Research with Fast Plants and other Rapid-Cycling Brassicas

Brassicas are a highly diverse group of crop plants that have great economic value as vegetables and as sources of condiment mustard, edible and industrial oil, animal fodder, and green manure.  Rapid-cycling populations of six economically important species in the genus Brassica have unusual potential for researching many problems in plant biology and for use in education. Rapid-cycling Brassicas can produce up to ten generations of seed per year and serve as models for research in genetics, host-parasite relations, molecular biology, cell biology, plant biochemistry, population biology, and plant breeding. These plants can also be used in the classroom as convenient, rapidly responding, living plant materials for hands-on learning at all levels of education.  The primary educational species is rapid-cycling Brassica rapa, more commonly known as Fast Plants.

The Crucifer Genetics Cooperative (CrGC) is the germplasm bank for Fast Plants and has been established to develop, acquire, maintain and distribute seed from and information about various genetic stocks of rapid-cycling Brassica and Raphanus species as well as Crucifer-specific pathogens (listing available upon request).

One of the goals of this website is to provide connections between scientists and others about their current research areas with Fast Plants.  The following is a list of current and on-going research with Fast Plants and other rapid-cycling Brassica species.  For information on posting your research, contact info@fastplants.org for details.


Stock Breeding and Development of Rapid-Cycling Brassicas
Dr. Paul H. Williams, University of Wisconsin - Madison


Molecular Markers Integrated with Wisconsin Fast Plants to Facilitate Classroom Visualization of Biological Principles
Jim Nienhuis, University of Wisconsin-Madison


Fast Plants Phenotype Linkage Map Project
Research Link 2000 and the Wisconsin Fast Plants Program, University of Wisconsin - Madison


Using the Rosette Fast Plant to Investigate Theories on the Optimal Timing of the Transition from Vegetative to Reproductive Growth in Annual Plants
Mark A. Schlessman, Vassar College