Jens Kühne

Title: Jens Kühne: Innovator in Jamming Technology

Introduction

Jens Kühne is a notable inventor based in Ebersberg, Germany. He has made significant contributions to the field of jamming technology, particularly in the development of devices and methods for disrupting frequency hopping signals. With a total of 2 patents to his name, Kühne's work is recognized for its innovative approach to signal jamming.

Latest Patents

Kühne's latest patents focus on advanced jamming devices and methods. One of his inventions provides a jamming device designed to jam frequency hopping signals. This device includes at least one receiving antenna that captures signals within the frequency hopping signal spectrum. It features an emission detection unit that identifies emissions related to the frequency hopping signal. Additionally, a signal analysis unit analyzes these emissions to determine their characteristics and outputs jamming trigger signals in an active jamming mode. The jamming unit then employs a predictive jamming scheme based on these signals or utilizes reactive or barrage jamming schemes when trigger signals are unavailable. Another patent also addresses the effectiveness of the emission detection unit by analyzing the number of detected emissions against expected emissions.

Career Highlights

Jens Kühne is currently employed at Rohde & Schwarz GmbH & Co. KG, a leading company in the field of electronic communications and jamming technology. His work at this esteemed organization has allowed him to further develop his innovative ideas and contribute to advancements in signal jamming.

Collaborations

Kühne collaborates with Thomas Schmid, a fellow innovator in the field. Their partnership has fostered a creative environment that encourages the development of cutting-edge technologies.

Conclusion

Jens Kühne's contributions to jamming technology through his patents and work at Rohde & Schwarz GmbH & Co. KG highlight his role as a significant inventor in this specialized field. His innovative approaches continue to influence advancements in electronic communications.