Abstract: The invention describes a calorimetric measurement set-up having a sensor unit (1) for controlling the quality of the operation of a battery having a cathode and an anode, wherein the measurement set-up or the sensor unit (1) is connected to data processing electronics (11) via a communication link (12) and sensor measured values are therefore recorded and processed. This measurement set-up is intended to achieve reproducible and sufficiently accurate quality control of a battery.

Abstract: The invention describes a calorimetric measurement set-up having a sensor unit (1) for controlling the quality of the operation of a battery having a cathode and an anode, wherein the measurement set-up or the sensor unit (1) is connected to data processing electronics (11) via a communication link (12) and sensor measured values are therefore recorded and processed. This measurement set-up is intended to achieve reproducible and sufficiently accurate quality control of a battery.

Abstract: A heat flow sensor (HFS) and use thereof, which heat flow sensor should have the lowest possible invasiveness and nevertheless is robust enough to satisfy the requirements of individual applications. For this purpose, the heat flow sensor includes an active sensor element, which is provided with a highly thermally conductive heat-conducting element (8, 9) on the cold side and on the hot side, wherein the sensor element is covered or encased by an extremely thin, electrically strongly insulating, chemically inert, and strongly adhering protective layer (6).

Abstract: A heat flow sensor (WFS) and use thereof, which heat flow sensor should have the lowest possible invasiveness and nevertheless is robust enough to satisfy the requirements of individual applications. For this purpose, the heat flow sensor includes an active sensor element, which is provided with a highly thermally conductive heat-conducting element (8, 9) on the cold side and on the hot side, wherein the sensor element is covered or encased by an extremely thin, electrically strongly insulating, chemically inert, and strongly adhering protective layer (6).

Abstract: Disclosed is a method for depositing an alloy and/or chemical compounds on a substrate immersed in an electrolyte (1), comprising the steps of: I) applying a first constant or varying potential to the substrate under voltage control for a first time interval (tA); II) applying a second constant or varying current to the substrate under current control for a second time interval (tB); repeating the sequence of steps (I-II). at least twice. Further the use of the method in particular for the deposition of Bi2+xTe3?x is disclosed as well as a specific device for carrying out the above method.