SBIR-STTR Award

Industrial Metabolic Engineering
Award last edited on: 2/13/09

Sponsored Program
SBIR
Awarding Agency
NIH : NIGMS
Total Award Amount
$702,109
Award Phase
2
Solicitation Topic Code
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Principal Investigator
J Mark Weber

Company Information

Fermalogic Inc (AKA: Ferma Logic Inc.)

920 North Franklin Street Suite 202
Chicago, IL 60610
   (312) 255-1090
   N/A
   www.fermalogic.com
Location: Single
Congr. District: 07
County: Cook

Phase I

Contract Number: 1R43GM079893-01
Start Date: 2/15/07    Completed: 2/14/08
Phase I year
2007
Phase I Amount
$210,631
A type of metabolic engineering described in this proposal, and referred to as "industrial" metabolic engineering, is a method for performing strain improvement in industrial microorganisms by harnessing the power of in vitro transposition mutagenesis. The industrial microorganisms of interest to this study are the actinomycetes, a group of soil bacteria that are best known for their ability to produce over two thirds of the worlds naturally derived antibiotics, anticancer agents, and immunosuppressants currently in medical use. Industrial metabolic engineering also benefits from technical progress made in microfermentation screening. Microfermentations make possible the economical screening of large numbers of mutants in order find improved strains. Because of the transposon tagging process, these improved mutants can be easily reverse engineered to reveal the identity of the strain improvement mutation they harbor in their genome. Once the strain improvement target is identified, new genetic and metabolic knowledge is revealed that can lead to further optimization of the technology and extension of the technology to other industrial fermentation processes of medical importance. The model organism used in this study is the erythromycin producing organism, S. erythraea, that has been the subject of over 50 years of intensive genetic and biochemical research, providing a solid foundation upon which to build the fundamentals for the emerging field of predictive metabolic engineering of industrial microorganisms. 1 PROJECTNARRATIVE Industrial Metabolic Engineering Metabolic engineering will someday give scientists the ability to predicatively manipulate biological organisms for many useful purposes ranging from strain improvement and other industrial biotech applications, to allowing greater agricultural production, permitting more efficient and safer energy production, and providing better understanding of the metabolic basis for medical conditions that will assist in the development of new cures. For some promising new natural products, our technology could make the difference between a drug making it to market, or being abandoned due to inadequate supply of the drug for testing or commercial distribution.

Thesaurus Terms:
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Phase II

Contract Number: 2R44GM079893-02
Start Date: 2/15/07    Completed: 8/31/09
Phase II year
2008
Phase II Amount
$491,478
Industrial metabolic engineering is a method for performing strain improvement in industrial microorganisms by harnessing the power of random in vitro transposition mutagenesis. The organisms we aim to improve in this study are the actinomycetes, a group of soil bacteria that are best known for their ability to produce over two thirds of the worlds naturally derived antibiotics, anticancer agents, and immunosuppressants currently in medical use. The transposon tagging process is powerful not only because of its ability to make strain improvement mutations, but also because it allows strains to be easily reverse engineered to reveal the identity of the affected gene. Once the strain improvement target is identified, new genetic and metabolic knowledge is revealed that can lead to further optimization and extension of the technology to other organisms of medical importance. The model organism used in this study is the erythromycin producing organism, Saccharopolyspora erythraea, a bacterium that has been the subject of over 50 years of intensive genetic and biochemical research, providing a solid foundation upon which to build the fundamentals for the emerging field of metabolic engineering of industrial microorganisms.

Public Health Relevance:
This Public Health Relevance is not available.

Thesaurus Terms:
There Are No Thesaurus Terms On File For This Project.