Company Filing History:
1 out of 429 Years Active: 1997-2024
Title: Ralph L. Hensler: Innovator in Automotive Safety and Energy Storage
Introduction
Ralph L. Hensler is a notable inventor based in New York, NY, recognized for his contributions to automotive safety and energy storage technologies. With a total of two patents to his name, Hensler has made significant strides in developing innovative solutions that enhance both vehicle safety and energy efficiency.
Latest Patents
Hensler's latest patents include an Underground Pumped Hydro Storage system and a Passenger Restraint System with an electronic crash sensor. The Underground Pumped Hydro Storage system features a substrate, a large water-fillable bag, and an overburden that creates pressure within the bag. This design incorporates nonuniformities in composition or dimension to prevent freezing in cold weather and to enable controlled progression of bag shapes. Additionally, the system may include an irrigation hose buried in the overburden and an antechamber for robotic inspection or maintenance. The system is designed for deployment near a dam on a river.
The Passenger Restraint System utilizes an electronic accelerometer to generate an acceleration signal for detecting crashes in motor vehicles. This electrical signal is processed to emulate an electromechanical sensor, allowing for the detection of abnormal accelerations through differentiation to obtain a jerk signal.
Career Highlights
Hensler is currently employed at Breed Automotive Technology, Inc., where he continues to innovate in the field of automotive safety. His work focuses on integrating advanced technologies to improve vehicle performance and safety features.
Collaborations
Hensler collaborates with Geoffrey Lawrence Mahon, contributing to the development of cutting-edge automotive technologies.
Conclusion
Ralph L. Hensler's innovative work in automotive safety and energy storage exemplifies the impact of engineering and technology on modern society. His patents reflect a commitment to enhancing safety and efficiency in critical systems.