News

Allulose Patents Granted to Bonumose for Unique Enzymatic Conversion Process

Bonumose is pleased to announce that the U.S. Patent & Trademark Office has issued U.S. Patent No. 11,078,506 for “Enzymatic Production of D-Allulose”.

This patent issuance follows Bonumose’s Allulose U.S. Patent No. 11,053,528 (July 6, 2021) and allulose U.S. Patent No. 10,704,069 (July 7, 2020). Bonumose has been issued additional Allulose patents and/or has patent applications pending in all major sugar-consuming and sugar-producing countries. Bonumose also has a broad patent portfolio for Tagatose production, as well as for related materials and processes.

The global Allulose market recently was described as a “dumpster fire” (Food Navigator-USA, June 28, 2021).

Bonumose’s approach is markedly different from other Allulose producers.

The standard way to produce Allulose involves a low-yield enzymatic conversion of fructose to Allulose – a conversion that is inherently limited because the enzymatic reaction is reversible. There are multiple processing steps, including the following major ones: (1) starch dextrinization; (2) liquefaction to produce glucose; (3) isomerization of glucose to produce a syrup with 42% fructose content (limited yield due to a reversible enzymatic reaction); (4) separation of fructose from glucose and other sugars in the syrup; (5) partial enzymatic conversion of fructose to produce a syrup with 25%-30% Allulose (limited yield due to a reversible enzymatic reaction); (6) separation of Allulose from fructose; and (7) purification and crystallization.

Alternatively, fructose can be produced by (1) hydrolyzing sucrose (sugar), (2) separating the fructose from glucose (theoretical 50% yield), then continuing from step #5 shown above and/or converting the glucose to fructose as in step #3 above.

Bonumose’s patented process is much more streamlined and eliminates several processing steps. After starch dextrinization, Bonumose’s proprietary blend of enzymes combine in an irreversible enzymatic reaction to directly convert maltodextrin to ~90% yields of Allulose. This is followed by relatively simple purification and crystallization for pure granulated Allulose.

In summary, Bonumose starts with a less processed feedstock (maltodextrin instead of fructose) and still achieves Allulose yields that are 3X-4X higher than fructose-to-Allulose conversions.

Due to Bonumose’s patented enzymatic technology breakthrough, as well as Bonumose’s other technical and business model innovations, Bonumose expects to be able to reduce the cost of Allulose to food & beverage producers globally.

In pursuing its mission to make great-tasting, healthy rare sugars affordable for more people around the world, Bonumose will continue to devote the resources necessary to extend and defend its global intellectual property rights.

Recent News

10/27/2025

Virginia can lead biotech manufacturing renaissance – if policymakers help

Last week, pharmaceutical giant Merck broke ground on a new $3 billion facility in Virginia that will create 8,000 construction jobs and 500 permanent manufacturing jobs. The new 400,000 square-foot, state-of-the-art plant isn’t merely the latest addition to Virginia’s rapidly growing biotech industry footprint. It’s a sign that America is making quick progress towards President

10/22/2025

Virginia Catalyst Announces Round 19 of Grant Funding

The Virginia Catalyst announced today that it is accepting letters of intent (LOI) for Grant Round 19 to fund the development and commercialization of life science projects that address major unmet needs for improving human health and advance Virginia’s economy. “We at the Virginia Catalyst are pleased to provide funding in support of the Governor’s

10/21/2025

SRI multi-party team selected as an awardee by ARPA-H to develop at-home screening for ≥30 types of cancers

SRI, along with research partners Foothold Labs and Triple Ring Technologies and commercial partner Beacon Dx Health, has been awarded up to $34 million from the Advanced Research Projects Agency for Health (ARPA-H) to develop technology as part of the POSEIDON (Platform Optimizing SynBio for Early Intervention and Detection in Oncology) program. This pioneering program