Abstract: A heating device for a prismatic battery cell of a high-voltage battery of a motor vehicle includes two sheet-shaped heating elements to be arranged on two opposite lateral outer sides of a cell housing of the battery cell, and two connecting elements to be arranged on a housing cover of the cell housing. The connecting elements are electrically connected to terminals of the two heating elements. The connecting elements are flexibly formed, at least in certain regions, and as a result the heating elements are connected in a hinge-like manner. The heating device can be arranged by arranging the first heating element on the first lateral outer side of the cell housing, swinging the second heating element over the housing cover, and arranging the second heating element on the second lateral outer side on the cell housing.

Abstract: A planetary gearset (6) has a sun gear (10) connected rotationally fixedly to an input shaft (8), a carrier (15) that carries planetary gears (11) and is connected rotationally fixedly to an output shaft (16), and a ring gear (14) fixedly connected to a housing (4) that encloses the planetary gearset (6). To reduce the noise emission from the planetary gearset with as little structural complexity as possible without reducing its efficiency due to pressure rings that are guided and slide against the planetary gears and the carrier, the sun gear (10), the planetary gears (11) and the ring gear (14) are provided with helical teeth and the input shaft (8) is at least indirectly supported on the housing (4), in both axial directions, by way of a single roller bearing (20).

Abstract: The invention relates to a method for performing data analysis for plant phenotyping of single plants in a field and a data acquisition and evaluation system for performing data analysis for plant phenotyping of single plants in a field. Further, the invention relates to a mobile platform for use in said method and/or in said data acquisition and evaluation system and a use of the mobile platform for said method and/or said data acquisition and evaluation system.

Abstract: The invention relates to a grain for production of a refractory product, to the use of such grains, to a refractory product, to a process for producing a refractory product and to a refractory product produced thereby.

Abstract: The invention relates to a refractory ceramic product.

Abstract: A power take-off transmission (1), for a motor vehicle, having a power take-off shaft (5), a transmission housing (3), at least two shiftable gears and at least one actuator for engaging the at least two gears. The at least one actuator has an actuating linkage (6) for mechanical actuation from outside the transmission housing (3). The actuating linkage (6) of the power take-off transmission (1) is coupled to an electric motor (8) located outside the transmission housing (3) and by which the at least one actuator can be actuated mechanically. The power take-off transmission can be installed on an agricultural working machine.

Abstract: The invention relates to a trench cutter for producing a cut trench in the soil with a cutter frame, at least one pair of cutting wheels which are supported and driven in a rotatable manner on a lower end of the cutter frame, wherein each cutting wheel has a plurality of cutting teeth along its external circumference, and a discharge means with at least one discharge pump for discharging a cutting fluid from the cut trench in the region of the cutting wheels. According to the invention a switchover means is provided which is designed for switching the discharge means over to a flushing operation, in which a fluid flow generated by at least one discharge pump of the discharge means is generated onto at least one cutting wheel for flushing out the cutting wheel.

Abstract: The invention concerns a batch for the production of a refractory product, a process for the production of a refractory product, a refractory product as well as the use of a refractory product.

Abstract: A separator/current collector unit for a galvanic cell, in particular for a lithium-ion cell, is provided. The separator/current collector unit has a separator and a number N?1 of electrically conductive current collectors, each of which is arranged on the surface of the separator and is connected to same in order to form a unit, in the process forming a respective boundary surface together with the surface of the separator. Each of the current collectors has a porous material for receiving an electrolyte such that the separator/current collector unit conducts ions through the at least one boundary surface when the porous material has received electrolytes. A galvanic cell is also provided having a separator/current collector unit. Also, a battery is provided made of multiple galvanic cells.

Abstract: A heatable battery includes a battery cell with an anode and a cathode, an anode connection which is connected to the anode and a cathode connection which is connected to the cathode. A heating element is connected to one of the anode and cathode. The battery cell has a controllable switch which is arranged between the heating element and one of the anode and the cathode connection. The controllable switch is arranged in the interior of the battery cell.

Abstract: The invention relates to a refractory ceramic product.

Abstract: A heatable battery includes a battery cell with an anode, a cathode, an anode connection which is connected to the anode, and a cathode connection which is connected to the cathode. The battery cell has a heating element and a connection for applying a voltage potential to the heating element. The heating element is connected to one of the components of the anode connection and the cathode connection. The battery cell further has a controllable switch which is arranged between the connection for applying the voltage potential to the heating element and the other of the components of the anode connection and the cathode connection.

Abstract: An arrangement for actuating at least one shifting element of a transmission. The arrangement has at least one hydraulically actuated actuating piston (1) for axially moving a shifting fork (2) of the shifting element.

Abstract: The invention concerns a batch for the production of a refractory product, a process for the production of a refractory product, a refractory product as well as the use of a refractory product.

Abstract: A method and a system are for recording a change in position of an object. In an embodiment, a diagnostic image of the object in a scan position is generated with an imaging medical method. After the generation of the diagnostic image, a camera image of the object is recorded in a current position from a perspective with a specified spatial positional relationship to the diagnostic image. Correlation of the diagnostic image and the camera image is used to determine a deviation of the current position of the object from a setpoint position defined relative to the scan position.

Abstract: The invention relates to a refractory product, a batch for producing the product, a method for producing the product, and a use of the refractory product.

Abstract: The invention relates to a refractory product comprising zirconium dioxide, a use of zirconium dioxide, a zirconium dioxide, a method for manufacturing a refractory product and a refractory product manufactured by means of said method. The zirconium dioxide is in cubic form and is metastable at room temperature. The zirconium dioxide has a content of calcium, magnesium and yttrium of less than 1% by weight.

Abstract: The invention relates to a refractory product, a batch for producing the product, a method for producing the product, and a use of the refractory product.

Abstract: The invention relates to a refractory product, a use of zirconium dioxide, a zirconium dioxide, a method for manufacturing a refractory product and a refractory product manufactured by means of said method.

Abstract: Missile having a jet engine (2) comprising at least one turbine (3) and at least one compressing means (4), wherein gas generated in at least one gas generator (7) of the missile (1) drives a turbine (3). The compressing means (4) and the turbine (3) are arranged opposite to the flight direction (6) adjacent to each other.