This inventor holds 2 USPTO granted patents and 1 EPO patent. Top assignee: Qualcomm Incorporated. Active years: 2016.
Company Filing History:
Years Active: 2016
Title: Amey Kulkarni: Innovator in Voltage Level Shifting Technologies
Introduction
Amey Kulkarni is a notable inventor based in Raleigh, NC (US). He has made significant contributions to the field of electrical engineering, particularly in the area of voltage level shifting technologies. With a total of 2 patents to his name, Kulkarni's work has the potential to enhance memory array performance in various applications.
Latest Patents
Kulkarni's latest patents include innovative systems and methods for generating voltage level shifted self-clocked write assistance. This technology involves a circuit that utilizes self-clocked true and complement data input signals in a first voltage domain. The design incorporates first and second full voltage level shifters that generate voltage level shifted self-clocked intermediate true and complement signals in a second voltage domain. Additionally, his patent on a register file circuit aims to improve the minimum operating supply voltage, featuring a memory cell, a header transistor circuit, and a driver circuit. This invention addresses the challenges of contention during write operations, ensuring efficient memory performance.
Career Highlights
Amey Kulkarni is currently employed at Qualcomm Incorporated, a leading company in the telecommunications and semiconductor industry. His role at Qualcomm allows him to work on cutting-edge technologies that drive innovation in mobile and wireless communications.
Collaborations
Kulkarni collaborates with esteemed colleagues such as Jason Philip Martzloff and Francois Ibrahim Atallah. Their combined expertise contributes to the advancement of technologies in their field.
Conclusion
Amey Kulkarni's contributions to voltage level shifting technologies and his work at Qualcomm Incorporated highlight his role as an influential inventor. His patents reflect a commitment to innovation that can significantly impact the future of memory array technologies.