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MONOGRAM
UK focus on grain and grass research


Monogram Research Areas

The impact of Monogram activities will be realised through trait biology. Monogram is building on established programmes addressing yield and quality in cereals and grass.


Adaptive Traits

Monogram research is addressing the problems of climate change through the responses of the plant to its environment.

 

Plant architecture

  Key contribution
The identification of the Green revolution (Rht) dwarfing gene in wheat.

Featured projects

The Reduced Height Gene (Rht).
  Ph1 locus

The flowering response

  Key contribution
The identification of the major gene controlling flowering time (Ppd1) in wheat and barley.

Featured projects

Pre-Breeding at NIAB - Ppd alleles and markers, QTL for earliness per se and novel variation from synthetic wheat useful to UK/EU wheat improvement.
  Flowering time in barley

Combating senescence

  Key contribution
The identification of Mendel's original stay-green gene, using 'synteny' between the genomes of ryegrass and rice. See Science publication.

Featured projects

  The stay-green gene illustrated

 

Input Traits

Monogram is active in areas which will maximise the efficiency of agricultural inputs. This includes research in resource use efficiency and disease resistance.

Efficient uptake and utilization of nutrients (principally nitrogen) are being studied. The main focus is transport mechanisms including uptake in the roots, partitioning and storage, and remobilization and allocation to grain during grain filling. Tools include transcriptomics, metabolomics, physiology, classical biochemistry and quantitative genetics. Current studies utilise the Rothamsted Classical Nutrition experiments and dedicated nutrition/variety trials to investigate gene x environment effects. The aim is to deliver knowledge, strategies for efficient fertilisation, molecular markers and screens for more efficient varieties.

 

Pest control

  Key contribution


Featured projects

The potential to control insects and other organisms antagonistic to wheat by the up regulation of hydroxamic acids.
   

 

Output Traits

Major gene and QTL analysis are undertaken to identify target genes controlling seed protein content and quality, grain hardness, starch synthesis and other components, thereby allowing the control of, for example, the quality of bread, and of animal feed. To date, the analysis of yield and its components has remained fairly intractable because of the quantitative nature of the variation and its environment sensitivity. Since the technologies to overcome this through marker-assisted major gene and QTL analysis are now available, combined with genomic tools, the genetic and molecular control of yield potential will be a major target in wheat. The main targets are the genetic and molecular control of grain development, in particular to understand the control of grain fertility and grain size, and to elucidate the mechanisms that control the amounts and properties of the major components in wheat grain.

 

Breadmaking quality

  Key contribution
The identification of the glutenin genes and their exploitation to enhance breadmaking quality.

Featured projects

The Smart Carbohydrate Centre.

Optimising wheat grain shape and size for improved processing quality.
  high breadmaking quality

 

Accessing the Genome

Facilitating access to genome information will enable and accelerate applied programmes.

 

Physical Genome

The UK already has a position of leadership in cloning genes in the Monogram crops (e.g. Rht and Ph1 in wheat, ‘staygreen’ in Lolium and Ppd in barley). These successes follow many years of painstaking and dedicated research. Monogram will therefore make a major contribution to the physical characterisation of the genomes of its target species, enabling and accelerating the cloning of genes. In the absence of complete genome sequence complementary strategies will be followed to align genetic and physical maps. Adopting different methodologies in each species, gene-based markers are being used to allowing comparisons between physical and genetic distance, both directly and by reference to model plant genome sequences. Based on gene sequences, these markers are already being and will be increasingly used to link together maps of Lolium wheat and barley. This information will facilitate gene isolation and subsequently the development of novel allele-based and predictive breeding strategies.

  Key contribution
The unification of cereal genetics into a common framework through "synteny".

Featured projects

The establishment and application of a forward genetic resource for the development of efficient breeding strategies in grass and cereals.

The physical and genetic mapping of Brachypodium, and pilot- scale alignment with wheat genome.

EC FP7 TriticeaeGenome Project 2008-2011. To develop physical maps of wheat groups 1 and 3, and the barley genome.
  Synteny bioinformatics studies in grasses

Bioinformatics

Bioinformatics will be an integral part of the above areas and will be embedded in the research programmes; but in addition Monogram aspires to develop tools which will integrate available databases making accessing a gene from a sequence in a model or from a QTL a simple in silico process.


 

Accessing Genetic Diversity

Accessing novel or better genes and alleles from genetically diverse relatives of our crop plants, or from induced genetic variants, will provide enormous potential for crop improvement. Identifying and quantifying genetic diversity at the molecular level is routine using current technologies. The major challenge will be to identify beneficial genetic diversity linked to phenotypic advance in key target genes and to efficiently and rapidly mobilise it into adapted and elite germplasm.

 

Recombination

The single factor which limits cereal and grass research and breeding is the lack of recombination in major areas of the genome. Recent research at IGER and SCRI suggests that at the genetic centromeres recombination is very infrequent. However these regions also contain 30-50% of the genes that appear to be locked into few major haplotypes. Generating and selecting variation – the principle tool of the plant breeder - is largely ineffective in these regions and improvement would likely offer significant potential for genetic gain. In addition, the cloning of the Ph1 locus at JIC suggests possibilities to overcome these limitations. This is clearly an area where the UK should capitalise on its lead. It impacts all traits, and basic science. Several University groups are active in aspects of recombination and have come together to focus on this.

  Key contribution
The identification of the major chromosome pairing locus (in wheat Ph1).

Featured projects

Overcoming the effect of the Ph1 locus in wheat with drugs.
  Ph1 locus

Crossability

  Key contribution
The development of the double haploid production system for wheat breeding.

Featured projects

Clone the Kr1 (crossability) locus in wheat funded by BBSRC agrifood.
 

Gene Validation

The objective is to provide world class technology to allow the efficient in silico identification and eventual validation of genes of interest. A set of gene validation technologies (Transformation, VIGS and Tilling) are already in place within the UK institutes and will allow the characterisation of key traits and the validation of candidate genes for streamlined marker-assisted selection, genetic engineering and further application-oriented research. Monogram is using some institute resource to sustain the activity and in addition will apply for funding to develop the resources as community tools.

  Key contribution


Featured projects

   

 







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