This inventor holds 1 USPTO granted patent. Top assignee: Industrial Nucleonics Corporation. Active years: 1976.
Company Filing History:
Years Active: 1976
Title: Innovations by David Allan Spitz in Speed Optimization Control
Introduction
David Allan Spitz is an accomplished inventor based in Columbus, OH (US). He has made significant contributions to the field of paper manufacturing through his innovative patent. His work focuses on optimizing the speed control of fibrous sheet-making machines, which is crucial for maintaining the quality of paper products.
Latest Patents
David Allan Spitz holds a patent for a "Speed optimization control for fibrous sheet making machines." This invention specifically discloses a combination of a paper-making machine and a control system. The system includes an automatic arrangement that performs a coordinated machine speed increase upon the operator's demand. It maintains the paper sheet characteristics substantially constant until the dryer steam pressure or the steam valve opening reaches a limit. During the speed increase, various machine variables are compared with set limit values, and the speed increase is discontinued when a limit is exceeded for a predetermined time period. The control system is designed for universal use with many machine arrangements, ensuring optimal performance across different setups.
Career Highlights
David Allan Spitz has dedicated his career to advancing technology in the paper manufacturing industry. His innovative approach to speed optimization has set new standards for efficiency and quality control. He works at Industrial Nucleonics Corporation, where he continues to develop solutions that enhance manufacturing processes.
Collaborations
Due to space constraints, the details of collaborations will not be included.
Conclusion
David Allan Spitz's contributions to speed optimization control in fibrous sheet-making machines demonstrate his commitment to innovation in the paper manufacturing industry. His patent reflects a deep understanding of machine dynamics and operational efficiency.