Tygh James Newton

Title: **Innovator Spotlight: Tygh James Newton**

Introduction

Tygh James Newton, a talented inventor based in Sherwood, Oregon, has made significant contributions to the field of electrical engineering. With a total of four patents to his name, Newton’s innovative approaches are paving the way for advancements in electrical interconnect technology.

Latest Patents

Newton's latest patents showcase his inventive prowess. One of his key inventions is a method of forming an electrical interconnect, which involves etching a lattice pattern into a contact pad on a circuit substrate. This method includes several steps: partially filling the lattice with a conductive epoxy, contacting it with a second connection point, and curing the epoxy to create reliable electrical connections. Another remarkable invention is a suspended lattice for electrical interconnects, which features a lattice of conductive material adjacent to a gap in the circuit substrate, with anchor points secured to the substrate. This design may also incorporate a conductive epoxy that encapsulates a portion of the lattice, enhancing connectivity through bonded electrical points.

Career Highlights

Tygh James Newton is currently employed at Xerox Corporation, where he continues to develop innovative solutions and refine electrical interconnect technologies. His work has contributed to numerous advancements within the company, reflecting his dedication to innovation and excellence.

Collaborations

During his career, Newton has collaborated with notable coworkers, including John Richard Andrews and Chad David Freitag. These collaborations have likely fostered a creative environment where innovative ideas can thrive and evolve, enhancing the overall output of their projects.

Conclusion

Tygh James Newton exemplifies the spirit of innovation within the electrical engineering field. His four patents demonstrate his commitment to solving complex challenges through invention. As technological demands continue to evolve, Newton's work will undoubtedly play a crucial role in shaping the future of electrical interconnects.