ISSN: 2376-0354
Daniel E Keathley
Editor-in-Chief
Executive Editor, Department of Horticulture
Michigan State University, USA
Dr. Daniel Keathley is a Professor of Horticulture at Michigan State University. He holds a B.Sc. with Distinction and an M.Sc. in Forestry, as well as a Ph.D. in Genetics from The Ohio State University. He joined the faculty at MSU in 1981. He has served in leadership roles for numerous professional societies and both industry and governmental advisory boards and teaches and undergraduate course titled: Applied Plant Physiology. His research area spans molecular genetics and conventional breeding. Recent research has included studies of transcriptome profiles to elucidate the genetic mechanisms that control the annual growth cycle in woody plants, evaluation of cold hardiness in blueberry, development of seed orchards for genetically improved Christmas tree genotypes, identification of genotypes of woody perennials for biofuel production, and the modification of gene expression to increase wood density and growth rates in biofuel species through tissue specific upregulation of genes for cellulose synthase and GA for the development of sustainable bioenergy systems.
Dr. Daniel Keathley is a Professor of Horticulture at Michigan State University. He holds a B.Sc. with Distinction and an M.Sc. in Forestry, as well as a Ph.D. in Genetics from The Ohio State University. He joined the faculty at MSU in 1981. He has served in leadership roles for numerous professional societies and both industry and governmental advisory boards and teaches and undergraduate course titled: Applied Plant Physiology. His research area spans molecular genetics and conventional breeding. Recent research has included studies of transcriptome profiles to elucidate the genetic mechanisms that control the annual growth cycle in woody plants, evaluation of cold hardiness in blueberry, development of seed orchards for genetically improved Christmas tree genotypes, identification of genotypes of woody perennials for biofuel production, and the modification of gene expression to increase wood density and growth rates in biofuel species through tissue specific upregulation of genes for cellulose synthase and GA for the development of sustainable bioenergy systems.