C. B. Lynch

发表

Circadian rhythms differ between selected mouse lines: A model to study the role of vasopressin neurons in the suprachiasmatic nuclei

E. Zee, A. Bult, L. Hiestand, 1993, Brain Research Bulletin.

Relationships of maternal nesting to thermoregulatory nesting in house mice (Mus musculus) at warm and cold temperatures

B. Possidente, C. B. Lynch, 1978, Animal Behaviour.

Effects of temperature and social interactions on huddling behavior in Mus musculus

C. B. Lynch, P. Batchelder, R. O. Kinney, 1983, Physiology & Behavior.

Classical genetic analysis of circadian body temperature rhythms in mice

C. B. Lynch, M. S. Connolly, 1983, Behavior genetics.

Multiple selection responses in house mice bidirectionally selected for thermoregulatory nest-building behavior: Crosses of replicate lines

A. Bult, C. B. Lynch, Abel Bult, 1996, Behavior genetics.

Response to divergent selection for nesting behavior in Mus musculus.

C. B. Lynch, 1980, Genetics.

Nesting and Fitness: Lifetime Reproductive Success in House Mice Bidirectionally Selected for Thermoregulatory Nest-Building Behavior

A. Bult, C. B. Lynch, 1997, Behavior genetics.

Quantitative-Genetic Analysis of Temperature Regulation in Mus domesticus. IV. Pleiotropy and Genotype-by-Environment Interactions

D. Sulzbach, C. B. Lynch, M. S. Connolly, 1988, The American Naturalist.

Quantitative Genetic Analysis of Temperature Regulation in MUS MUSCULUS. I. Partitioning of Variance.

R. Lacy, C. B. Lynch, 1979, Genetics.

Reproductive responses to variation in temperature and food supply by house mice: II. Lactation.

C. B. Lynch, F. Marsteller, 1987, Biology of reproduction.

Reproductive consequences of food restricition at low temperature in lines of mice divergently selected for thermoregulatory nesting

C. B. Lynch, F. Marsteller, 1983, Behavior genetics.

Circadian variation of strain differences in body temperature and activity in mice

C. B. Lynch, M. S. Connolly, 1981, Physiology & Behavior.

Photoperiod, temperature and melatonin effects on thermoregulatory behavior in Djungarian hamsters

G. Lynch, S. Bulova, W. Puchalski, 1988, Physiology & Behavior.

Environmental modification of nest-building in the white-footed mouse, Peromyscus leucopus

C. B. Lynch, 1974 .

Genetic analyses of photoresponsiveness in the Djungarian hamster,Phodopus sungorus

R. Kliman, G. Lynch, C. B. Lynch, 2004, Journal of Comparative Physiology A.

Differences in the number of arginine-vasopressin-immunoreactive neurons exist in the suprachiasmatic nuclei of house mice selected for differences in nest-building behavior

E. Zee, A. Bult, J. Compaan, 1992, Brain Research.

QUANTITATIVE GENETIC ANALYSIS OF TEMPERATURE REGULATION IN MUS MUSCULUS. II. DIALLEL ANALYSIS OF INDIVIDUAL TRAITS

D. Sulzbach, C. B. Lynch, 1984, Evolution; international journal of organic evolution.

Genetic association between progesterone-induced and maternal nesting in mice

J. E. Schneider, J. P. Hegmann, B. Possidente, 1982, Physiology & Behavior.

Burrowing behavior in wild house mice: Variation within and between populations

C. B. Lynch, Page R. Bouchard, 1989, Behavior genetics.

Breaking Through Artificial Selection Limits of an Adaptive Behavior in Mice and the Consequences for Correlated Responses

Carol B. Lynch, A. Bult, Abel Bult, 2000, Behavior genetics.

Clinal Variation in Cold Adaptation in Mus domesticus: Verification of Predictions from Laboratory Populations

C. B. Lynch, 1992, The American Naturalist.

Genetic differences influencing behavioral temperature regulation in small mammals. II. Genotype-environment interactions

J. P. Hegmann, C. B. Lynch, Joseph P. Hegmann, 1973, Behavior genetics.

Genetic differences influencing behavioral temperature regulation in small mammals. I. Nesting byMus musculus

J. P. Hegmann, C. B. Lynch, Joseph P. Hegmann, 1972, Behavior genetics.

A comparison between house mouse lines selected for attack latency or nest-building: Evidence for a genetic basis of alternative behavioral strategies

J. Koolhaas, A. Bult, G. A. Oortmerssen, 1995, Behavior genetics.

Food Supply by House Mice. I. Mating and Pregnancy1

C. B. Lynch, F. Marsteller, 1987 .

Adaptation to daily meal-timing and its effect on circadian temperature rhythms in two inbred strains of mice

C. B. Lynch, M. S. Connolly, M. Hotz, 1987, Behavior genetics.

Developmental and adult acclimation effects of ambient temperature on temperature regulation of mice selected for high and low levels of nest-building

G. Lynch, R. Lacy, C. B. Lynch, 1978, Journal of comparative physiology.

INBREEDING EFFECTS UPON ANIMALS DERIVED FROM A WILD POPULATION OF MUS MUSCULUS

C. B. Lynch, 1977, Evolution; international journal of organic evolution.

QUANTITATIVE GENETIC ANALYSIS OF TEMPERATURE REGULATION IN MUS MUSCULUS. III. DIALLEL ANALYSIS OF CORRELATIONS BETWEEN TRAITS

D. Sulzbach, C. B. Lynch, 1984, Evolution; international journal of organic evolution.

Investigation of a common physiological mechanism underlying progesterone-induced and maternal nesting in mice, Mus musculus.

J. E. Schneider, C. B. Lynch, 1984, Journal of Comparative Psychology.

The influence of exogenous progesterone on selected lines of mice divergent for maternal nesting

J. E. Schneider, C. B. Lynch, Cynthia L. Gundaker, 1983, Behavior genetics.

Genetic correlations among components of an adaptive syndrome

D. Sulzbach, C. B. Lynch, M. S. Connolly, 1981 .

No Evidence for a Y Chromosomal Effect on Alternative Behavioral Strategies in Mice

C. B. Lynch, Frans Sluyter, Abel Bult, 1997, Behavior genetics.

Photoperiodism and Adaptive Behaviour in a Small Mammal

H. Dingle, G. Lynch, C. B. Lynch, 1973, Nature.

Heterosis among lines of mice selected for body weight

W. G. Hill, C. B. Lynch, R. C. Roberts, 1985, Theoretical and Applied Genetics.

Genetic correlation between two types of nesting inMus musculus: Direct and indirect selection

C. B. Lynch, 1981, Behavior genetics.

Early Cold Exposure: Effects on Behavioral and Physiological Thermoregulation in the House Mouse, Mus musculus

G. Lynch, C. B. Lynch, M. Dube, 1976, Physiological Zoology.

Using quantitative genetic methods to understand mammalian circadian behavior and photoperiodism

G. Lynch, C. B. Lynch, 1992 .