Inventors with similar research interests:
Location History:
- Huntingdon Valley, PA (US) (1976 - 1995)
- Willow Grove, PA (US) (1976 - 2000)
- Huntington Valley, PA (US) (2000)
Company Filing History:
Years Active: 1976-2000
Areas of Expertise:
Title: Stephen F Hope: Innovator in Electrochemical Technologies
Introduction
Stephen F Hope, based in Willow Grove, Pennsylvania, is a prolific inventor known for his significant contributions to electrochemical devices. With a remarkable portfolio of 66 patents, he has made strides in the field of electroconductive materials and solid-state electrolytes.
Latest Patents
Among his latest innovations are:
1. **Method of Electroconductive Fastening of Current Collectors** - This patent describes a method for joining sheets of metal or electrically conductive fibers using an adhesive tape. The process involves applying pressure to activate the adhesive layer, ensuring electroconductive contact between the sheets.
2. **Solid State Polymeric Electrolyte for Electrochemical Devices** - In this invention, he presents a solid state polymeric electrolyte formed by complexing an alkaline metal triflate salt with polyethylene oxide, in combination with co-solvents like esters or ethers, resulting in a solid or semi-solid state electrolyte.
Career Highlights
Stephen has demonstrated his technical expertise while working with various companies, including Hope Industries, Inc. His innovative approach in developing new methods and materials has significantly impacted the electrochemical industry.
Collaborations
Throughout his career, Stephen has collaborated with notable colleagues, including Henry F Hope and Joseph B Kejha. Their joint efforts have contributed to advancing technology in their respective fields.
Conclusion
Stephen F Hope continues to be a driving force in the innovation of electrochemical technologies. His extensive patent portfolio and collaborations underscore his commitment to advancing the industry, making significant contributions that will influence future advancements in electroconductive materials.