José Luis Micol

PhD in Biology, Universidad de Murcia, Murcia, Spain, 1985.

Positions held

  • 2000-..., Director of the Department of Applied Biology. Universidad Miguel Hernández. Elche, Spain.
  • 2000-..., Professor in Genetics. Universidad Miguel Hernández.
  • 1997-2000, Associate Professor in Genetics. Universidad Miguel Hernández.
  • Summer of 1992, 1993 and 2000, Visiting Associate. Laboratory of Prof. Eric H. Davidson. Division of Biology. California Institute of Technology. Pasadena, California, USA.
  • Winter of 1991, Visiting Associate. Laboratory of Prof. Marc Van Montagu. University of Gent, Belgium.
  • 1991-1997, Associate Professor in Genetics. Universidad de Alicante. Alicante, Spain.
  • 1989-1991, Postdoc. Laboratory of Prof. Eric H. Davidson. Division of Biology. California Institute of Technology.
  • 1986-1989, Postdoc. Laboratory of Prof. Antonio García-Bellido. Centro de Biología Molecular. Madrid, Spain.
  • 1979-1985, Teaching Assistant in Genetics. Laboratory of Prof. Francisco J. Murillo. Universidad de Murcia. Spain.

Research interests

Plant leaves are the best solar panels ever built, and they also perform well as air purifiers and food factories. Leaves efficiently trap sunlight, remove carbon dioxide from the air, and are the ultimate source of most of the oxygen that we breathe and of the food that we eat. Understanding how a leaf is made is important for several reasons, which include gaining knowledge of the biology and evolution of a multicellular organ with no equivalents in the animal kingdom as well as identifying —and eventually manipulating, to increase crop yield— the genetic, environmental, and hormonal cues that determine its final architecture and function.

To shed light on the making of plant leaves, in 1993 we initiated an attempt to saturate the genome of the model plant Arabidopsis thaliana with viable mutations that cause abnormal leaf morphology. Using a high-throughput gene mapping method that we developed, we cloned more than 50 of the genes identified by mutation. The products of these genes participate in various developmental processes, such as polar cell expansion, transduction of hormonal signals, gene regulation, plastid biogenesis, and chromatin remodeling, among others. The broad spectrum of leaf morphological alterations that we identified is helping to dissect specific leaf developmental processes.

Teaching responsibilities

Taught undergraduate courses in Biology, Environmental Sciences, Medicine, Biochemistry and Biotechnology, including: Genetics, Human Genetics, Population Genetics, Evolution, Molecular Genetics and Genetic Engineering.