Dan Kielsholm Thomsen

Title: Dan Kielsholm Thomsen: Innovator in Robotics

Introduction

Dan Kielsholm Thomsen is a notable inventor based in Hinnerup, Denmark. He has made significant contributions to the field of robotics, particularly in the development of methods to enhance the performance of robot arms. With a total of three patents to his name, Thomsen's work focuses on improving the vibrational properties and control mechanisms of robotic systems.

Latest Patents

Thomsen's latest patents include a method of obtaining vibrational properties of a robot arm. This innovative method involves creating an inertia-vibration model that defines the relationship between the inertia of the robot arm and its vibrational properties. By setting the robot arm in various physical configurations, the model allows for the efficient acquisition of vibrational properties, ultimately reducing vibrations during movement. Another significant patent is the input shaping control of a robot arm in different reference spaces. This patent describes a robot controller that utilizes space shaping modules to generate motor control signals based on shaped target motions, enhancing the precision and stability of robot arm movements.

Career Highlights

Dan Kielsholm Thomsen is currently employed at Universal Robots A/S, a company renowned for its advancements in collaborative robotics. His work at Universal Robots has positioned him as a key player in the development of innovative robotic solutions that are both efficient and user-friendly.

Collaborations

Thomsen collaborates with talented individuals such as Rune Søe-Knudsen and Jeppe Barsøe Jessen. These collaborations foster a creative environment that drives innovation and enhances the capabilities of robotic technologies.

Conclusion

Dan Kielsholm Thomsen's contributions to robotics through his patents and work at Universal Robots A/S highlight his commitment to advancing technology in this field. His innovative methods for controlling robot arms are paving the way for more efficient and effective robotic systems.