SBIR-STTR Award

Development of a low-cost production platform through engineered bacteria for a novel natural acaricide
Award last edited on: 1/16/2019

Sponsored Program
SBIR
Awarding Agency
NSF
Total Award Amount
$1,444,999
Award Phase
2
Solicitation Topic Code
BT
Principal Investigator
Christine Santos

Company Information

Manus Biosynthesis Inc

1030 Massachusetts Avenue Suite 300
Cambridge, MA 02139
   (617) 299-8466
   jwhaley@manusbio.com
   www.manusbio.com
Location: Single
Congr. District: 07
County: Middlesex

Phase I

Contract Number: 1621420
Start Date: 7/1/2016    Completed: 12/31/2016
Phase I year
2016
Phase I Amount
$225,000
The broader impact/commercial potential of this Small Business Innovation Research (SBIR) project will be to reduce the incidence of Lyme Disease through the biomanufacturing of a novel natural acaricide. New cases of Lyme Disease have grown by nearly 50% over the past decade while the existing synthetic acaricides are dwindling in use due to regulatory and consumer safety concerns. The CDC and USDA have begun to champion a highly effective natural acaricide extracted from grapefruit. This target molecule is a GRAS-approved natural product, which has been used extensively as a food ingredient for decades. It is thought that this compelling safety benefit combined with potent efficacy will spur increased spraying in public areas and private residences. However, the cost of producing this natural acaricide has been prohibitive, and there is an opportunity to develop alternative sustainable production technologies. This SBIR Phase I project proposes to develop a microbial process for the economical and sustainable production of a highly potent natural acaricide. Increasing wariness of synthetic insecticides combined with the need to prevent tick-borne illnesses creates a tremendous opportunity for natural acaricides. The project's terpene target has long been known as a highly effective acaricide; however, its commercialization has been hampered by a high cost of production. The aim is to develop an alternative fermentation process for biosynthetic production enabling the cost reductions required to effectively penetrate the acaricide market. The main objective for this project is to increase titers by an order of magnitude. This will be accomplished by employing established and novel metabolic and protein engineering approaches. Overall, this project will provide a new sustainable, cost-effective production route, thereby enabling acaricide commercialization.

Phase II

Contract Number: 1738463
Start Date: 9/1/2017    Completed: 8/31/2019
Phase II year
2017
(last award dollars: 2020)
Phase II Amount
$1,219,999

The broader impact/commercial potential of this Small Business Innovation Research (SBIR) Phase II project, if successful, will be the development of a microbial process for the economical and sustainable production of a highly potent natural acaricide, which is a pesticide that kills mites and ticks. Increasing wariness of synthetic insecticides combined with the need to prevent tick-borne illnesses creates a tremendous opportunity for natural acaricides. The project's terpene target has long been known as a highly effective and safe acaricide; however, its commercialization has been hampered by a high cost of production. The aim is to develop an alternative manufacturing process for biosynthetic production enabling the cost reductions required to effectively penetrate the $1.6 B acaricide market. Because the target is GRAS and because it has been used extensively as a food ingredient for decades, there is a compelling safety benefit combined with its potent efficacy, which may spur increased spraying in public areas and private residences. Overall, this project will provide a new sustainable, cost-effective production route, thereby enabling acaricide commercialization. This SBIR Phase II project will lead to sustainable, scalable, and economical access to a highly potent natural acaricide. A commercial fermentation process will be developed by employing advanced metabolic engineering and protein engineering approaches for improving strain and enzyme performance. Achieving these production metrics will enable formulation and commercialization of various acaricidal products, including yard/area sprays, which will allow better control of tick populations and halt the spread of tick-borne diseases such as Lyme disease. In addition, this work will significantly advance the understanding of producing complex plant natural ingredients, thus providing economical and scalable commercial access to a wide array of compounds with significant potential benefit.