Sign up for our daily Newsletter and stay up to date with all the latest news!

Subscribe I am already a subscriber

You are using software which is blocking our advertisements (adblocker).

As we provide the news for free, we are relying on revenues from our banners. So please disable your adblocker and reload the page to continue using this site.
Thanks!

Click here for a guide on disabling your adblocker.

Sign up for our daily Newsletter and stay up to date with all the latest news!

Subscribe I am already a subscriber
By Ari Goren

Israel: Hebrew University researcher in tomato genome team

The tomato genome sequence, in both the domesticated type and its wild ancestor, Solanum pimpinellifolium, has been sequenced for the first time by a large international team of scientists, including a researcher from the Hebrew University of Jerusalem.

The achievement is important for further development of tomato production .The consortium includes Prof. Dani Zamir of Faculty of Agriculture, of the Hebrew University. Other scientists in the project are from Argentina, Belgium, China, France, Germany, India, Italy, Japan, South Korea, Spain, the Netherlands, the United Kingdom and the United States.

When Columbus brought tomato seed from America to the old world some 500 years ago, he probably never imagined that it would be such a major contributor to human nutrition, health, culinary pleasure and international cooperation.

This latest quantum leap in knowledge of the tomato genetic code (35,000 genes) provides a means to match DNA sequences with specific traits that are important for human well being or taste, such as flavour, aroma, colour and yield.



Beyond improvement of the tomato, the genome sequence also provides a framework for studying closely related plants, such as potato, pepper, petunia and even coffee. These species all have very similar sets of genes, yet they look very different.

How can a similar set of "genetic blueprints" empower diverse plants with different adaptations, characteristics and economic products?

This challenging question is being explored by comparing biodiversity and traits of tomato and its relatives.

The Tomato Genome Consortium started its work in 2003, when scientists analysed the DNA sequence of tomato using the most modern equipment available at the time. Fortunately, with the recent introduction of so-called "next generation sequencing" technologies, the speed of data output increased 500-fold and enabled the project to move on efficiently to its conclusion.

 

 
Publication date: