M. Henryon

发表

Increased prediction accuracy using a genomic feature model including prior information on quantitative trait locus regions in purebred Danish Duroc pigs

P. Sørensen, T. Ostersen, J. Jensen, 2016, BMC Genetics.

Estimating Additive and Non-Additive Genetic Variances and Predicting Genetic Merits Using Genome-Wide Dense Single Nucleotide Polymorphism Markers

M. Lund, T. Ostersen, O. F. Christensen, 2012, PloS one.

Selective breeding can increase resistance of Atlantic salmon to furunculosis, infectious salmon anaemia and infectious pancreatic necrosis

M. Henryon, I. Korsgaard, S. Kjøglum, 2008 .

Eggs and hatchlings of the freshwater crayfish, marron (Cherax tenuimanus Smith), can be artificially incubated at high population densities, and are most successfully incubated at water temperatures between 20°C and 24°C

M. Henryon, I. Purvis, 2003 .

General and family-specific gene expression responses to viral hemorrhagic septicaemia virus infection in rainbow trout (Oncorhynchus mykiss).

P. Sørensen, B. Koop, M. Henryon, 2011, Molecular immunology.

Evolving gene banks: improving diverse populations of crop and exotic germplasm with optimal contribution selection

W. Cowling, B. Kinghorn, K. Siddique, 2016, Journal of experimental botany.

Consequences of elimination of the Rendement Napole allele from Danish Hampshire.

B. Guldbrandtsen, M. Henryon, P. Berg, 2011, Journal of animal breeding and genetics = Zeitschrift fur Tierzuchtung und Zuchtungsbiologie.

Mating animals by minimising the covariance between ancestral contributions generates less inbreeding without compromising genetic gain in breeding schemes with truncation selection.

A. C. Sørensen, M. Henryon, P. Berg, 2009, Animal : an international journal of animal bioscience.

Sparse single-step method for genomic evaluation in pigs

Per Madsen, Tage Ostersen, T. Ostersen, 2016, Genetics Selection Evolution.

Most of the long-term genetic gain from optimum-contribution selection can be realised with restrictions imposed during optimisation

T. Ostersen, A. C. Sørensen, M. Henryon, 2015, Genetics Selection Evolution.

Most of the benefits from genomic selection can be realized by genotyping a small proportion of available selection candidates.

T. Ostersen, A. C. Sørensen, M. Henryon, 2012, Journal of animal science.

Optimum-contribution selection using pedigree relationships to control inbreeding realises more genetic gain than genomic relationships at the same rate of true inbreeding

A. C. Sørensen, G. Su, M. Henryon, 2018 .

Polymorphism in the bovine growth hormone gene affects endocrine release in dairy calves.

P. Sørensen, M. Henryon, P. Løvendahl, 2002, Journal of dairy science.

Selective breeding provides an approach to increase resistance of rainbow trout (Onchorhynchus mykiss) to the diseases, enteric redmouth disease, rainbow trout fry syndrome, and viral haemorrhagic septicaemia

I. Lund, A. Jokumsen, M. Henryon, 2005 .

Eggs and hatchlings of the freshwater crayfish, marron (Cherax tenuimanus), can be successfully incubated artificially

M. Henryon, I. Purvis, 2000 .

Growth and feed utilization in selected outbred families of rainbow trout ( Oncorhynchus mykiss )

I. Lund, M. Henryon, P. Berg, 2018 .

Genetic variation between wild populations of marron (Cherax tenuimanus) can be used to develop an improved commercial strain.

M. Henryon, I. Purvis, S. H. James, 1994 .

Increased prediction accuracy using a genomic feature model including prior information on quantitative trait locus regions in purebred Danish Duroc pigs

P. Sørensen, T. Ostersen, J. Jensen, 2016, BMC Genetics.

Deregressed EBV as the response variable yield more reliable genomic predictions than traditional EBV in pure-bred pigs

Guosheng Su, Per Madsen, Bjarne Nielsen, 2011, Genetics Selection Evolution.

777. Piglet Survival is lowly heritable in DanBred Landrace pigs

T. Ostersen, M. Henryon, X. Guo, 2022, Proceeding of 12th World Congress on Genetics Applied to Livestock Production (WCGALP).

785. Breeding for component traits of litter size at day 5 increases piglet survival while maintaining litter size at day 5

T. Ostersen, A. C. Sørensen, G. Su, 2022, Proceeding of 12th World Congress on Genetics Applied to Livestock Production (WCGALP).

ADAM: A computer program to simulate selective-breeding schemes for animals

A. C. Sørensen, M. Henryon, P. Berg, 2009 .

Growth rate of growing pigs is weakly correlated genetically with litter size, while the amount of genetic variation for growth rate changes with litter size

J. Jensen, L. Rydhmer, M. Henryon, 2005 .

Definition of a breeding objective for commercial production of the freshwater crayfish, marron (Cherax tenuimanus)

M. Henryon, P. Berg, I. Purvis, 1999 .

Genomic prediction of crossbred performance based on purebred Landrace and Yorkshire data using a dominance model

O. F. Christensen, A. C. Sørensen, M. Henryon, 2016, Genetics Selection Evolution.

784. Non-genetic correlations between production traits and litter traits in pigs are important to account for

T. Ostersen, O. F. Christensen, M. Henryon, 2022, Proceeding of 12th World Congress on Genetics Applied to Livestock Production (WCGALP).

Genetic variation for resistance to clinical and subclinical diseases exists in growing pigs

J. Jensen, M. Henryon, P. Berg, 2001 .

Genetic variation for growth rate, feed conversion efficiency, and disease resistance exists within a farmed population of rainbow trout

I. Lund, P. B. Pedersen, A. Jokumsen, 2002 .

Rainbow trout offspring with different resistance to viral haemorrhagic septicaemia.

M. Henryon, P. Berg, N. J. Olesen, 2001, Fish & shellfish immunology.

Response to Selection in Finite Locus Models with Nonadditive Effects

A. C. Sørensen, M. Henryon, P. Berg, 2017, The Journal of heredity.

Statistical model and testing designs to increase response to selection with constrained inbreeding in genomic breeding programs for pigs affected by social genetic effects

J. Jensen, O. F. Christensen, M. Henryon, 2021, Genetics, selection, evolution : GSE.

Genome variability in European and American bison detected using the BovineSNP50 BeadChip

D. Coltman, V. Loeschcke, C. Bendixen, 2010, Conservation Genetics.

Mating strategies with genomic information reduce rates of inbreeding in animal breeding schemes without compromising genetic gain

A. C. Sørensen, M. Henryon, H. Liu, 2016, Animal : an international journal of animal bioscience.

Animal-breeding schemes using genomic information need breeding plans designed to maximise long-term genetic gains☆

Anders Christian Sørensen, Mark Henryon, Peer Berg, 2014 .

Pre-selection against a lethal recessive allele in breeding schemes with optimum-contribution selection or truncation selection

A. C. Sørensen, M. Henryon, P. Berg, 2021, Genetics, selection, evolution : GSE.

Genomic Breeding Programs Realize Larger Benefits by Cooperation in the Presence of Genotype × Environment Interaction Than Conventional Breeding Programs

A. C. Sørensen, M. Kargo, M. Henryon, 2020, Frontiers in Genetics.

Visual assessment of post-mortem lesions exhibits little additive genetic variation in growing pigs

M. Lund, J. Jensen, M. Henryon, 2003 .

Immunological traits have the potential to improve selection of pigs for resistance to clinical and subclinical disease

J. Nielsen, M. Henryon, P. Berg, 2006 .

Identification and characterization of porcine mannan-binding lectin A (pMBL-A), and determination of serum concentration heritability

Anthony C. Willis, Stig Purup, Uffe Holmskov, 2006, Immunogenetics.

Structural gene variants in the porcine mannose-binding lectin 1 (MBL1) gene are associated with low serum MBL-A concentrations

M. Henryon, P. Berg, T. Dalgaard, 2011, Immunogenetics.

Direct multitrait selection realizes the highest genetic response for ratio traits.

M. Kargo, M. Henryon, J. Lassen, 2017, Journal of animal science.

Follicle-stimulating hormone (FSHβ) gene polymorphisms and associations with reproductive traits in Rex rabbits.

M. Henryon, G. Martin, Wenzhong Liu, 2019, Animal reproduction science.

Sparse single-step method for genomic evaluation in pigs

T. Ostersen, O. F. Christensen, P. Madsen, 2016, Genetics Selection Evolution.