Identifying, characterising and engineering fungal plant cell wall degrading enzymes for enhanced biocatalysts in biofuel production

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Title
Identifying, characterising and engineering fungal plant cell wall degrading enzymes for enhanced biocatalysts in biofuel production

CoPED ID
c973c80a-d1a3-4a34-a9ad-47bc3424c22b

Status
Active


Value
No funds listed.

Start Date
Sept. 30, 2019

End Date
Dec. 31, 2023

Description

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BBSRC Theme: Industrial Biotechnology and Bioenergy
Fungal and oomycete genomes are a rich source of carbohydrate processing enzymes that are capable of plant cell wall degradation. Exploitation of these enzymes is attractive given they have the capability of converting waste lignocellulosic biomass from plants into simpler sugars, which can be utilised in biofuel production.

We will focus on fungal/oomycete species including Rhynchosporium spp., Magnaporthe spp., and Phytophthora spp. These species possess a range of carbohydrate processing specificities with potential in biocatalysis. The first part of the project will involve biomining the genomes of a range of fungal/oomycete species to identify carbohydrate degrading enzymes. The focus will be on enzyme families that have potential for natural and engineered substrate diversity, and which present a promising basis for further engineering.

Following this, the genes encoding a number of these enzymes will be cloned and over-expressed in Escherichia coli, and their activity and specificity against a range of carbohydrate substrates investigated. In addition, the structures of the enzymes will be determined using X-ray crystallography. These structural and functional insights will be used to identify candidates to take forward for engineering, where we will use a rational approach to design mutants, including those where the natural sequence diversity of related enzymes can be incorporated, to explore the potential for enhanced activity and/or a wider substrate specificity. Engineering may require combinations of mutants and iterative cycles in order to obtain enzymes that can be applied in biocatalytic applications.

Tracey Gloster SUPER_PER

Subjects by relevance
  1. Enzymes
  2. Biotechnology
  3. Bioenergy
  4. Biomass (industry)
  5. Biofuels
  6. Carbohydrates

Extracted key phrases
  1. Fungal plant cell wall
  2. Plant cell wall degradation
  3. Carbohydrate processing enzyme
  4. Carbohydrate degrading enzyme
  5. Enzyme family
  6. Carbohydrate processing specificity
  7. Identifying
  8. Carbohydrate substrate
  9. Wide substrate specificity
  10. Oomycete specie
  11. Biofuel production
  12. Oomycete genome
  13. Enhanced biocatalyst
  14. Substrate diversity
  15. Enhanced activity

Related Pages

UKRI project entry

UK Project Locations