Discover cutting-edge technologies developed by world-class inventors. Connect with experts and explore licensing and collaboration opportunities.
2892
Patents
5765
Inventors
133
Active Spin-offs
14
Research Organizations
Analysis of intellectual property assets across partner research organizations
Total Patents
2892
Recent Patent Publications (2024 & 2025)
252
Top Inventors
Patent Portfolio
Discover patented technologies from leading research organizations
The invention relates to a method for stressing particles (100) by means of electric pulses (200) using a device (1) comprising a process column (2) with a vertically oriented process chamber (3), wherein the process chamber (3) has an inlet (4) at an upper end (5) of the process column (2) and an outlet (6) at a lower end (7) of the process column (2), and the process chamber (3) has a substantially constant width (30) between the inlet (4) and the outlet (6). A supply device (8) for supplying particles (100) to be stressed is paired with the inlet (4), and a discharge device (9) for discharging stressed particles (100) is paired with the outlet (6). The process chamber (3) is associated with two electrodes (10) which are provided on different sides of the process chamber (3) and which are connected to an electric pulse generator (11). The particles (100) to be stressed are continuously guided, as a particle bed (150), from the inlet (4) to the outlet (6) through the process chamber (3) and are stressed by means of electric pulses (200) using the electrodes (100). The invention also relates to the use of such a device for stressing particles (100) by means of electric pulses (200) in order to carry out a method according to one of the preceding claims.
The present invention relates to a computer-implemented single time-point dosimetry method (200) comprising the following steps: a. Deriving for one or more organs at least one pre-therapy metrics from a pre-therapy scan of a patient (201); b. Deriving for the one or more organs the activity value at a specific time from a posttherapy scan of the patient (203); c. Computing the time-integrated activity value for the one or more organs (204); wherein the time-integrated value is computed based on the activity value from the posttherapy scan, the specific time of the posttherapy scan and a predicted effective half-life value, and wherein the predicted effective half-life value is determined by a machine learning-model trained according to the method of the present invention.
Eine Vorrichtung (1) zur Entfernung von Stickoxiden aus dem Abgas von mager betriebenen Wasserstoffverbrennungsmotoren (2) weist einen ersten Katalysator (3), der einen Grundkörper (5), eine auf dem Grundkörper (5) aufgebrachte Trägerschicht (6) aus einem Metalloxid und eine auf der Trägerschicht (6) aufgebrachte aktive Komponente (7) aus Gold und/oder Rhodium aufweist und in dem die Stickoxide mit Wasserstoff zu Ammoniak umgesetzt werden, und einen dem ersten Katalysator (3) in Strömungsrichtung (x) des Abgases nachgeschalteten zweiten SCR-Katalysator (4) auf, in dem mit dem in dem ersten Katalysator (3) erzeugten Ammoniak in dem ersten Katalysator (3) nicht umgesetzten Stickoxide umgesetzt werden.
Success Stories
Companies founded on technologies from our partner institutions
LabCrate Solutions designs modular, customizable substrate storage systems for research laboratories, offering protection and efficient organization for valuable samples.
Mo:re develops an AI-assisted robotic platform that automates 3D cell culture for animal-free medical research.
minimum energy GmbH provides advanced software for the optimized planning of PV and battery storage systems, supporting data-driven energy investment decisions for planners and installers.
Explore the technology portfolios of leading research institutions.










Interested in partnering? Contact us or book a meeting