Lalitha Subramanian

Title: Innovations of Lalitha Subramanian

Introduction

Lalitha Subramanian is an accomplished inventor based in Newtown, PA, known for her significant contributions to material science and engineering. With a total of three patents to her name, she has made strides in modeling and simulating material microstructures, as well as calculating refractive indices for various materials.

Latest Patents

One of her latest patents focuses on modeling and simulating material microstructures. This invention generates computer-based models, such as computer-aided design (CAD) models, of materials. The process involves selecting sections of a model representing a unit of material and estimating physical or chemical properties based on proposed modifications. This iterative process continues until the estimated properties meet user specifications. Another notable patent involves refractive index calculations for materials. This invention calculates birefringence by building three-dimensional structure models of compounds. Each model is aligned along a molecular axis, and tilt angles are set to determine molecular polarizability tensors. The birefringence is then calculated based on these tensors, allowing for the optimization and design of real-world objects, such as phone displays.

Career Highlights

Lalitha Subramanian is currently employed at Dassault Systèmes Americas Corp., where she applies her expertise in material science to develop innovative solutions. Her work has been instrumental in advancing the understanding of material properties and their applications in various industries.

Collaborations

Throughout her career, Lalitha has collaborated with notable colleagues, including Kwan Skinner and Sabine Schweizer. These collaborations have fostered a dynamic environment for innovation and research.

Conclusion

Lalitha Subramanian's contributions to material science through her patents and work at Dassault Systèmes Americas Corp. highlight her role as a leading inventor in her field. Her innovative approaches to modeling materials and calculating their properties continue to influence advancements in technology and engineering.