Effect of water temperature on larval development of the bivalve mollusk Tivela mactroides: evaluation in the laboratory and via simulation

Severeyn, Yajaira García de; Severeyn, Héctor; Grant, William E.; Reverol, Yinett

doi:10.1016/s0304-3800(00)00231-3

Cited by 16 publications

(5 citation statements)

References 21 publications

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“…An expanded search using additional search tools in a future study could obtained data for other taxonomic groups within the Arthropoda (e.g, myriapods, more non-Acari arachnids (spiders), other orders of Crustacea and Insecta, etc. ), or even outside of this phylum (e.g., molluscs: de Severyn et al, 2000; nematodes: Jenkins et al, 2006; Singh and Sharma, 1994; urochorates: Kang et al, 2009; vertebrates: McLaren and Cooley, 1972; Miller et al 2006), which may reveal additional patterns in study design, taxonomy, and function usage of interest. However, overall patterns and conclusions of the present study would likely hold true.…”

Section: Resultsmentioning

confidence: 99%

“…Through its effects on the physical and chemical properties of biologically active molecules, such as enzymes, temperature affects the rate at which numerous life processes occur, including metabolism, oxygen consumption, photosynthesis, movement, survival, growth, and embryonic development (Bĕlehrádek, 1935; Brière et al 1999; Corkett, 1972; Coutant and Talmage 1976; Du et al, 2007; Geffen and Nash, 2012; Herzig, 1983; McLaren et al, 1969). Temperature also significantly affects larval development rate of poikilothermic animals, including some vertebrate larvae (Lind and Johansson, 2007; Kang et al, 2009; Miller et al, 2006) and those of invertebrates (e.g., de Severyn et al, 2000; Jenkins et al 2006; Singh and Sharma, 1994). Temperature has particularly strong impacts on moulting and development of arthropods (Anger, 1984; Corkett and McLaren, 1970; Easterbrook et al, 2003; Hamasaki et al, 2009; Koda and Nakamura, 2010; MacKenzie, 1988; Marchioro and Forester, 2011; McLaren, 1963).…”

Section: Introductionmentioning

confidence: 99%

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A critical review of the use and performance of different function types for modeling temperature-dependent development of arthropod larvae

Quinn

2016

Preprint

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1-506-343-7676 7 8 Highlights: 9  Temperature-dependent development functions of arthropod larvae were reviewed 10  Data from published studies were re-tested and fit with eight different function types 11  86.5 % of published studies did not fit their data with the best function of those tested 12  Performance differed among functions and was related to taxon and temperature range tested 13  Function type impacted predicted development times, so using the best function matters 14 15 16 17 18 19 20 21 22 23 2 ABSTRACT 24 Temperature-dependent development influences production rates of economically-and 25 ecologically-important arthropod species, including crustaceans important to fisheries and 26 agricultural pests. Numerous candidate equation types (development functions) exist to describe 27 the effect of temperature on development time, yet most studies use only a single type of 28 equation and there is no consensus as to which, if any model predicts development rates better 29 than the others, nor what the consequences of selecting a potentially incorrect model equation are 30 on predicted development times. In this study, a literature search was performed of studies fitting 31 development functions to development of arthropod larvae (87 species). The published data of 32 some (52) of these species were then fit with eight commonly-used development functions. 33 Overall performance of each function type and consequences of using a function other than the 34 best one to model data were assessed. Performance was also related to taxonomy and the range 35 of temperatures examined. The majority (86.5 %) of studies were found to not use the best 36 function out of those tested. Using the incorrect model lead to significantly less accurate (e.g., 37 mean difference ± SE 7.9 ± 1.7 %, range: 1-18 %) predictions of development times than the best 38 function. Overall, Heip Power, Quadratic, Bĕlehrádek, and Modified Arrhenius functions 39 performed well, Linear Rate and Tauti Exponential were intermediate, and the Linear Sum and 40 Brière-2 functions performed poorly. More complex functions only performed well when wide 41 temperature ranges were tested, which tended to be confined to studies of insects or arachnids 42 compared with those of crustaceans. Results indicate the biological significance of choosing the 43 best-fitting model to describe temperature-dependent development time data.44 45

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Section: Resultsmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

A critical review of the use and performance of different function types for modeling temperature-dependent development of arthropod larvae

Quinn

2016

Preprint

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“…The rapid growth of A. nucleus and N. nodosus larvae in the higher temperature range coincided with the results obtained for other bivalve species such as C. varia (Acosta & Álvarez 1990), Crassostrea rhizophorae (Guilding 1828), Crassostrea gigas (Lamarck 1819) (Helm et al . 2006), P. yessoensis (MacDonald 1988; Bourne, Hodgson & Whyte 1989), Ruditapes semidecussatus (Reeve 1864) (Beiras, Pérez‐Camacho & Albentosa 1994) and Tivela mactroides (Born 1978) (García de Severeyn, Severeyn, Grand & Reverol 2000). An increase in water temperature increases the activity and the ingestion rate in bivalve larvae (Beiras et al .…”

Section: Discussionmentioning

confidence: 99%

Experimental larval culture of the Caribbean scallops Argopecten nucleus and Nodipecten nodosus

Velasco

Barros

2008

Aquaculture Res

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Several experiments were performed examining the e¡ect of di¡erent culture variables on the growth and survival of Argopecten nucleus and Nodipecten nodosus larvae. Higher growth and survival values were obtained at a low density (1larvae mL À 1 ) than at a high density (5 larvae mL À1 ), except for N. nodosus's survival, which was not a¡ected by density. Higher growth was obtained when feeding the larvae a diet of Isochrysis galbana, similar results occurred with the diet of Isochrysis galbana 1 Chaetoceros calcitrans in A. nucleus and with I. galbana combined with the lipid emulsion EmDHA in N. nodosus. Higher survival was obtained when the diet included a mixture of microalgae than when EmDHA was supplemented. Growth and survival of the larvae of A. nucleus were greater when fed continuously, while N. nodosus grew and survived better when food was given discontinuously. Higher growth and survival values were recorded at lower food concentrations ranging from 20 to 40 cells mL À 1 of I. galbana. Higher growth was observed with increasing temperature between 22 and 28 1C, although there was a simultaneous decrease in survival. No signi¢cant e¡ects on larval production parameters were found when the culture water was changed totally or partially, but higher larval growth of N. nodosus was veri-¢ed when a partial renewal of water was performed.

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“…Our findings agree with those of Asha and Muthiah (2005), who studied the effect of temperature on larval growth, survival, and development in the sea cucumber Holothuria spinifera; those authors observed rapid larval development to the auricularia stage at higher temperatures but slow growth and delayed metamorphosis at lower temperatures. Previous studies have demonstrated that low temperatures induce a longer larval phase and consequently an extended exposure to the hazards of planktonic life (Stickney 1964;Davis and Calabrese 1969;García de Severeyn et al 2000). For the sea cucumber Cucumaria frondosa, the low temperatures increased the duration between developmental stages but did not increase mortality at each step of development (Hamel and Mercier 1996).…”

Section: Discussionmentioning

confidence: 95%

Effects of Temperature and Salinity on Larval Growth, Survival, and Development of the Sea Cucumber Apostichopus japonicus

Sun

et al. 2011

N American J Aquac

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For large-scale seed production of sea cucumbers (class Holothuroidea) through a hatchery system, it is imperative to know the effects of environmental variables on larval growth, survival, and development. In this study, separate experiments were conducted to investigate the effects of temperature and salinity on growth, survival, and development of larval sea cucumbers Apostichopus japonicus before feeding (1-3 d postfertilization) and during feeding (5-9 d postfertilization). On day 3, prefeeding larvae showed a maximum survival rate of 95.9% at 21 • C and a minimum survival rate of 77.3% at 27 • C. On day 8, the highest growth and survival rates of feeding larvae were observed at 21 • C (80.7 µm/d and 90.8%, respectively) and 24 • C (93.6 µm/d and 87.7%). The highest percentage of doliolaria-stage larvae (34.3%) was observed at 24 • C, indicating that the most rapid development of A. japonicus larvae occurred at this temperature. On day 3, the maximum survival rate of prefeeding larvae (92.4%) was observed at a salinity of 30 practical salinity units (psu). On day 9, the maximum growth rate of feeding larvae (65.6 µm/d) and the highest percentage of doliolaria (26.7%) were observed at 30 psu. On day 9, the maximum survival rate of feeding larvae (89.5%) also occurred at 30 psu, whereas no larvae survived at 10, 15, 40, or 45 psu. These results demonstrate that a water temperature of 21-24 • C and a salinity of 30 psu are the most suitable conditions for the early development of A. japonicus.

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Effect of water temperature on larval development of the bivalve mollusk Tivela mactroides: evaluation in the laboratory and via simulation

Cited by 16 publications

References 21 publications

A critical review of the use and performance of different function types for modeling temperature-dependent development of arthropod larvae

A critical review of the use and performance of different function types for modeling temperature-dependent development of arthropod larvae

Experimental larval culture of the Caribbean scallops Argopecten nucleus and Nodipecten nodosus

Effects of Temperature and Salinity on Larval Growth, Survival, and Development of the Sea Cucumber Apostichopus japonicus

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