientation behaviorJ Fish Res Board Can, 34
C Mora, F Ospina (2001)
Thermal tolerance and potential impact of sea warming on reef fishes from Gorgona Island (Eastern Pacific ocean)Mar Biol, 139
ML Martins, DH Xu, CA Shoemaker, PH Klesius (2011)
Temperature effects on immune response and haematological parameters of channel catfish Ictalurus punctatus vaccinated with live theronts of Ichthyophthirius multifiliisFish Shellfish Immunol, 31
ME Kimball, JM Miller, PE Whitfield, JA Hare (2004)
Thermal tolerance and potential distribution of invasive lionfish (Pterois volitans/miles complex) on the east coast of the United StatesMar Ecol Prog Ser, 283
MT Kimura (2004)
Cold and heat tolerance of drosophilid flies with reference to their latitudinal distributionsOecologia, 140
T Ahmad, SP Singh, BK Khangembam, JG Sharma, R Chakrabarti (2014)
Food consumption and digestive enzyme activity of Clarias batrachus exposed to various temperaturesAquac Nutr
C Mora, F Ospina (2002)
Experimental effects of La Ni�a cold temperatures on the survival of reef fishes from Gorgona Island (Tropical Eastern Pacific)Mar Biol, 141
JR Brett (1979)
Fish physiology
J Eme, TF Dabruzzi, AW Bennett (2011)
Thermal responses of juvenile squaretail mullet (Liza vaigiensis) and juvenile crescent Terapon jarbua acclimated at near-lethal temperatures, and the implication for climate changeJ Exp Mar Biol Ecol, 399
TL Beitinger, WA Bennett, RW McCauley (2000)
Temperature tolerance of North American freshwater fishes exposed to dynamic changes in temperatureEnviron Biol Fish, 58
J Kumari, PK Sahoo, T Swain, SK Sahoo, AK Sahu, BR Mohanty (2006)
Seasonal variation in the innate immune parameters of the Asian catfish Clarias batrachusAquaculture, 252
HM Kasim (2002)
Thermal ecology
SP Singh, JG Sharma, T Ahmad, R Chakrabarti (2013)
Effect of water temperature on the physiological responses of Asian catfish Clarias batrachus (Linnaeus 1758)Asian Fish Sci, 26
SK Wilson, M Adjeroud, DR Bellwood, ML Berumen, D Booth, YM Bozec, P Chabanet, A Cheal (2010)
Crucial knowledge gaps in current understanding of climate change impacts on coral reef fishesJ Exp Biol, 213
C Burel, PL Ruyet, F Gaumet, AL Roux, A Severe, G Boeuf (1996)
Effects of temperature on growth and metabolism in juvenile turbotJ Fish Biol, 49
T Das, AK Pal, SK Chakraborty, SM Manush, N Chatterjee, SC Mukherjee (2004)
Thermal tolerance and oxygen consumption of Indian major carps acclimated to four temperaturesJ Therm Biol, 29
C Morvan, P Deschaux, D Troutaud (1996)
Effects and mechanisms of environmental temperature on carp (Cyprinus carpio) anti-DNP antibody response and non-specific cytotoxic cell activity: a kinetic studyDev Comp Immunol, 20
Catla catla (Family: Cyprinidae) were exposed to 10, 15, 20, 25, 30, 33 and 35 °C following 28 °C acclimation temperature. Temperature change rate was 2 °C/day. Mortality rate of fish was recorded. In 10 °C temperature group, 17 and 65 % mortality was recorded at 14 and 10 °C, respectively. Significantly (P < 0.05) higher mortality was recorded in fish exposed at 10–20 °C as compared to other treatments. Cumulative mortality rates were 89, 43, 24, 18, 1, 2, and 3 % in fish exposed at 10, 15, 20, 25, 30, 33, and 35 °C, respectively. In 10 °C temperature group, all fish died within 2 days, whereas in 15 and 20 °C temperature groups, mortality was continued up to 11 days; it was 18 days in 25 °C temperature group. With simple regression analysis for the temperature range (T < 28 °C and T > 28 °C), percentage changes of mortality per fall and increase of ΔT = 1 °C was calculated in the log-linear regression model framework. When temperature was reduced from 28 °C, the cumulative mortality increment in each 1 °C fall was e.109 = 1.115 (P < 0.05). High R-square value indicated a high variation (96.8 %) in log-transformed mortality for temperature difference. Beta coefficient was less steep when temperature increased beyond 28 °C. The cumulative mortality e.075 = 1.077 (P > 0.05) was obtained for each 1 °C increase of temperature from 28 °C.
Proceedings of the National Academy of Sciences, India Section B: Biological Sciences – Springer Journals
Published: Nov 30, 2014
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