A breakthrough "dual-effect" technology in dry deoxygenation materials extends the shelf life of food and pharmaceutical products.

In the fields of food and pharmaceutical packaging, desiccant and oxygen-scavenging materials can effectively inhibit microbial growth and oxidative spoilage by absorbing moisture and oxygen inside the package, thereby extending product shelf life. Recently, a significant breakthrough has been achieved in the "dual-effect-in-one" technology for these materials, enabling simultaneous enhancements in both moisture absorption capacity and oxygen-scavenging efficiency. This innovation provides a new option for packaging products that are highly susceptible to moisture or prone to oxidation.

2025-09-09

In the fields of food and pharmaceutical packaging, desiccant-deoxygenating materials can effectively inhibit microbial growth and oxidative spoilage by absorbing moisture and oxygen inside the package, thereby extending product shelf life. Recently, a significant breakthrough has been achieved in the "dual-effect-in-one" technology for these materials, enabling simultaneous enhancements in both moisture absorption capacity and deoxygenation efficiency. This innovation provides a new option for packaging products that are highly susceptible to moisture or prone to oxidation.
Introducing our technology R&D team: Traditional drying and deoxygenation materials typically rely on a combination of physical adsorption and chemical reactions. However, it’s often challenging to simultaneously achieve high moisture absorption and robust deoxygenation performance. Our innovative "Dual-Effect-in-One" drying and deoxygenation material addresses this limitation by optimizing the pore structure of the carrier material, significantly boosting the number of active adsorption sites. At the same time, we’ve incorporated highly efficient catalytic components that accelerate the reaction between oxygen and reducing agents. Data shows that this advanced material can absorb moisture up to 300% or more of its own weight, while its deoxygenation efficiency is improved by 50% compared to conventional products. When applied in packaging for items like bread, nuts, and health supplements, it extends shelf life by 2 to 3 times. Moreover, the material has successfully passed food-contact safety testing, containing no heavy metals or harmful additives, making it safer and more reliable for use in everyday applications.

Related

The technical logic behind the thermal conductivity of heat-conducting materials—and why it has become critical for cooling electronic devices

As electronic devices evolve toward miniaturization and higher power, heat dissipation has gradually become the core bottleneck limiting device performance—yet the thermal conductivity of heat-conducting materials has emerged as the key metric for gauging their cooling capabilities. Recently, industry technology experts pointed out that the thermal performance of these materials isn’t determined solely by a single component, but rather depends on the design of internal heat-transfer pathways and the properties of the filling medium within the material.

"Temperature-Resistant" Technology Upgraded for Bonding Materials—Solving Adhesion Challenges in High-Temperature Industrial Applications

In the industrial manufacturing sector, the temperature resistance of adhesive materials directly affects the service life and safety stability of products. Recently, breakthroughs have been made in material technology, leading to the development of high-temperature-resistant adhesives that effectively address the issue of traditional adhesives easily aging and peeling off under extreme heat conditions. These advancements now offer innovative solutions for high-temperature applications such as aerospace and automotive manufacturing.