Company Filing History:
Years Active: 1999
Title: The Innovations of Steve R Kunkel
Introduction
Steve R Kunkel is a notable inventor based in Rochester, MN (US). He has made significant contributions to the field of computing, particularly in the area of memory access and instruction processing. His innovative approach has led to the development of a unique patent that enhances the efficiency of computing systems.
Latest Patents
Kunkel holds a patent for a "Pseudo zero cycle address generator and fast memory access." This invention provides a method and apparatus to estimate the memory address needed for low-level programming instructions in reduced instruction set computing systems. By leveraging a known computing environment and data architecture, Kunkel's invention combines bits from a displacement field in an Instruction Register with bits from a Base Register through hardware logic circuitry. This process allows for early estimation of the effective address of the desired memory location, enabling data from memory to be available at the end of the next instruction cycle. This innovation effectively avoids stall conditions from the CPU and is particularly beneficial for Very Long Instruction Word architecture. Kunkel's patent is a testament to his ingenuity and understanding of complex computing systems.
Career Highlights
Steve R Kunkel has had a distinguished career, working at International Business Machines Corporation (IBM). His role at IBM has allowed him to collaborate with some of the brightest minds in the industry, contributing to advancements in technology and computing.
Collaborations
Throughout his career, Kunkel has worked alongside talented colleagues, including Dave A Luick and Kenneth J Kiefer. These collaborations have fostered an environment of innovation and creativity, leading to groundbreaking developments in the field.
Conclusion
Steve R Kunkel's contributions to the field of computing through his patent and work at IBM highlight his role as a significant inventor. His innovative methods for memory access continue to influence the design of modern computing systems.