Georg Diebel

Title: Innovating Power Management: The Contributions of Georg Diebel

Introduction

Georg Diebel, an accomplished inventor based in Ebenhausen, Germany, has made significant strides in the field of power conversion technology. With a focus on enhancing the efficiency of power converter circuits, Diebel's innovative approaches contribute to the advancement of electrical systems and devices.

Latest Patents

Diebel holds a notable patent titled "Negative slew rate control for power converters." This invention involves a power converter circuit designed to manage the voltage levels of a power supply node effectively. The circuit includes a switch node connected to a regulated power supply through an inductor. It autonomously adjusts to various operating modes in response to commands for reducing the voltage level. Notably, the design compares the voltage level to boundary limits to ensure efficiency continues during the voltage reduction, thus optimizing performance in varying operational conditions.

Career Highlights

Currently, Georg Diebel is employed at Apple Inc., a leading technology company known for its innovative products and services. His role there allows him to leverage his inventive skills in developing advanced electrical technologies that align with the company's commitment to innovation and high performance.

Collaborations

Diebel works alongside talented colleagues, including Alberto Alessandro Angelo Puggelli and Ofir Gilad. Their collaboration fosters a creative environment that encourages the exchange of ideas and expertise, ultimately leading to groundbreaking advancements in power management technology.

Conclusion

Georg Diebel's contributions to the field of power converters exemplify the vital role of inventors in shaping modern technology. His patent on negative slew rate control not only showcases his inventiveness but also underscores the significance of efficient power management in today's electronic devices. As he continues to work at Apple Inc., Diebel's future innovations are anticipated to further enhance the functionality and efficiency of power conversion systems.