Location History:
- Waukesha, WI (US) (1989)
- Brookfield, WI (US) (1993 - 1997)
Company Filing History:
Years Active: 1989-1997
Title: The Innovations of Bernard J. Lindner
Introduction
Bernard J. Lindner is a notable inventor based in Brookfield, WI (US), recognized for his contributions to the field of brake mechanisms. With a total of five patents to his name, Lindner has made significant advancements in the design and functionality of braking systems for electric motors.
Latest Patents
Lindner's latest patents include a "Brake mechanism with simplified separator springs" and a "Friction disk brake mechanism for electric motor." The first patent describes a brake for an electric motor that utilizes stepped helical coiled separator springs to reduce brake drag by urging separation of pressure plates and friction discs when the brake is released. Each separator spring is designed with an open coil section extending axially from the pressure plate's abutment surface, enhancing the efficiency of the braking system. The second patent outlines a brake mechanism that selectively stops and permits rotation of a shaft within a motor frame. This mechanism features a brake hub secured to the shaft, a friction disk with opposed friction surfaces, and a brake disk engagement structure that allows for effective braking and rotation.
Career Highlights
Throughout his career, Lindner has worked with reputable companies such as Rexnord GmbH and PT Components, Inc. His experience in these organizations has contributed to his expertise in developing innovative braking solutions.
Collaborations
Lindner has collaborated with notable individuals in the industry, including Harold Lorenz and Jerry L. Hamberger. These partnerships have likely fostered a creative environment that has led to the development of his patented technologies.
Conclusion
Bernard J. Lindner's work in the field of brake mechanisms showcases his innovative spirit and dedication to improving electric motor functionality. His patents reflect a commitment to enhancing safety and efficiency in braking systems.