MUMBAI, India, Oct. 5 -- Intellectual Property India has published a patent application (202641115647 A) filed by Jimspd Arivamudham International Research And Innovation Foundation; Dr. P. Devabalan; Dr. A. P. Janani; Dr. T. Sangeetha; and Mr. Rajesh L on September 27, 2026, for Agni-Raksha X Integrated Fire And Blast-Resistance Lightweight Composite Safety Wall With Embedded Fire Detection, Automatic Suppression, Emergency Communication And Thermal Protective Wearable System.
Inventors include Jimspd Arivamudham International Research And Innovation; Dr. P. Devabalan; Dr. A. P. Janani; Dr. T. Sangeetha; and Mr. Rajesh L.
The application for the patent was published on October 02, 2026, under issue no. 40/2026.
Abstract: This invention is directed to an integrated industrial life-safety system comprised of a very light multilayered fire- and blast-resistant composite wall, thermal and structural sensing embedded in the said composite wall, topological integrity-based edge safety-assessment characterisation of such structures, automatic interfacing with fire-suppression systems including resilient emergency communication within this framework and thermal/fire-resistant protective equipment for harmful worker actions. These components can comprise, but are not limited to, a geopolymer or cementitious structural matrix, lightweight mineral constituents such as expanded perlite and/or vermiculite and/or lightweight aggregate; basalt and/or other suitable fibre reinforcement; polypropylene and/or PVA microfibres; appropriate structural reinforcement; and a mineral fire-protection list. The sensor components directly embedded into the device monitor temperature, thermal gradient, thermal exposure, strain and acoustic/vibration response. A local edge gateway processes the sensor data, combining it in a manner that validates the inputs and generates a safety state using physics/operational constraints with uncertainty-aware processing. To mitigate a situation when approved deterministic safety logic confirms a fire or some other condition is forecasted to lead to hazardous thermal runaway, an automatic sprinkler or other approved water supply suppression interface may be actuated. Emergency event data is relayed to authorised end points via all communication paths, where an additional satellite telecommunication path exists. This allows workers to wear certified anti-static and thermal/fire-resistant protective clothing equipped with local warning capability. The architecture is structured so that loss of external communication does not disable critical local safety functions, while the necessary event and structural-condition information can always be obtained from within a digital safety model for traceability and post-event analysis.
Disclaimer: Curated by HT Syndication.
