Dfi Usa, LLC

Dynamic Food Ingredients Corporation

Purdue Research Foundation

Jonathan A Stapley

J David Genders

David Genders

Peter M Kendall

Daniel M Atherton

David J Genders

James BeMiller

James N Bemiller

Efficient methods of producing L-threonic acid from L-xylonic acid are disclosed.

Methods for the production of L-threonic acid salts from L-xylonic acid

Methods for the production of 2,4-dihydroxybutyrate (2,4-DHB) from erythrose and other four-carbon sugars are disclosed. The improved methods facilitate the production of 2,4-DHB that is a precursor for biorenewable and animal nutrition chemicals among others.

Method for the production of 2,4-dihydroxybutyric acid

Methods for the production of 2,4-dihydroxybutyrate (2,4-DHB) from erythrulose and other four-carbon sugars are disclosed. The improved methods facilitate the production of 2,4-DHB that is a precursor for biorenewable and animal nutrition chemicals among others.

Methods for simultaneously decarboxylating carbohydrate acids and reducing carbohydrate aldehydes in a divided electrochemical cell having a central compartment separate from the anode and cathode are disclosed using a cation membrane and a bipolar membrane. The improved methods are more cost-efficient and environmentally friendly.

Methods for the simultaneous electrolytic decarboxylation and reduction of sugars

Methods for decarboxylating carbohydrate acids in a divided electrochemical cell are disclosed using a cation membrane. The improved methods are more cost-efficient and environmentally friendly than conventional methods.

Methods for the electrolytic decarboxylation of sugars

Method and electrochemical cells for producing xylo-pent-1,5-diose are provided. The xylo-pent-1,5-diose may be formed in a solution initially comprising D-glucuronic acid or D-glucuronic acid glycoside. The xylo-pent-1,5-diose may be formed by electrochemical oxidative decarboxylation of the D-glucuronic acid or D-glucuronic acid glycoside in the solution in the presence of a graphite foil electrode with improved current efficiency and/or current density.

Methods for the electrolytic production of xylo-pent-1,5-diose

Methods for the production of erythrose and/or erythritol are provided herein. Preferably, the method of producing erythritol includes the step of electrolytic decarboxylation of a ribonic acid or arabinonic acid reactant to produce erythrose and the step of electrolytic reduction or erythrose to produce erythritol. Optionally, the reactant can be obtained from a suitable hexose sugar, such as allose, altrose, glucose, fructose or mannose.

Methods for the electrolytic production of erythritol

Methods for the production of erythrose and/or erythritol are provided herein. Preferably, the methods include the step of electrolytic decarboxylation of a ribonic acid or arabinonic acid reactant to produce erythrose. Optionally, the reactant can be obtained from a suitable hexose sugar, such as allose, altrose, glucose, fructose or mannose. The erythrose product can be hydrogenated to produce erythritol.

Methods for the electrolytic production of erythrose or erythritol

Methods of producing xylitol comprising the oxidative decarboxylation of a reactant substrate are provided herein. The oxidative decarboxylation is performed in one of two ways. In the first, the oxidative decarboxylation is performed by an electrochemical process, preferably an anodic odixative decarboxylation of a reactant substrate. In the second, the oxidative decarboxylation of the reactant substrate is carried out by a series of oxidation-reduction chemical reactions.

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Bellevue, WA, United States of America

Jonathan A Stapley