mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a vapour compression system comprising a compressor unit comprising one or more compressors , a heat rejecting heat exchanger , a receiver , an expansion device and an evaporator arranged in a refrigerant path, the expansion device being arranged to control a supply of refrigerant to the evaporator , the method comprising the steps of: - obtaining a pressure value indicating a pressure prevailing inside the receiver , - comparing the obtained pressure value to a first threshold pressure value, and - in the case that the obtained pressure value is below the first threshold pressure value, controlling the compressor(s) of the compressor unit in order to reduce a suction pressure of the vapour compression system . - obtaining a pressure value indicating a pressure prevailing inside the receiver , - comparing the obtained pressure value to a first threshold pressure value, and - in the case that the obtained pressure value is below the first threshold pressure value, controlling the compressor(s) of the compressor unit in order to reduce a suction pressure of the vapour compression system .
A plastic closure comprising a lower part , a lid , which is integrally connected to the lower part via a hinge , and at least one integrity guarantee element to indicate if the plastic closure has ever been opened, the plastic closure further comprising at least one first detent means and at least one second detent means , the at least one first detent means forming the at least one integrity guarantee element and in the closed state and before the plastic closure is opened for the first time being in engagement with the at least one second detent means , characterised in that the first detent means has a predetermined breaking point , wherein, when the plastic closure is opened for the first time via a pivoting movement of the lid , the predetermined breaking point can be broken and at least one part of the first detent means is configured to pivot out to release the second detent means .
An electroluminescent device , comprising a first electrode ; a hole transport layer disposed on the first electrode; a light emitting layer comprising a first light emitting layer disposed on the hole transport layer, the first light emitting layer comprising a first quantum dot , and a second light emitting layer comprising a second quantum dot and an n-type organic semiconductor , the second light emitting layer disposed on the first light emitting layer; an electron transport layer disposed on the second light emitting layer; and a second electrode disposed on the electron transport layer, and characterized in that the n-type organic semiconductor is distributed throughout the second light emitting layer. a hole transport layer disposed on the first electrode; a light emitting layer comprising a first light emitting layer disposed on the hole transport layer, the first light emitting layer comprising a first quantum dot , and a second light emitting layer comprising a second quantum dot and an n-type organic semiconductor , the second light emitting layer disposed on the first light emitting layer; an electron transport layer disposed on the second light emitting layer; and a second electrode disposed on the electron transport layer, and characterized in that the n-type organic semiconductor is distributed throughout the second light emitting layer.
A drive train of a rail vehicle, wherein the drive train has a drive unit and has a drive wheel set having a wheel set axle and a bull gear for transmitting a torque from the drive unit to the wheel set axle , characterized in that an overload clutch with a defined actuating torque is connected to the wheel set axle in a rotation-resistant manner, and that the bull gear is coupled to the wheel set axle in a rotation-resistant manner, wherein the overload clutch releases the bull gear relative to the wheel set axle when the actuating torque is exceeded.
A hearing device comprising - a processing unit configured to compensate for hearing loss of a user of the hearing device; - a memory ; and - an interface , wherein the processing unit is configured to: - receive a mode request via the interface, wherein the mode request is one or more of a service mode request for a service mode, a fitting mode request; and a debug mode request, wherein the service mode is characterized in that a firmware part of the memory is writable; - authenticate the mode request; and - place the hearing device into the requested mode if authentication of the mode request succeeds. - a processing unit configured to compensate for hearing loss of a user of the hearing device; - a memory ; and - an interface , - receive a mode request via the interface, wherein the mode request is one or more of a service mode request for a service mode, a fitting mode request; and a debug mode request, wherein the service mode is characterized in that a firmware part of the memory is writable; - authenticate the mode request; and - place the hearing device into the requested mode if authentication of the mode request succeeds.
An optical combiner comprising: a waveguide prism configured to convey display light, from a display panel, from a proximal end of the waveguide prism to a distal end of the waveguide prism via total internal reflection; and an outcoupling interface disposed at an eye-facing surface of the waveguide prism at the distal end of the waveguide prism, the outcoupling interface having a plurality of polarization-dependent layers including a refractive beam-splitting convex lens , characterized in that the plurality of polarization-dependent layers comprises: a first quarter-wave plate -QWP- layer disposed between the waveguide prism and the refractive beam-splitting convex lens; a second QWP layer disposed at an eye-facing surface of the refractive beam-splitting convex lens; an advanced polarizing film -APF- layer disposed on the second QWP layer; and a linear polarizing layer disposed on the APF layer. a waveguide prism configured to convey display light, from a display panel, from a proximal end of the waveguide prism to a distal end of the waveguide prism via total internal reflection; and an outcoupling interface disposed at an eye-facing surface of the waveguide prism at the distal end of the waveguide prism, the outcoupling interface having a plurality of polarization-dependent layers including a refractive beam-splitting convex lens , characterized in that the plurality of polarization-dependent layers comprises: a first quarter-wave plate -QWP- layer disposed between the waveguide prism and the refractive beam-splitting convex lens; a second QWP layer disposed at an eye-facing surface of the refractive beam-splitting convex lens; an advanced polarizing film -APF- layer disposed on the second QWP layer; and a linear polarizing layer disposed on the APF layer. a first quarter-wave plate -QWP- layer disposed between the waveguide prism and the refractive beam-splitting convex lens; a second QWP layer disposed at an eye-facing surface of the refractive beam-splitting convex lens; an advanced polarizing film -APF- layer disposed on the second QWP layer; and a linear polarizing layer disposed on the APF layer.
A turbine component , wherein the turbine component is an airfoil, the turbine component comprising: a component wall including a plurality of external apertures and defining a constrained portion , wherein the constrained portion is a trailing edge portion of the turbine component ; a manifold disposed within the component wall , the manifold including an impingement wall , the impingement wall including a wall thickness and defining a plenum and a tapered portion , the tapered portion tapering toward the constrained portion and including a plurality of impingement apertures and a wall inflection , the wall inflection being disposed proximal to the constrained portion ; wherein the tapered portion is integrally formed as a single, continuous object and free of an internal welded joint, an internal brazed joint, an internal adhered joint, or a combination thereof, and a post-impingement cavity disposed between the manifold and the component wall , the post-impingement cavity arranged to receive a fluid from the plenum through the plurality of impingement apertures and exhaust the fluid through the plurality of external apertures , characterized in that the wall inflection includes an inflection radius measured on the inside of the wall inflection of less than 3 times the wall thickness of the impingement wall at the wall inflection and the plurality of impingement apertures comprise at least one inflection aperture disposed at the wall inflection . a component wall including a plurality of external apertures and defining a constrained portion , wherein the constrained portion is a trailing edge portion of the turbine component ; a manifold disposed within the component wall , the manifold including an impingement wall , the impingement wall including a wall thickness and defining a plenum and a tapered portion , the tapered portion tapering toward the constrained portion and including a plurality of impingement apertures and a wall inflection , the wall inflection being disposed proximal to the constrained portion ; wherein the tapered portion is integrally formed as a single, continuous object and free of an internal welded joint, an internal brazed joint, an internal adhered joint, or a combination thereof, and a post-impingement cavity disposed between the manifold and the component wall , the post-impingement cavity arranged to receive a fluid from the plenum through the plurality of impingement apertures and exhaust the fluid through the plurality of external apertures , characterized in that the wall inflection includes an inflection radius measured on the inside of the wall inflection of less than 3 times the wall thickness of the impingement wall at the wall inflection and the plurality of impingement apertures comprise at least one inflection aperture disposed at the wall inflection .
A multi hypothesis prediction device for a vehicle , comprising: - a sensor arrangement ; - a calculation module ; and - a path determination module for determining a path of the vehicle , wherein the calculation module is configured to 10 determine at least one point of interest and its location by analysing acquired sensor data of the sensor arrangement , wherein the calculation module is configured to determine a field of view of the sensor arrangement at a future position of the vehicle along the path , wherein the calculation module is further configured to determine, whether the point of interest is within the field of view of the sensor arrangement at the future position, and if this is the case, to move the vehicle to the future position, if this is not the case, to not move the vehicle to the future position and to change the path of the vehicle , wherein the calculation module is configured to perform a multi-hypothesis analysis, which is built upon current and previous detections of the sensor arrangement , and to evaluate what would be the sensor arrangement's field of view for particular hypothesis and to evaluate those hypotheses and decide how the vehicle should behave based on the information received, and to determine a stopping location of the vehicle , such that the point of interest is still within the field of view of the sensor arrangement at the stopping location. - a sensor arrangement ; - a calculation module ; and - a path determination module for determining a path of the vehicle , wherein the calculation module is configured to 10 determine at least one point of interest and its location by analysing acquired sensor data of the sensor arrangement , wherein the calculation module is configured to determine a field of view of the sensor arrangement at a future position of the vehicle along the path , wherein the calculation module is further configured to determine, whether the point of interest is within the field of view of the sensor arrangement at the future position, and if this is the case, to move the vehicle to the future position, if this is not the case, to not move the vehicle to the future position and to change the path of the vehicle , wherein the calculation module is configured to perform a multi-hypothesis analysis, which is built upon current and previous detections of the sensor arrangement , and to evaluate what would be the sensor arrangement's field of view for particular hypothesis and to evaluate those hypotheses and decide how the vehicle should behave based on the information received, and to determine a stopping location of the vehicle , such that the point of interest is still within the field of view of the sensor arrangement at the stopping location.
An analog neuromorphic memory system , comprising: a plurality of vector-by-matrix multiplication systems , each vector-by-matrix multiplication system comprising: an array of memory cells , a low voltage row decoder for providing a bias voltage to one or more rows of memory cells in the array of memory cells during read and program operations and for providing a decoding signal; a high voltage row decoder for receiving the decoding signal and providing a high voltage bias signal to one or more rows of memory cells in the array of memory cells during program and erase operations; and a low voltage column decoder ; a plurality of output blocks , each output block providing an output in response to current received from at least one of the plurality of vector-by-matrix multiplication systems; and a shared high voltage generator block comprising a charge pump for outputting a high voltage and a charge pump regulator for receiving the high voltage from the charge pump and generating a trimmed high voltage in response to input trim bits, the shared high voltage generator block configured to concurrently provide voltages comprising one or more of the high voltage and the trimmed high voltage to the high voltage row decoder in each of the plurality of vector-by-matrix multiplication systems for one or more of erase operations and programming operations. a plurality of vector-by-matrix multiplication systems , each vector-by-matrix multiplication system comprising: an array of memory cells , a low voltage row decoder for providing a bias voltage to one or more rows of memory cells in the array of memory cells during read and program operations and for providing a decoding signal; a high voltage row decoder for receiving the decoding signal and providing a high voltage bias signal to one or more rows of memory cells in the array of memory cells during program and erase operations; and a low voltage column decoder ; an array of memory cells , a low voltage row decoder for providing a bias voltage to one or more rows of memory cells in the array of memory cells during read and program operations and for providing a decoding signal; a high voltage row decoder for receiving the decoding signal and providing a high voltage bias signal to one or more rows of memory cells in the array of memory cells during program and erase operations; and a low voltage column decoder ; a plurality of output blocks , each output block providing an output in response to current received from at least one of the plurality of vector-by-matrix multiplication systems; and a shared high voltage generator block comprising a charge pump for outputting a high voltage and a charge pump regulator for receiving the high voltage from the charge pump and generating a trimmed high voltage in response to input trim bits, the shared high voltage generator block configured to concurrently provide voltages comprising one or more of the high voltage and the trimmed high voltage to the high voltage row decoder in each of the plurality of vector-by-matrix multiplication systems for one or more of erase operations and programming operations.
Method for manufacturing a leather-based sheet, characterized in that it comprises: - preparing a paste by a step of treating a material containing at least 70% by weight of leather prepared from skin of a non-human animal in a twin-screw extruder at a temperature between 10 and 40°C, in the presence of water in a quantity such that the weight ratio of water to said material is between 1.7 and 6; - and shaping said paste into a sheet. - preparing a paste by a step of treating a material containing at least 70% by weight of leather prepared from skin of a non-human animal in a twin-screw extruder at a temperature between 10 and 40°C, in the presence of water in a quantity such that the weight ratio of water to said material is between 1.7 and 6; - and shaping said paste into a sheet.
A method for configuration of a secondary cellular network node for a secondary serving cell associated with a primary serving cell in a carrier aggregation enabled communications network , the method being performed by the secondary cellular network node and comprising the steps of: receiving (S102) an indication from a primary cellular network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of the secondary serving cell; scanning (S104) at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining (S106), based on said scanning and based on at least one of adjacent channel leakage ratio, ACLR, requirements, adjacent channel selectivity, ACS, requirements, bandwidth requirements, and throughput requirements for the secondary serving cell, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting (S108) first configuration information of said determined at least one frequency interval to said primary cellular network node; and deploying (S112) the secondary serving cell by configuring the secondary cellular network node for transmission in one of said determined at least one frequency interval according to second configuration information being based on said first configuration information. receiving (S102) an indication from a primary cellular network node associated with the primary serving cell to start scanning an unlicensed frequency band for deployment of the secondary serving cell; scanning (S104) at least one unlicensed frequency band to determine whether or not interference from transmitting interferers is present in the at least one unlicensed frequency band; determining (S106), based on said scanning and based on at least one of adjacent channel leakage ratio, ACLR, requirements, adjacent channel selectivity, ACS, requirements, bandwidth requirements, and throughput requirements for the secondary serving cell, at least one frequency interval of said at least one unlicensed frequency band free from said transmitting interferers; transmitting (S108) first configuration information of said determined at least one frequency interval to said primary cellular network node; and deploying (S112) the secondary serving cell by configuring the secondary cellular network node for transmission in one of said determined at least one frequency interval according to second configuration information being based on said first configuration information.
A display substrate , comprising: a base substrate , and a shift register unit and a first clock signal line (GCK) that are on the base substrate , wherein the first clock signal line (GCK) extends along a first direction on the base substrate and is configured to provide a first clock signal to the shift register unit ; the shift register unit comprises an input circuit , an output circuit , a first control circuit and an output control circuit ; the input circuit is configured to input an input signal to a first node (N1) in response to the first clock signal; the output circuit is configured to output an output signal to an output terminal (GOUT); the first control circuit is configured to control a level of a second node (N2) in response to a level of the first node (N1) and the first clock signal; the output control circuit is configured to control a level of the output terminal (GOUT) under control of the level of the second node (N2), wherein the first control circuit comprises a first control transistor (T2) and a second control transistor (T3), characterized in that an active layer of the first control transistor (T2) and an active layer of the second control transistor (T3) are a continuous control semiconductor layer (A12), the control semiconductor layer (A12) extends along the first direction, and a gate electrode of the first control transistor (T2) and a gate electrode of the second control transistor (T3) extend along a second direction different from the first direction and are arranged side by side in the first direction. wherein the first clock signal line (GCK) extends along a first direction on the base substrate and is configured to provide a first clock signal to the shift register unit ; the shift register unit comprises an input circuit , an output circuit , a first control circuit and an output control circuit ; the input circuit is configured to input an input signal to a first node (N1) in response to the first clock signal; the output circuit is configured to output an output signal to an output terminal (GOUT); the first control circuit is configured to control a level of a second node (N2) in response to a level of the first node (N1) and the first clock signal; the output control circuit is configured to control a level of the output terminal (GOUT) under control of the level of the second node (N2), wherein the first control circuit comprises a first control transistor (T2) and a second control transistor (T3),