With the sequencing of several genomes, genomics research in non-model plant species has entered a new era. The US West Coast and the State of Washington produce some of the best fruit crops globally. Research in the program focuses on basic and applied aspects of the non-model specialty crops and bioenergy crops for their improvement.
The importance of being . . . green?
Development of a fruit is accompanied by changes in pigment and several secondary metabolic processes are in full swing at this transitional phase. Organelles, namely chloroplast and mitochondria, are the major centers of activity during this period. The basic research emphasis in the program is to understand plastid development and function in Rosaceae fruit and non-model crops. Mature fruit plastids have been found to be involved in the synthesis and storage of important phytonutrients such as carotenoids and tocopherols as well as precursors to volatiles that play a role in organoleptic properties as well as pre- and postharvest fruit quality. Evaluation of diverse plastidial functions in fruit and bioenergy crops is expected to provide clues about energy transduction that can enable understanding and alleviation of several physiological disorders as well as improvement of photosynthetic function for improved productivity.
The applied research in the program is centered on using physiology and phenomics-guided omics (genomics, transcriptomics, proteomics and metabolomics) investigations to identify genes underlying economically important traits in horticultural and specialty crops. Further, as candidate genes are discovered, reverse and forward genetics approaches are used to confirm gene-trait relationships. The information generated from this approach can be practically utilized in developing physiological and chemical-based solutions for existing varieties and new varieties can be developed through accelerated plant breeding and biotechnology approaches.
Plant Genomics Perspectives
The Pear Revival Journey
March 12, 2013
Soon after arriving at WSU in 2006, I embarked on a journey with a passionate set of individuals to revive an industry that has remained in suspended animation since the early 1900s. An email from a pear farmer in Yakima urged me to apply for funding to do pear research. That was my first introduction to a segment of the Pacific Northwest fruit industry that, while long an underdog relative to apples, has long sought to reinvent itself for the 21st century marketplace. Read more.
Issues Facing the Pacific Northwest Pear Industry
December 4, 2011
Innovation Crucial to Pear’s Future
September 2, 2011
This just in from The Packer: “Innovation crucial to pear’s future” In general, the pear industry is making money but is fragile because of a lack of innovation, said Amit Dhingra, a Washington State University horticultural genomicist. Read more.
PULLMAN, Wash. – A peer-mentoring program to help Washington State University faculty commercialize their research will launch on Jan. 19 with a reception 4-6 p.m. in the CUB junior ballroom.
The goal of the Entrepreneurial Faculty Ambassadors (EFA) is to build a stronger entrepreneurial infrastructure at WSU by creating a resource of faculty mentors who are both outstanding academic scholars and have successfully commercialized university research.
Sliced apples account for ten percent of the U.S. apple market. A Washington State University scientist believes sliced pears could give the pear industry a similar boost if technical challenges can be resolved.
If the pear market could be expanded by 10 percent, by delivering high-quality sliced pears, that would translate to a $40 million positive impact on the pear industry, says Dr. Amit Dhingra, WSU geneticist. Importantly, it would increase the demand for small fruit, in the less-preferred 120 to 135 size range.
Using a proprietary growing method developed at Washington State University (WSU), startup company Phytelligenceis producing plants and trees faster than ever, offering a fresh alternative to tree farmers in an industry overripe for innovation.
“We can produce in one year what is typically produced in three years: a 10-foot tall tree,” says Amit Dhingra, Ph.D., associate professor of horticultural genomics and biotechnology in the molecular plant sciences graduate program at WSU.