mhurhangee/ep-ind-claims huggingface dataset:
An automatic volume adjustment method to be carried out on an electronic device, wherein the electronic device comprises a processor, a memory, and a receiver, wherein the processor is connected to the memory and the receiver, and the electronic device is a first electronic device, wherein the method comprises: receiving, by the receiver, a voice signal after a call connection with a second electronic device is established by the first electronic device; performing, by the processor, identification on the voice signal, and performing a semantic analysis of the identified voice signal to obtain a semantic identification result; performing, by the processor, matching between the semantic identification result and a prestored evaluation semantic to acquire a volume adjustment rule, wherein the prestored evaluation semantic is retrieved from the memory; and adjusting, by the processor, a microphone gain of the first electronic device according to the volume adjustment rule; wherein the receiver comprises a wireless transceiver; and wherein the voice signal comprises a voice signal from the second electronic device received by the first electronic device by using the wireless transceiver. receiving, by the receiver, a voice signal after a call connection with a second electronic device is established by the first electronic device; performing, by the processor, identification on the voice signal, and performing a semantic analysis of the identified voice signal to obtain a semantic identification result; performing, by the processor, matching between the semantic identification result and a prestored evaluation semantic to acquire a volume adjustment rule, wherein the prestored evaluation semantic is retrieved from the memory; and adjusting, by the processor, a microphone gain of the first electronic device according to the volume adjustment rule; wherein the receiver comprises a wireless transceiver; and wherein the voice signal comprises a voice signal from the second electronic device received by the first electronic device by using the wireless transceiver.
A system for fastening a rail on a subsurface, comprising - a support plate having a contact surface for the rail to be fastened, and - at least one guide plate (5, 6) that is seated on said support plate and has a passage opening for a clamping element (8, 9), which leads from the free top side thereof to the bottom side thereof which rests on said support plate, which clamping element is guided, with the system fully installed, through the passage opening and is fixedly connected to the subsurface, - wherein a latching connection between said support plate and said guide plate (5, 6) is formed in the region of said passage opening of said guide plate (5, 6) by at least one latch arm (25, 26), which latch arm engages through said passage opening of said guide plate (5, 6) and has a latch projection (27, 28) on the free end thereof, which interacts in an interlocking manner with a stop formed on said guide plate (5, 6), characterised in that a recess (42, 43) is moulded into the circumferential surface delimiting said passage opening of said guide plate (5, 6), in which recess the respectively associated latch arm (25, 26) is seated. - a support plate having a contact surface for the rail to be fastened, and - at least one guide plate (5, 6) that is seated on said support plate and has a passage opening for a clamping element (8, 9), which leads from the free top side thereof to the bottom side thereof which rests on said support plate, which clamping element is guided, with the system fully installed, through the passage opening and is fixedly connected to the subsurface, - wherein a latching connection between said support plate and said guide plate (5, 6) is formed in the region of said passage opening of said guide plate (5, 6) by at least one latch arm (25, 26), which latch arm engages through said passage opening of said guide plate (5, 6) and has a latch projection (27, 28) on the free end thereof, which interacts in an interlocking manner with a stop formed on said guide plate (5, 6),
A production method for sunvisor used inside motor vehicles in automotive sector, characterized in comprising respectively process steps of - laminating a paper and a foam to each other in lamination device, - placing a material containing the paper and the foam obtained by said lamination process into a mould in a polyurethane injection machine, - injecting a filler layer made of polyurethane material into said mould, after placement, - removing the material in the mould out of the mould after injection, - welding an outer layer made of PVC material onto said filler layer in a high frequency welding machine. - laminating a paper and a foam to each other in lamination device, - placing a material containing the paper and the foam obtained by said lamination process into a mould in a polyurethane injection machine, - injecting a filler layer made of polyurethane material into said mould, after placement, - removing the material in the mould out of the mould after injection, - welding an outer layer made of PVC material onto said filler layer in a high frequency welding machine.
A windshield for an automobile on which an information acquisition device configured to acquire information from an outside of a vehicle by emitting and/or receiving light can be arranged, the windshield comprising: a laminated glass including an information acquisition region that is opposite to the information acquisition device and through which the light passes; and an antifog sheet in which at least a sticky layer, a substrate film, and an antifog layer are layered in this order, the sticky layer being attached to at least a surface on a vehicle interior side of the information acquisition region, wherein the laminated glass includes an inner glass plate arranged on a vehicle interior side, an outer glass plate arranged on a vehicle exterior side, and an interlayer arranged between the inner glass plate and the outer glass plate, the thickness of the interlayer is 0.3 to 6.0 mm, and the laminated glass includes at least one glass plate in which surface concentrations of tin oxide in two principal surfaces are different, and a surface of the glass plate in which the concentration of tin oxide is higher faces the vehicle interior side. a laminated glass including an information acquisition region that is opposite to the information acquisition device and through which the light passes; and an antifog sheet in which at least a sticky layer, a substrate film, and an antifog layer are layered in this order, the sticky layer being attached to at least a surface on a vehicle interior side of the information acquisition region, wherein the laminated glass includes an inner glass plate arranged on a vehicle interior side, an outer glass plate arranged on a vehicle exterior side, and an interlayer arranged between the inner glass plate and the outer glass plate, the thickness of the interlayer is 0.3 to 6.0 mm, and the laminated glass includes at least one glass plate in which surface concentrations of tin oxide in two principal surfaces are different, and a surface of the glass plate in which the concentration of tin oxide is higher faces the vehicle interior side.
A food product comprising hydrolyzed, dried, agglomerated grain powder, wherein the agglomerated grain powder comprises hydrolyzed starch, wherein the agglomerated grain powder has an average particle size of 150 to 450 μm, and wherein at least 50% of particles in the agglomerated grain powder are within the range of 150 to 450 μm.
A method comprising: accessing, by one or more processors, a video input stream that includes content from a first content provider; based on content of the video input stream, selecting a video output stream different from the video input stream; causing the video output stream to be presented on a display; determining, by the one or more processors, that a change in the video input stream indicates a change in the content provider of the video input stream; in response to the determination that the content provider of the video input stream has changed, causing the video input stream to be presented on the display; accessing, from a database, a template corresponding to a screen portion generated by an intermediate device; analyzing, by the one or more processors, the video input stream to determine that at least a portion of content of a frame of the video input stream matches the template; based on the at least a portion of the content of the frame of the video input stream matching the template: determining that a second change in the video input stream indicates a return to the first content provider of the video input stream, and modifying the video output stream to include the screen portion generated by the intermediate device; and in response to the determination that the first content provider of the video input stream has been returned to, causing the presentation of the modified video output stream on the display. accessing, by one or more processors, a video input stream that includes content from a first content provider; based on content of the video input stream, selecting a video output stream different from the video input stream; causing the video output stream to be presented on a display; determining, by the one or more processors, that a change in the video input stream indicates a change in the content provider of the video input stream; in response to the determination that the content provider of the video input stream has changed, causing the video input stream to be presented on the display; accessing, from a database, a template corresponding to a screen portion generated by an intermediate device; analyzing, by the one or more processors, the video input stream to determine that at least a portion of content of a frame of the video input stream matches the template; based on the at least a portion of the content of the frame of the video input stream matching the template: determining that a second change in the video input stream indicates a return to the first content provider of the video input stream, and modifying the video output stream to include the screen portion generated by the intermediate device; and determining that a second change in the video input stream indicates a return to the first content provider of the video input stream, and modifying the video output stream to include the screen portion generated by the intermediate device; and in response to the determination that the first content provider of the video input stream has been returned to, causing the presentation of the modified video output stream on the display.
Air-jet weaving machine with an apparatus for the supply of compressed air with several pneumatically adjustable pressure regulators (1.1, 1.2, 1.3), wherein the pneumatically adjustable pressure regulators (1.1, 1.2, 1.3) respectively each comprise a pneumatic control inlet (3.1, 3.2, 3.3), as well as with an electrically controllable pressure adjusting means, wherein a control pressure line is present, in which various different air pressure values are producible by the electrically controllable pressure adjusting means, characterized that several electrically switchable valves (6.1, 6.2, 6.3) are present, each of which is allocated to a pneumatic control inlet (3.1, 3.2, 3.3) of the pneumatically adjustable pressure regulators (1.1, 1.2, 1.3) in such a manner so that via the respective electrically switchable valve (6.1, 6.2, 6.3) the associated pneumatic control inlet (3.1, 3.2, 3.3) is connectable with the control pressure line.
A condensation particle counter, CPC, comprising a system to correct for a detection efficiency of the CPC at a non-standard absolute-pressure, wherein the non-standard absolute-pressure is a pressure that is either higher or lower than a pressure at which the CPC was calibrated, the system comprising: a pressure transducer mounted proximate the CPC to determine a value of absolute pressure of an aerosol stream through the CPC under the non-standard absolute-pressure; a sensor to monitor values of a saturator temperature of a saturator block of the CPC, a condenser temperature of a condenser block of the CPC, and a flow rate of the aerosol stream through the CPC; and a processing device to compensate for detection efficiency of the CPC based on the determined absolute pressure of the aerosol stream through the CPC and at least one of the monitored values of saturator temperature, condenser temperature, and flow rate, the processing device further to compensate for particle measurements reported by the CPC for the non-standard absolute pressure, wherein the processing device is configured to use the determined value of absolute pressure of the aerosol stream through the CPC to provide a feedback control loop in the CPC to adjust at least one of the saturator temperature and the condenser temperature to compensate for the particle measurements to correct for the non-standard absolute-pressure. a pressure transducer mounted proximate the CPC to determine a value of absolute pressure of an aerosol stream through the CPC under the non-standard absolute-pressure; a sensor to monitor values of a saturator temperature of a saturator block of the CPC, a condenser temperature of a condenser block of the CPC, and a flow rate of the aerosol stream through the CPC; and a processing device to compensate for detection efficiency of the CPC based on the determined absolute pressure of the aerosol stream through the CPC and at least one of the monitored values of saturator temperature, condenser temperature, and flow rate, the processing device further to compensate for particle measurements reported by the CPC for the non-standard absolute pressure, wherein the processing device is configured to use the determined value of absolute pressure of the aerosol stream through the CPC to provide a feedback control loop in the CPC to adjust at least one of the saturator temperature and the condenser temperature to compensate for the particle measurements to correct for the non-standard absolute-pressure.
A bracket for forming a wire harness assembly prior to installation to a structure of a vehicle, the bracket comprising: a conductive body adapted to attach the bracket to the vehicle; an interface portion adapted to attach at least one wire of a wire harness to the body, the interface portion being conductively insulated from the body; and at least one ground connector attached to the body, the at least one ground connector being adapted to electrically connect the wire harness to a ground, wherein the interface portion includes at least one rack having a plurality of apertures configured to receive tie connectors therein. a conductive body adapted to attach the bracket to the vehicle; an interface portion adapted to attach at least one wire of a wire harness to the body, the interface portion being conductively insulated from the body; and at least one ground connector attached to the body, the at least one ground connector being adapted to electrically connect the wire harness to a ground,
An apparatus of a User Equipment, UE, operable to communicate with an Evolved Node-B, eNB, on a wireless network, comprising: one or more processors to: determine a presence of a Phase Tracking Reference Signal, PT-RS, and a density of the PT-RS wherein at least one of the presence of the PT-RS and the density of the PT-RS is determined at least in part on a Far-UE indicator; process the PT-RS; and process a transmission in a Multi-User Superposition Transmission, MUST, operation in accordance with the PT-RS, and an interface for receiving the PT-RS and the transmission in the MUST operation from a receiving circuitry. one or more processors to: determine a presence of a Phase Tracking Reference Signal, PT-RS, and a density of the PT-RS wherein at least one of the presence of the PT-RS and the density of the PT-RS is determined at least in part on a Far-UE indicator; process the PT-RS; and process a transmission in a Multi-User Superposition Transmission, MUST, operation in accordance with the PT-RS, and determine a presence of a Phase Tracking Reference Signal, PT-RS, and a density of the PT-RS wherein at least one of the presence of the PT-RS and the density of the PT-RS is determined at least in part on a Far-UE indicator; process the PT-RS; and process a transmission in a Multi-User Superposition Transmission, MUST, operation in accordance with the PT-RS, and an interface for receiving the PT-RS and the transmission in the MUST operation from a receiving circuitry.
A method performed by a wireless device for Semi-Persistent Channel State Information, SP-CSI, reporting for a wireless communication system, the method comprising: receiving, from a base station, an uplink downlink control information, DCI, message for activation or deactivation of the SP-CSI reporting, wherein: the uplink DCI message comprises Cyclic Redundancy Check, CRC, bits that are scrambled with a SP-CSI Cell Radio Network Temporary Identifier, SP-CSI-RNTI, of the wireless device; and the uplink DCI message comprises information that indicates whether the uplink DCI message is for the activation of the SP-CSI reporting or for the deactivation of the SP-CSI reporting, wherein the information comprises bit values configured in one or more bit fields of the uplink DCI message and the one or more bit fields comprise one or more bit fields defined for the purpose of providing a redundancy version; wherein the one or more bit fields defined for the purpose of providing the redundancy version are set to all zeros and all bits of a field for communicating a Hybrid Automatic Repeat Request, HARQ, process number are set to zero; making, based on the information comprised in the uplink DCI message, a determination as to whether to activate the SP-CSI reporting or to deactivate the SP-CSI reporting; and activating or deactivating the SP-CSI reporting in accordance with the determination. the uplink DCI message comprises Cyclic Redundancy Check, CRC, bits that are scrambled with a SP-CSI Cell Radio Network Temporary Identifier, SP-CSI-RNTI, of the wireless device; and the uplink DCI message comprises information that indicates whether the uplink DCI message is for the activation of the SP-CSI reporting or for the deactivation of the SP-CSI reporting, wherein the information comprises bit values configured in one or more bit fields of the uplink DCI message and the one or more bit fields comprise one or more bit fields defined for the purpose of providing a redundancy version; wherein the one or more bit fields defined for the purpose of providing the redundancy version are set to all zeros and all bits of a field for communicating a Hybrid Automatic Repeat Request, HARQ, process number are set to zero; making, based on the information comprised in the uplink DCI message, a determination as to whether to activate the SP-CSI reporting or to deactivate the SP-CSI reporting; and activating or deactivating the SP-CSI reporting in accordance with the determination.
A screw for inserting into a ground, in particular rotary drivable by means of a drive element according to one of the claims 5 to 12, wherein the screw comprises: a screw shaft; a screw head adjacent to the screw shaft, in which screwhead a drive is formed for rotary driving the screw by means of a drive element; wherein the drive comprises, at the outer side of the screw, a hollow wing section with a circular hollow core and hollow wings provided along the perimeter; wherein the drive comprises, at the inner side of the screw, a hollow cavity section, in particular a hollow cone section; wherein the drive comprises, at a transition between the hollow wing section and the hollow cavity section, a chamfer section, of which an outer plane is angled with respect to an outer plane of the hollow wing section and with respect to an outer plane of the hollow cavity section; wherein extensions of the hollow wings reach into the chamfer section; wherein the hollow wings have a constant outer diameter from an end at the outer side of the hollow wing section to the beginning of the chamfer section; wherein the hollow core of the hollow wing section tapers towards the inner side of the screw, in particular in a conical manner. a screw shaft; a screw head adjacent to the screw shaft, in which screwhead a drive is formed for rotary driving the screw by means of a drive element; wherein the drive comprises, at the outer side of the screw, a hollow wing section with a circular hollow core and hollow wings provided along the perimeter; wherein the drive comprises, at the inner side of the screw, a hollow cavity section, in particular a hollow cone section; wherein the drive comprises, at a transition between the hollow wing section and the hollow cavity section, a chamfer section, of which an outer plane is angled with respect to an outer plane of the hollow wing section and with respect to an outer plane of the hollow cavity section; wherein extensions of the hollow wings reach into the chamfer section; wherein the hollow wings have a constant outer diameter from an end at the outer side of the hollow wing section to the beginning of the chamfer section; wherein the hollow core of the hollow wing section tapers towards the inner side of the screw, in particular in a conical manner.
An LED light source module, comprising: a sunflower radiator and an LED light source; characterized in that a block structure formed of a graphene phase-change material is filled in the middle of the sunflower radiator; in that the surface of the sunflower radiator is coated with a graphene-containing fluororesin material; and in that the LED light source is connected to the sunflower radiator through a graphene-containing heat-conducting silicone grease. characterized in that a block structure formed of a graphene phase-change material is filled in the middle of the sunflower radiator; in that the surface of the sunflower radiator is coated with a graphene-containing fluororesin material; and in that the LED light source is connected to the sunflower radiator through a graphene-containing heat-conducting silicone grease.
Sensor apparatus for a vehicle, in particular a motor vehicle, having at least one transmitting unit (9, 10, 11) for emitting a light beam having a predefinable wavelength (λ 1, λ 2, λ 3), having at least one receiving unit for capturing the at least one light beam of the transmitting unit (9, 10, 11) reflected on an object, and having a unit which determines a property with respect to the object in dependence on the at least one captured reflected light beam, characterized in that the receiving unit comprises a sensor array for capturing wavelengths and/or wavelength changes, and also brightness values as brightness distributions, of the reflected light beams of at least two transmitting units (9, 10, 11), in that the sensor array comprises 4×4, i.e. a total of 16, receptors arranged in matrix-like fashion and each designed to capture one of the brightness values, and in that the unit is designed to determine at least one surface condition of the object and, by tracking the brightness distributions by way of the sensor array, a relative speed of the sensor apparatus in relation to the object in dependence on the captured wavelengths and/or wavelength changes.