Silicon Heating Pad

Silicon conductive heating pads have revolutionized the pharmaceutical field, particularly in orthopedic treatments. These advanced pads are designed to provide targeted therapy for patients suffering from joint pain.

When applied to the affected area, the pad initially delivers soothing heat to relax the muscles and alleviate discomfort, creating a foundation for deeper therapeutic effects.

What makes these pads particularly effective is their ability to conduct electrical current through the silicone rubber. Once the muscles are relaxed, a carefully controlled amount of current is introduced to enhance pain relief and recovery.

Silicon Rubber Cap (Tiffin Cap)

This innovative product was developed for the defense unit to address a critical issue faced by soldiers stationed in extreme cold regions, such as Taiwan, where temperatures drop to -10°C to -15°C. Food storage in such harsh conditions is a significant challenge, prompting the defense unit to explore long-lasting, flexible, and non-toxic solutions.

To meet this need, Raghuvanshi Rubber Industries developed a silicon rubber cap with excellent low glass transition temperature, high flexibility, ozone resistance, and extended shelf life. The project was accomplished with the support of LD College of Engineering faculty member Mr. Gnanu Bhaat and student Ujjwal Vig (B.E.).

This solution has proven invaluable for the defense sector, enabling prolonged food storage in low-temperature environments while maintaining safety due to the non-toxic properties of the silicon grade used.

Our Latest Research -
Eco-Friendly Vulcanization: Enhancing PBR with ZnO-MgO Synergy

Read the full research paper here:
Eco-Friendly Vulcanization: Enhancing PBR with ZnO-MgO Synergy .

Raghuvanshi Rubber has achieved a breakthrough in reducing the environmental impact of polybutadiene rubber (PBR) vulcanization. Their latest research demonstrates that using magnesium oxide (MgO) as a co-activator with zinc oxide (ZnO) significantly enhances vulcanization efficiency while lowering ZnO levels.

The optimal blend of 3 phr MgO and 2 phr ZnO achieved superior crosslink density, tensile strength, and reduced swelling. Additionally, formulations with higher MgO content showed improved mechanical properties, making this approach a viable, eco-friendly alternative for high-performance elastomers, including tires. This innovation reinforces Raghuvanshi Rubber’s commitment to sustainable, advanced rubber technologies.