MUMBAI, India, Sept. 7 -- Intellectual Property India has published a patent application (202641104371 A) filed by Ishrat Meera Mirzana on August 31, 2026, for Computer-Aided Design And Additive Manufacturing Platform For Customized Biomedical Implants With Enhanced Mechanical Performance And Dimensional Accuracy.
Inventor includes Ishrat Meera Mirzana.
The application for the patent was published on September 04, 2026, under issue no. 36/2026.
Abstract: The platform integrates patient-specific anatomical data obtained through medical imaging with computer-aided design, computational modeling, structural optimization, and additive manufacturing processes to generate individualized implant geometries. The system processes three-dimensional anatomical information to construct a digital implant model conforming to the patient's anatomical requirements and applies design parameters including material distribution, internal lattice structures, wall thickness, porosity, and load-bearing characteristics. A computational analysis module evaluates mechanical behavior, stress distribution, deformation, and structural integrity under simulated physiological loading conditions and optimizes the implant design accordingly. The optimized digital model is subsequently converted into a manufacturing-compatible format and fabricated using an additive manufacturing system with controlled process parameters to achieve improved dimensional precision and repeatability. The platform further incorporates dimensional verification and quality-assessment mechanisms for comparing the manufactured implant with the intended digital geometry and identifying deviations. The invention enables integration of customized design, mechanical optimization, and controlled fabrication within a unified workflow, thereby reducing design-to-manufacturing inconsistencies and improving implant fit, structural reliability, and functional performance. The platform may be adapted for orthopedic, dental, craniofacial, and other biomedical implant applications requiring patient-specific geometries and mechanically optimized structures. FIG.1
Disclaimer: Curated by HT Syndication.
