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Enzymes from thermophilic archaebacteria: current and future applications in biotechnology.

Don Arthur Cowan

Open publisher page 28 citations

Abstract

The one guaranteed property of enzymes isolated from extremely thermophilic micro-organisms is their thermostability. Most significantly, almost any such enzyme will be more thermostable than the functionally similar enzyme from a lower temperature source. Thermostability is not an isolated property: resistance to heat denaturation imparts stability to a number of other denaturing influences (detergents, organic solvents, etc). These characteristics of hyperthermophilic enzymes are the most likely basis for the development of new biotechnological applications. A limited number of hyperthermophilic enzymes have found application in specialist biotechnological applications; others have visible potential in growing areas of biotechnology. Existing and potential applications are discussed using DNA manipulation enzymes, dehydrogenases, and esterases as examples.

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What this paper is about

The one guaranteed property of enzymes isolated from extremely thermophilic micro-organisms is their thermostability. Most significantly, almost any such enzyme will be more thermostable than the functionally similar enzyme from a lower temperature source. Thermostability is not an isolated property: resistance to heat denaturation imparts stability to a number of other denaturing influences (detergents, organic solvents, etc). These characteristics of hyperthermophilic enzymes are the most likely basis for the development of new biotechnological applications. A limited number of hyperthermophilic enzymes have found application in specialist biotechnological applications; others have visible potential in growing areas of biotechnology. Existing and potential applications are discussed using DNA manipulation enzymes, dehydrogenases, and esterases as examples.

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Available abstract

The one guaranteed property of enzymes isolated from extremely thermophilic micro-organisms is their thermostability. Most significantly, almost any such enzyme will be more thermostable than the functionally similar enzyme from a lower temperature source. Thermostability is not an isolated property: resistance to heat denaturation imparts stability to a number of other denaturing influences (detergents, organic solvents, etc). These characteristics of hyperthermophilic enzymes are the most likely basis for the development of new biotechnological applications. A limited number of hyperthermophilic enzymes have found application in specialist biotechnological applications; others have visible potential in growing areas of biotechnology. Existing and potential applications are discussed using DNA manipulation enzymes, dehydrogenases, and esterases as examples.

Key concepts: Thermostability, Thermophile, Enzyme, Biochemistry, Heat stability, Denaturation (fissile materials), Biology, Chemistry

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