Grant: Discovery Grants Program - Individual
Brandon University
$31,000.00
Molecular characterization of the function and regulation of the subcomplexes of the ribosomal small subunit processome in ribosome assembly in the yeast model organism Saccharomyces cerevisiae
EF 2018-19
Résumé
Ribosomes are tiny molecular machines that are present by the hundreds of thousands in all cells. They play an essential role in every aspect of life, as they are the link between the genome (or DNA) and proteins. Ribosomes read genetic information and translate it into the corresponding protein. In turn, proteins provide the cell with architectural and structural support, the ability to move (such as muscle contraction), and often themselves act as miniature molecular motors in providing the cell with the ability to use energy, to grow, and to divide. These are all key aspects to the normal day-to-day life of a cell. We have an increasingly sophisticated understanding of how ribosomes read genetic material and assemble the corresponding protein, much like we understand well the internal combustion motor of a car. The research proposed here looks at how the ribosome is assembled and at another miniature molecular machine, called the SSU processome, which assembles part of the ribosome. That is akin to my saying that my interests are in how cars are assembled and how car assembly lines work.*Ribosomes are assembled from a special type of genetic material called ribosomal RNA and also contain many proteins. The ribosomal RNA has to be made and cut, and is at the same time assembled with proteins to give a mature ribosome. The proposed Specific Aim 1 looks at mechanisms by which ribosomal RNA is made, cut and assembled at the same time instead of as separate events. Using the car assembly analogy, this is akin to assembling a car from pieces that are themselves unfinished.*Throughout the very complicated process of ribosome assembly are numerous steps that must be monitored. This is typically done, as proposed in Specific Aim 2, by the addition of a small chemical, called a phosphate group, to proteins working on assembling ribosomes. This phosphate group turns these proteins on or off. Referring to our car assembly line model, this is akin to assembling cars faster or slower, or telling the workers to put more paint or less paint on the car.*This work has the potential to greatly benefit all Canadians. Ribosome assembly is a key fundamental process in all cells. It influences all of biology, from ecology to human health (think all cancers and many genetic disorders) to crop production and livestock in agriculture. I anticipate that this research will allow us to better understand the many steps in the complicated process of ribosome assembly. In turn, this may allow us to manipulate ribosome assembly to increase crop and livestock production and also to intervene when ribosome assembly becomes defective.
Programme
Discovery Grants Program - Individual
Bénéficiaire
Emplacement
Manitoba, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
NSERC's Awards Data
Tel que publié
Application id
RGPIN-2016-06599
Name nom
Charette, JMichael
Department département
Chemistry
Organization id
20
Institution établissement
Brandon University
Province en
Manitoba
Province fr
Manitoba
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2018
Competition year année de concours
2016
Award amount
31000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1501
Committee name en
Genes, Cells and Molecules
Committee name fr
Gènes, cellules et molécules
Area of application code
1201
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Life sciences (including biotechnology)
Area of application fr
Sciences de la vie (y compris biotechnologie)
Research subject code
5402
Research subject group en
Biochemistry
Research subject group fr
Biochimie
Research subject en
Nucleic acids
Research subject fr
Acides nucléiques
Partie
3
Nb partie
5
Application title
Molecular characterization of the function and regulation of the subcomplexes of the ribosomal small subunit processome in ribosome assembly in the yeast model organism Saccharomyces cerevisiae
Keyword
NSERC
Application summary
Ribosomes are tiny molecular machines that are present by the hundreds of thousands in all cells. They play an essential role in every aspect of life, as they are the link between the genome (or DNA) and proteins. Ribosomes read genetic information and translate it into the corresponding protein. In turn, proteins provide the cell with architectural and structural support, the ability to move (such as muscle contraction), and often themselves act as miniature molecular motors in providing the cell with the ability to use energy, to grow, and to divide. These are all key aspects to the normal day-to-day life of a cell. We have an increasingly sophisticated understanding of how ribosomes read genetic material and assemble the corresponding protein, much like we understand well the internal combustion motor of a car. The research proposed here looks at how the ribosome is assembled and at another miniature molecular machine, called the SSU processome, which assembles part of the ribosome. That is akin to my saying that my interests are in how cars are assembled and how car assembly lines work.*Ribosomes are assembled from a special type of genetic material called ribosomal RNA and also contain many proteins. The ribosomal RNA has to be made and cut, and is at the same time assembled with proteins to give a mature ribosome. The proposed Specific Aim 1 looks at mechanisms by which ribosomal RNA is made, cut and assembled at the same time instead of as separate events. Using the car assembly analogy, this is akin to assembling a car from pieces that are themselves unfinished.*Throughout the very complicated process of ribosome assembly are numerous steps that must be monitored. This is typically done, as proposed in Specific Aim 2, by the addition of a small chemical, called a phosphate group, to proteins working on assembling ribosomes. This phosphate group turns these proteins on or off. Referring to our car assembly line model, this is akin to assembling cars faster or slower, or telling the workers to put more paint or less paint on the car.*This work has the potential to greatly benefit all Canadians. Ribosome assembly is a key fundamental process in all cells. It influences all of biology, from ecology to human health (think all cancers and many genetic disorders) to crop production and livestock in agriculture. I anticipate that this research will allow us to better understand the many steps in the complicated process of ribosome assembly. In turn, this may allow us to manipulate ribosome assembly to increase crop and livestock production and also to intervene when ribosome assembly becomes defective.