mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining an optimised trajectory for a non-productive movement of a tool of a machine tool from a starting position to a target position in a spatially bounded travel envelope which is modelled by geometric conditions while avoiding collisions, comprising the steps: a) establishing a first trajectory of the tool through the travel envelope by means of a pathfinding algorithm, which does not take account of design conditions of the machine tool, wherein the first trajectory is optimised for at least one selectable target parameter in the non-productive movement, wherein at least one command to a drive means of the tool is established on the basis of the first trajectory , said drive means corresponding to the first trajectory ; b) establishing a second trajectory by simulating the first trajectory while taking account of a filter to take account of dynamic characteristics of the machine tool, wherein the filter in a controller of the machine tool is an image of dynamic characteristics of the machine tool, wherein the dynamic characteristics comprise maximum accelerations, maximum speeds and a characteristic for high-wear vibrations; c) identifying a collision when a geometric condition which models the travel envelope is violated at a point of the second trajectory ; d) determining a correction condition under the geometric conditions and modifying the correction condition ; wherein, in a first run of the method , the geometric conditions in step a) correspond, while taking account of safety margins, to the surfaces of at least one obstacle which bound the travel envelope , and steps a) to d) are repeated until the geometric conditions in step c) are met for all points of the second trajectory , characterised in that the modification of the correction condition takes the form of a change in a drill hole exit height and the filter takes the form of a setpoint filter and the at least one command to the drive means of the tool provokes a translational and/or rotational acceleration of the tool . a) establishing a first trajectory of the tool through the travel envelope by means of a pathfinding algorithm, which does not take account of design conditions of the machine tool, wherein the first trajectory is optimised for at least one selectable target parameter in the non-productive movement, wherein at least one command to a drive means of the tool is established on the basis of the first trajectory , said drive means corresponding to the first trajectory ; b) establishing a second trajectory by simulating the first trajectory while taking account of a filter to take account of dynamic characteristics of the machine tool, wherein the filter in a controller of the machine tool is an image of dynamic characteristics of the machine tool, wherein the dynamic characteristics comprise maximum accelerations, maximum speeds and a characteristic for high-wear vibrations; c) identifying a collision when a geometric condition which models the travel envelope is violated at a point of the second trajectory ; d) determining a correction condition under the geometric conditions and modifying the correction condition ;
An electric power converter device of an electrical vehicle comprising: - at least one power electronics unit being electrically connected to an electric power input and an electric power output , - at least one fluid chamber being fluidically connected to a fluid inlet and a fluid outlet , - wherein the fluid chamber and the power electronics unit are thermally coupled such that waste heat generated by the power electronics unit is used for heating a fluid flowing through the fluid chamber , - wherein the electric power converter device has a first operation mode and a second operation mode, - at least one heating unit being electrically connected to an electric power input and electric power output , - the fluid chamber and the heating unit being thermally coupled, - wherein the heating unit is used to heat a fluid flowing through the fluid chamber , characterized - in that the power electronics unit forms a DC-to-DC converter unit that converts a high voltage of 400 V to a low voltage of 12 V and wherein a heating power in the range of 3 kW to 4 kW is provided, - in that the heating unit additionally provides heating power in the range of 2 kW to 4 kW, - in that the amount of waste heat generated by the power electronics unit is increased in the second operation mode compared to the first operation mode, - whereby the switching frequency of the power electronics unit is increased in the second operation mode. - at least one power electronics unit being electrically connected to an electric power input and an electric power output , - at least one fluid chamber being fluidically connected to a fluid inlet and a fluid outlet , - wherein the fluid chamber and the power electronics unit are thermally coupled such that waste heat generated by the power electronics unit is used for heating a fluid flowing through the fluid chamber , - wherein the electric power converter device has a first operation mode and a second operation mode, - at least one heating unit being electrically connected to an electric power input and electric power output , - the fluid chamber and the heating unit being thermally coupled, - wherein the heating unit is used to heat a fluid flowing through the fluid chamber , characterized - in that the power electronics unit forms a DC-to-DC converter unit that converts a high voltage of 400 V to a low voltage of 12 V and wherein a heating power in the range of 3 kW to 4 kW is provided, - in that the heating unit additionally provides heating power in the range of 2 kW to 4 kW, - in that the amount of waste heat generated by the power electronics unit is increased in the second operation mode compared to the first operation mode, - whereby the switching frequency of the power electronics unit is increased in the second operation mode.
A smoke composition effective in the visible and infrared ranges comprising at least one oxidant and at least one reducing agent as well as at least one smoke agent generating carbon particles, wherein this composition is characterised in that it comprises superchlorinated polyvinyl chloride (C-PVC) as the smoke agent, wherein the chlorine content of this smoke agent is between 57% and 70% of the weight of superchlorinated polyvinyl chloride, the composition comprising 49% to 90% by weight of superchlorinated polyvinyl chloride (C-PVC) relative to the total weight of the composition.
Effect pigments based on Al 2 O 3 flakes characterized in that Al 2 O 3 flakes are coated with one or more layers of a metal oxide or a metal oxide mixture whereas the ratio of the amount of Al 2 O 3 of the Al 2 O 3 flakes and amount of the metal oxide(s) of the coating layer(s) is in the range of 27 : 73 to 83 : 17 based on the total weight of the effect pigment and that the effect pigments contain on the surface a protective layer which contains at least one rare earth metal oxide, at least one metal oxide selected from silizium, aluminium or zirconium or mixtures thereof and an organic compound and that the protective layer has a thickness of 0.5 - 10 nm.
Biocide formulation for skin protection, CHARACTERIZED in that comprises as active components: a. from 0.01 to 2% pentahydrate copper salts and b. from 0.01 to 2% heptahydrate zinc salts. a. from 0.01 to 2% pentahydrate copper salts and b. from 0.01 to 2% heptahydrate zinc salts.
A first electronic device , comprising: a first housing defining a convexly curved first connection surface ; and a receiving component positioned proximate to the first connection surface and within the first housing, the receiving component comprising a coil of wire around a core area and further comprising a coil shield ; and a first magnetic element positioned adjacent to the first connection surface and within the first housing, the first magnetic element comprising a magnet and a magnet shield separated from the sides of the magnet by gaps , wherein the magnet shield is configured to direct a magnetic field of the magnet toward the first connection surface ; wherein the coil shield is positioned along a surface of the coil of wire opposing the first connection surface and along two sides of the coil of wire transverse to the first connection surface ; the first magnetic element is positioned within the core area of the coil of wire; and the magnet shield is positioned along a surface of the magnet opposing the first connection surface , the magnet shield having sides covering sides of the magnet transverse to the first connection surface . a first housing defining a convexly curved first connection surface ; and a receiving component positioned proximate to the first connection surface and within the first housing, the receiving component comprising a coil of wire around a core area and further comprising a coil shield ; and a first magnetic element positioned adjacent to the first connection surface and within the first housing, the first magnetic element comprising a magnet and a magnet shield separated from the sides of the magnet by gaps , wherein the magnet shield is configured to direct a magnetic field of the magnet toward the first connection surface ; wherein the coil shield is positioned along a surface of the coil of wire opposing the first connection surface and along two sides of the coil of wire transverse to the first connection surface ; the first magnetic element is positioned within the core area of the coil of wire; and the magnet shield is positioned along a surface of the magnet opposing the first connection surface , the magnet shield having sides covering sides of the magnet transverse to the first connection surface .
A layered diesel oxidation catalyst (DOC) comprising: a) a carrier substrate; b) a diesel oxidation catalytic material comprising b1) a first layer located on the carrier substrate, the first layer comprising palladium impregnated on a support material comprising ceria in an amount of at least 65 weight-% based on the total weight of the support material, and optionally comprising platinum; b2) a second layer located on the first layer, the second layer comprising palladium and platinum each impregnated on a support material comprising a metal oxide; wherein the platinum to palladium weight ratio of the first layer is lower than the platinum to palladium weight ratio of the second layer. a) a carrier substrate; b) a diesel oxidation catalytic material comprising b1) a first layer located on the carrier substrate, the first layer comprising palladium impregnated on a support material comprising ceria in an amount of at least 65 weight-% based on the total weight of the support material, and optionally comprising platinum; b2) a second layer located on the first layer, the second layer comprising palladium and platinum each impregnated on a support material comprising a metal oxide; wherein the platinum to palladium weight ratio of the first layer is lower than the platinum to palladium weight ratio of the second layer. b1) a first layer located on the carrier substrate, the first layer comprising palladium impregnated on a support material comprising ceria in an amount of at least 65 weight-% based on the total weight of the support material, and optionally comprising platinum; b2) a second layer located on the first layer, the second layer comprising palladium and platinum each impregnated on a support material comprising a metal oxide;
A physical shielding system comprising: a shield to protect a first ECG electrical connection and a second ECG electrical connection from objects, wherein the first ECG electrical connection is formed between a connector of an ECG lead set and an adapter , wherein the second ECG electrical connection is formed between the adapter and an ECG monitor and wherein the shield is configured to snugly fit to the adapter while allowing the ECG lead and a connector from the monitor to pass through to connect with the adapter , characterized in that the shield comprises: a first funnel-shaped end to shield the first ECG electrical connection from objects; a second funnel-shaped end to shield the second ECG electrical connection from objects; and wherein the first funnel-shaped end funnels towards the second funnel-shaped end , and the second funnel-shaped end funnels towards the first funnel-shaped end . a shield to protect a first ECG electrical connection and a second ECG electrical connection from objects, wherein the first ECG electrical connection is formed between a connector of an ECG lead set and an adapter , wherein the second ECG electrical connection is formed between the adapter and an ECG monitor and wherein the shield is configured to snugly fit to the adapter while allowing the ECG lead and a connector from the monitor to pass through to connect with the adapter , characterized in that the shield comprises: a first funnel-shaped end to shield the first ECG electrical connection from objects; a second funnel-shaped end to shield the second ECG electrical connection from objects; and wherein the first funnel-shaped end funnels towards the second funnel-shaped end , and the second funnel-shaped end funnels towards the first funnel-shaped end . a first funnel-shaped end to shield the first ECG electrical connection from objects; a second funnel-shaped end to shield the second ECG electrical connection from objects; and wherein the first funnel-shaped end funnels towards the second funnel-shaped end , and the second funnel-shaped end funnels towards the first funnel-shaped end .
A fixed-dose combination comprising bempedoic acid and tolvaptan.
A method of testing a yaw system of a wind turbine, the wind turbine comprising a rotor; the yaw system comprising a yaw gear coupled to the rotor so that rotation of the yaw gear causes yaw rotation of the rotor, and first and second sub-systems, the first sub-system comprising a first pinion gear and a first drive motor coupled to the yaw gear by the first pinion gear, the second sub-system comprising a second pinion gear and a second drive motor coupled to the yaw gear by the second pinion gear, the method comprising: testing the first sub-system by: applying a first yaw moment to the yaw gear with the second drive motor via the second pinion gear, reacting the first yaw moment with the first pinion gear, monitoring a yaw motion parameter indicative of rotation of the yaw gear, and determining a condition of the first sub-system based on the monitored yaw motion parameter.
An intermediate transfer medium which comprises a substrate, and at least a protective layer and a receiving layer which are layered in that order on one surface side of the substrate, wherein the receiving layer contains a side-chain type aralkyl-modified silicone, the modifying group of which consists of an aralkyl group, in a proportion of from 0.5 to 5% by weight on a base of the total weight of the receiving layer, and wherein a side-chain type epoxy-modified silicone is further contained in a proportion of from 0.5 to 5% by weight on a base of the total weight of the receiving layer.
A method, comprising, at an electronic control module for a transmission : generating regulator control signals that cause a main regulator valve of the transmission to develop a main line (MP) pressure having a first pressure level (PL1) and a control main valve of the transmission to develop a control main pressure (CP) based upon the main line pressure, generating clutch control signals that cause a clutch trim valve of the transmission to develop from the control main pressure a clutch control pressure that defines a threshold pressure level (TH), the threshold pressure level corresponding to a transition point between a regulating state and a non-regulating state of the clutch trim valve, the regulating state being a state in which the clutch trim valve is neither fully stroked nor fully destroked, adjusting regulator control signals to cause the main regulator valve to adjust the main line pressure toward a second pressure level (PL2), receiving status signals from the clutch trim valve that indicates whether the clutch trim valve is in the regulating state, generating one or more calibration parameters based upon regulator control signals that caused receipt of status signals that indicate a transition between the regulating state and the non-regulating state, and modulating the main line pressure developed by the main regulator valve by generating further regulator control signals based upon the one or more calibration parameters. generating regulator control signals that cause a main regulator valve of the transmission to develop a main line (MP) pressure having a first pressure level (PL1) and a control main valve of the transmission to develop a control main pressure (CP) based upon the main line pressure, generating clutch control signals that cause a clutch trim valve of the transmission to develop from the control main pressure a clutch control pressure that defines a threshold pressure level (TH), the threshold pressure level corresponding to a transition point between a regulating state and a non-regulating state of the clutch trim valve, the regulating state being a state in which the clutch trim valve is neither fully stroked nor fully destroked, adjusting regulator control signals to cause the main regulator valve to adjust the main line pressure toward a second pressure level (PL2), receiving status signals from the clutch trim valve that indicates whether the clutch trim valve is in the regulating state, generating one or more calibration parameters based upon regulator control signals that caused receipt of status signals that indicate a transition between the regulating state and the non-regulating state, and modulating the main line pressure developed by the main regulator valve by generating further regulator control signals based upon the one or more calibration parameters.
Device for fastening an actuator, particularly an electric actuator, to a support, particularly a wall of a heating, ventilation and/or air conditioning system, the device including an actuator comprising a casing , along the perimeter of which a plurality of fastening areas are positioned, said actuator further comprising an output shaft protruding externally from the casing , and a support comprising a mounting seat into which the actuator can be fitted by axial insertion and subsequent rotation, the mounting seat comprising a bottom wall having an aperture provided for the insertion of the output shaft of the actuator , and a plurality of stop members protruding from the bottom wall , each of which is adapted to receive a corresponding fastening area of the casing of the actuator , and comprises a projection spaced away from the bottom wall of the mounting seat and having an axial stop surface facing toward the bottom wall of the mounting seat and provided for axially locking the casing of the actuator , wherein the mounting seat comprises a perimetral wall arranged around the mounting seat , with which wall said stop members are integrally formed, each stop member further comprising a perimetral wall extension which extends axially from the bottom wall and is laterally connected to the perimetral wall , the respective projection being axially connected to the respective perimetral wall extension and laterally connected to the perimetral wall , and wherein the fastening device further comprises at least one spring element formed on the bottom wall and/or the perimetral wall of the mounting seat , said spring element being engaged by the casing of the actuator during the axial insertion of the actuator , and springing at the end of the rotation of the casing of the actuator to rotationally lock the casing of the actuator between the spring element and the perimetral wall and/or the stop members of the mounting seat , wherein the casing of the actuator has an approximately rectangular body with four corners in plan view, the fastening areas being positioned at three of the four corners of the casing and the stop members being three in number, wherein, when the casing of the actuator is rotationally locked, said casing is retained on the one hand by the spring element which acts as a stop for a side surface of the casing of the actuator , and on the other hand by the perimetral wall extensions of the stop members , each of which acts as a stop for a respective fastening area , and by a portion of the perimetral wall which acts as a stop for a fourth corner of the casing .
Assembly for a household appliance , which comprises a support frame for a cooked food carrier , which has an elongated receiving bar upon which a cooked food carrier can be placed, wherein the receiving bar is arranged in a fixed manner on a base part of the support frame , wherein the receiving bar is a fixed rail for a rail extension device , and wherein the assembly has the rail extension device , which has the fixed rail and a running rail , which is connected to the fixed rail by means of a rolling element device and can be displaced relative to the fixed rail , characterised in that the fixed rail is a multifunctional part, which, in addition to the function of the fixed rail , in the case of a rail extension device when the running rail and the rolling element device are removed, is embodied as a receiving bar for directly receiving a cooked food carrier .