positional spacer

Laboratory News - The Scientists' Online Newspaper

Search:

Laboratory and science talk
 
Laboratory News Directory

 Product Categories

 Biochemistry [24]

 Biotechnology [6]

 Chemistry [34]

 Consumables [48]

 Engineering [67]

 Environment [6]

 Haematology [2]

 Health [10]

 Health & Safety [35]

 Imaging [18]

 Lab Design & Storage [47]

 Lab Services [28]

 Microbiology [18]

 Pharma [13]

 Recruitment [1]

 Sample Preparation [42]

 Separation Techniques [17]

 Software [43]

 Spectroscopy [12]

 Test Equipment [11]

 OTHER CATEGORIES

 Associations [68]

 

Laboratory News Directory is
not responsible for the content of external internet sites

 
 
 
 
 

Date:  

You are here: Science Features - Sign up to receive an email newsletter

Moss - a supermodel of a different kind

New genetic sequencing research on one of the simplest plants on the planet could help scientists create crops to survive the ravages of drought.

 
Moss in the headlines again - not Kate this time though 
Scientists from the University of Leeds, with colleagues from Germany, Japan and the USA, have sequenced the genome for Physcomitrella – the first non-flowering or ‘lower’ plant to be sequenced.

The moss Physcomitrella patens is a primitive plant, similar to the first plants which began to grow on land around 450 million years ago. Just one cell thick, these early plants had to adapt to withstand cold, heat and drought without roots or complex leaves. The ability of mosses to survive severe dehydration and then regrow when watered could be of enormous use in crops grown in drought-stricken areas of the developing world.

Dr Andy Cuming, member of the international team said: “Physcomitrella is a really useful plant to study,” explains Dr Cuming. “In addition to being the link between water-based algae and land plants, it also has many important characteristics which make it special. By sequencing the genome, we can start to identify their genetic basis and use the knowledge for crop improvement.”

The moss is also able to integrate new DNA into a defined target in the genome - unlike most plants which integrate new DNA randomly. This means that modification of the moss genome is far more controlled than with other plants and allows the moss to be adapted as a ‘green factory’ to produce pharmaceutical products.

“If we can discover what mechanisms cause the Physcomitrella genome to integrate DNA in this way – we may be able to transfer those to other plants, to allow more controlled modification of their genomes,” said Dr Cuming. “However, we also believe many of the useful genes in Physcomitrella are probably still present in ‘higher’ crop plants, but are no longer active in the same way. So rather than adding new DNA – we’ll just be activating what’s already there to create the properties we want.”

 

Printer friendly version of Laboratory News articlePrinter Friendly version
 

Comment on this article

Labnews.co.uk is your website - so tell us what you think. Just complete the form below, and lets get the debate started!

 

Name:

Email:
This field is optional and will only be used if we need to contact you.
Your email address will not be displayed on the site.


Comment:

Please enter the characters shown in the image below

 

captcha



 
 
 
 
 
 
 

 
 
 
positional spacer