mhurhangee/ep-ind-claims huggingface dataset:
A cleaning device for cleaning a hair removing apparatus having a hair clipping unit for removing hair, the cleaning device comprising: a cleaning basin for accommodating the hair clipping unit therein; a fluid circulating mechanism for supplying or recovering cleaning fluid into or from the cleaning basin; a drying mechanism for drying the hair clipping unit in the cleaning basin after the hair clipping unit is cleaned; and a controller for controlling the fluid circulating mechanism and the drying mechanism, wherein the controller transmits a control signal to the hair removing apparatus to drive the hair clipping unit while the drying mechanism is being operated, characterized in that the controller drives the hair clipping unit intermittently while the drying mechanism is being operated. a cleaning basin for accommodating the hair clipping unit therein; a fluid circulating mechanism for supplying or recovering cleaning fluid into or from the cleaning basin; a drying mechanism for drying the hair clipping unit in the cleaning basin after the hair clipping unit is cleaned; and a controller for controlling the fluid circulating mechanism and the drying mechanism, wherein the controller transmits a control signal to the hair removing apparatus to drive the hair clipping unit while the drying mechanism is being operated, characterized in that the controller drives the hair clipping unit intermittently while the drying mechanism is being operated.
A turbo compressor comprising a compressor housing, in which at least one first compressor stage and a second compressor stage are provided, wherein in each of the first and second compressor stages (13, 14), an impeller (5, 6) is arranged on a driveshaft and the impellers (5, 6) each generate a compressor flow during operation, wherein within the compressor housing, multiple flow channels are provided which are integrated into the compressor housing and fluidically connect the first and second compressor stages (13, 14) and are distributed uniformly over a circumference of the compressor housing, wherein the compressor housing is formed at least partially from solid material and the flow channels extend through the solid material of the compressor housing, characterized in that the flow channels are bent three-dimensionally along their axial extent in the circumferential direction.
A displacement pump for automobiles, comprising a pump chamber accessible via a check valve through which a lubricant flows, the check valve comprising a valve body configured to cover a valve opening, wherein a valve travel limiter is provided which comprises a mechanical temperature element, characterized in that it is configured to increase a valve travel (d) as a temperature decreases and to reduce the valve travel as the temperature increases.
A method for trying a network access, the method performed by a user equipment, UE, and comprising: acquiring (2 - Figure 16), from a higher layer, application information related to an application which tries the network access when application specific congestion control for data communication, ACDC, is configured; determining (3 - Figure 16) an ACDC category for a network access control of the application based on the acquired application information; and performing (5 - Figure 16) an ACDC check, based on the determined ACDC category, wherein the network access is barred or allowed per the application according to the ACDC check, and wherein if a plurality of ACDC categories are applicable for the network access control of the application, the ACDC category having a highest rank among the plurality of ACDC categories is selected to perform (5 - Figure 16) the ACDC check. acquiring (2 - Figure 16), from a higher layer, application information related to an application which tries the network access when application specific congestion control for data communication, ACDC, is configured; determining (3 - Figure 16) an ACDC category for a network access control of the application based on the acquired application information; and performing (5 - Figure 16) an ACDC check, based on the determined ACDC category, wherein the network access is barred or allowed per the application according to the ACDC check, and wherein if a plurality of ACDC categories are applicable for the network access control of the application, the ACDC category having a highest rank among the plurality of ACDC categories is selected to perform (5 - Figure 16) the ACDC check.
An inverter assembly for use in an AC drive, said inverter comprising: a heat exchanger, a plurality of transistors (30, 32) thermally coupled to said heat exchanger, a plurality of capacitors (61, 62), and a plurality of electrical bus bars (50, 55, 70, 75) electrically coupling said transistors to said capacitors at contact points respectively located on each of said transistors and said capacitors, wherein all of said electrical bus bars and all of said contact points between said electrical bus bars and said transistors are covered with an insulation such that said all of said electrical bus bars and said contact points between said transistors and said electrical bus bars are sealed from an atmosphere, wherein the insulation is a potting compound, and wherein the insulation is in a de-gased state. a heat exchanger, a plurality of transistors (30, 32) thermally coupled to said heat exchanger, a plurality of capacitors (61, 62), and a plurality of electrical bus bars (50, 55, 70, 75) electrically coupling said transistors to said capacitors at contact points respectively located on each of said transistors and said capacitors, wherein all of said electrical bus bars and all of said contact points between said electrical bus bars and said transistors are covered with an insulation such that said all of said electrical bus bars and said contact points between said transistors and said electrical bus bars are sealed from an atmosphere, wherein the insulation is a potting compound, and wherein the insulation is in a de-gased state.
Electronic device encapsulation process, assisted by a laser, for obtaining a sealed electronic device, wherein said process comprises: providing a first substrate and a second substrate, the second substrate being transparent in the emission wavelength of the laser; depositing an intermediate bonding contour layer on one or both of the substrates; sintering the intermediate bonding layer; depositing electronic device component on one or both of the substrates; sintering the electric component; joining the first substrate and second substrate with the electronic device components in-between the substrates; using the laser to direct a laser beam onto the intermediate bonding contour layer with a predefined progressive scan pattern, such that the intermediate bonding contour layer is progressively melted and forms a seal, bonding the substrates together; wherein the predefined progressive scan pattern comprises, when the width of the contour of the intermediate bonding contour layer is larger than the spot size of the laser beam, each successive linear laser pass is transversally deviated from the previous and the following linear laser passes along said contour; wherein the linear laser pass is a rectilinear line or a curved line selected from the following: a circle line, oval line, zig-zag line, sine wave line, sinusoidal line, spiral line, or combinations thereof; wherein the width of the contour of the intermediate bonding contour layer is between 0.2 mm and 5 mm. providing a first substrate and a second substrate, the second substrate being transparent in the emission wavelength of the laser; depositing an intermediate bonding contour layer on one or both of the substrates; sintering the intermediate bonding layer; depositing electronic device component on one or both of the substrates; sintering the electric component; joining the first substrate and second substrate with the electronic device components in-between the substrates; using the laser to direct a laser beam onto the intermediate bonding contour layer with a predefined progressive scan pattern, such that the intermediate bonding contour layer is progressively melted and forms a seal, bonding the substrates together; wherein the predefined progressive scan pattern comprises, when the width of the contour of the intermediate bonding contour layer is larger than the spot size of the laser beam, each successive linear laser pass is transversally deviated from the previous and the following linear laser passes along said contour; wherein the linear laser pass is a rectilinear line or a curved line selected from the following: a circle line, oval line, zig-zag line, sine wave line, sinusoidal line, spiral line, or combinations thereof; wherein the width of the contour of the intermediate bonding contour layer is between 0.2 mm and 5 mm.
A data retransmission method, comprising: monitoring and decoding, by a relay node, each data packet that is sent by a source node for a first time in go-back-N automatic repeat request, GBN-ARQ, mode to a destination node; storing, by a relay node, a copy of each successfully decoded data packet; monitoring, by said relay node, a response message to each data packet, wherein the response message is returned by the destination node to the source node; and when the monitored response message is the reception negative acknowledgment message, NACK, sending, by said relay node, a copy of a data packet that corresponds to a reception negative acknowledgment message, NACK, to the destination node; wherein in a frame in which the relay node sends the copy of the data packet that corresponds to the reception negative acknowledgment message, NACK, to the destination node, the source node re-sends the data packet that corresponds to the reception negative acknowledgment message, NACK, to the destination node; wherein the source node re-sends the data packet in a time slot in the frame and the relay node sends the copy of the data packet respectively in another time slot in the same frame. monitoring and decoding, by a relay node, each data packet that is sent by a source node for a first time in go-back-N automatic repeat request, GBN-ARQ, mode to a destination node; storing, by a relay node, a copy of each successfully decoded data packet; monitoring, by said relay node, a response message to each data packet, wherein the response message is returned by the destination node to the source node; and when the monitored response message is the reception negative acknowledgment message, NACK, sending, by said relay node, a copy of a data packet that corresponds to a reception negative acknowledgment message, NACK, to the destination node; wherein in a frame in which the relay node sends the copy of the data packet that corresponds to the reception negative acknowledgment message, NACK, to the destination node, the source node re-sends the data packet that corresponds to the reception negative acknowledgment message, NACK, to the destination node; wherein the source node re-sends the data packet in a time slot in the frame and the relay node sends the copy of the data packet respectively in another time slot in the same frame.
A dental X-ray imaging media holder (1, 1a, 1b, 1c) and sheath comprising: a dental X-ray imaging media holder (1, 1a, 1b, 1c) with a bite block, said bite block having a proximal end and a distal and one or more spring arms; a backing plate extending from the proximal end of the bite block; and a sheath comprising a protective cover for housing a sensor, and a strap attached thereto; wherein the strap is configured to removably affix the sheath and the sensor within the sheath to the backing plate of said holder (1, 1a, 1b, 1c), and wherein the one or more spring arms of the backing plate are configured to slide under the strap of said sheath to pull on the sheath to tighten the sheath around the sensor. a dental X-ray imaging media holder (1, 1a, 1b, 1c) with a bite block, said bite block having a proximal end and a distal and one or more spring arms; a backing plate extending from the proximal end of the bite block; and a sheath comprising a protective cover for housing a sensor, and a strap attached thereto; wherein the strap is configured to removably affix the sheath and the sensor within the sheath to the backing plate of said holder (1, 1a, 1b, 1c), and wherein the one or more spring arms of the backing plate are configured to slide under the strap of said sheath to pull on the sheath to tighten the sheath around the sensor.
A battery deterioration judging system comprising: an acquiring section (22, 30) that acquires a state amount of a battery; a first deriving section that derives a first deterioration probability of the battery, based on the state amount of the battery acquired by the acquiring section (22, 30) and a predetermined first calculation model; a reliability degree deriving section that derives a reliability degree of a second calculation model, which is different than the first calculation model, based on a number of state amounts acquired by the acquiring section (22, 30); a second deriving section that derives a second deterioration probability of the battery, based on the state amount of the battery acquired by the acquiring section (22, 30) and the second calculation model; and a judging section that judges deterioration of the battery based on the reliability degree, and at least one of the first deterioration probability or the second deterioration probability. an acquiring section (22, 30) that acquires a state amount of a battery; a first deriving section that derives a first deterioration probability of the battery, based on the state amount of the battery acquired by the acquiring section (22, 30) and a predetermined first calculation model; a reliability degree deriving section that derives a reliability degree of a second calculation model, which is different than the first calculation model, based on a number of state amounts acquired by the acquiring section (22, 30); a second deriving section that derives a second deterioration probability of the battery, based on the state amount of the battery acquired by the acquiring section (22, 30) and the second calculation model; and a judging section that judges deterioration of the battery based on the reliability degree, and at least one of the first deterioration probability or the second deterioration probability.
A vehicle radar system arranged to be mounted in an ego vehicle and comprising at least one detector arrangement (4, 7) and at least one control unit arrangement, where said detector arrangement (4, 7) is adapted to obtain a dataset initially comprising a number K of radar detections, characterized in that the control unit arrangement is adapted to, repeatedly: determine a dominating line (21a, 21b, 21c, 21d, 21e, 21f) from the dataset of radar detections, and to remove radar detections associated with the dominating line (21a, 21b, 21c, 21d, 21e, 21f) from the dataset of radar detections, until a first stopping criterion is fulfilled, thereby determining a plurality of lines (21a, 21b, 21c, 21d, 21e, 21f) from the number K of radar detections, where the control unit arrangement is adapted to determine a dominating line (21a, 21b, 21c, 21d, 21e, 21f) from the dataset of radar detections by repeatedly: - select at least two radar detections; - determine a temporary line based on said selected radar detections by fitting these detections to a line; and - determine a set of inliers from the radar detections associated with the temporary line, where an inlier is a radar detection that lies within a certain predetermined distance from the determined temporary line; until a second stopping criterion is fulfilled, and when the second stopping criterion is fulfilled, the control unit arrangement is adapted to determine the dominating line (21a, 21b, 21c, 21d, 21e, 21f) as the temporary line associated with the set of inliers having largest cardinality. determine a dominating line (21a, 21b, 21c, 21d, 21e, 21f) from the dataset of radar detections, and to remove radar detections associated with the dominating line (21a, 21b, 21c, 21d, 21e, 21f) from the dataset of radar detections, - select at least two radar detections; - determine a temporary line based on said selected radar detections by fitting these detections to a line; and - determine a set of inliers from the radar detections associated with the temporary line, where an inlier is a radar detection that lies within a certain predetermined distance from the determined temporary line;
A vehicular air conditioner that air-conditions a vehicle interior by blowing air through an air conditioning duct into the vehicle interior, the vehicular air conditioner comprising: a particulate sensor that detects a particulate concentration in the air flowing through the air conditioning duct; and a calculation section that calculates an average value of the particulate concentration by averaging the particulate concentrations detected by the particulate sensor over a moving-average time period, wherein when a current particulate concentration detected by the particulate sensor is higher than a predetermined threshold concentration, the calculation section makes the moving-average time period shorter than the moving-average time period used when the current particulate concentration is equal to or lower than the threshold concentration. a particulate sensor that detects a particulate concentration in the air flowing through the air conditioning duct; and a calculation section that calculates an average value of the particulate concentration by averaging the particulate concentrations detected by the particulate sensor over a moving-average time period, wherein when a current particulate concentration detected by the particulate sensor is higher than a predetermined threshold concentration, the calculation section makes the moving-average time period shorter than the moving-average time period used when the current particulate concentration is equal to or lower than the threshold concentration.
A plug assembly for a beverage container, characterized in comprising: an outer plug fitted into an upper opening section of a beverage container body, said outer plug having an outflow passage formed therein; an inner plug fitted into an upper opening section of said outer plug; an inner screw having a thread continuously provided on an inner circumferential surface of said outer plug, said inner screw allowing said inner plug to be screwed into said outer plug; an outer screw having a thread provided on an outer circumferential surface of said inner plug, said outer screw corresponding to said inner screw; a flow passage provided on said inner plug, said flow passage being formed by vertically cutting out at least a part of the thread of said outer screw; and a flow passage control wall provided on an upper portion of said flow passage, said flow passage control wall slanting upward and outward, characterized in that said inner plug includes a flow passage control side wall provided on an upper side region adjacent to said flow passage, said flow passage control side wall being formed continuous in a vertical direction. an outer plug fitted into an upper opening section of a beverage container body, said outer plug having an outflow passage formed therein; an inner plug fitted into an upper opening section of said outer plug; an inner screw having a thread continuously provided on an inner circumferential surface of said outer plug, said inner screw allowing said inner plug to be screwed into said outer plug; an outer screw having a thread provided on an outer circumferential surface of said inner plug, said outer screw corresponding to said inner screw; a flow passage provided on said inner plug, said flow passage being formed by vertically cutting out at least a part of the thread of said outer screw; and a flow passage control wall provided on an upper portion of said flow passage, said flow passage control wall slanting upward and outward, characterized in that said inner plug includes a flow passage control side wall provided on an upper side region adjacent to said flow passage, said flow passage control side wall being formed continuous in a vertical direction.
A method of detecting a failure of a brake actuator (70, 71, 72, 73) comprising: monitoring an angular position of a motor controlling the brake actuator (70, 71, 72, 73); monitoring a linear position of a linear translation arrangement of the brake actuator, wherein the linear position of the linear translation arrangement is controlled by a gear assembly in communication with the motor and the linear translation arrangement; characterized by comparing the linear position of the linear translation arrangement with the angular position of the motor; and determining whether the linear position of the linear translation arrangement is within a predetermined range of linear positions corresponding to a plurality of angular positions. monitoring an angular position of a motor controlling the brake actuator (70, 71, 72, 73); monitoring a linear position of a linear translation arrangement of the brake actuator, wherein the linear position of the linear translation arrangement is controlled by a gear assembly in communication with the motor and the linear translation arrangement; characterized by comparing the linear position of the linear translation arrangement with the angular position of the motor; and determining whether the linear position of the linear translation arrangement is within a predetermined range of linear positions corresponding to a plurality of angular positions.
A method for manufacturing a marigold color emulsion preparation, comprising using a marigold color of natural raw material, which has an acid value of 10 or less and an acetone-insoluble content of 5 wt % or less, wherein the acid value refers to the number of milligrams of potassium hydroxide required in order to neutralize the free fatty acids contained in 1 g of the marigold color adjusted so that the color value E 10% 1cm is 2550, and the acetone-insoluble content is calculated using the following method: from a color sample, sample of approximately 3 g is taken and weighed out (sample amount); then, 50 ml of acetone is added to this sample and dissolved, and the sample is cooled to 5°C; this sample is centrifuged for 10 minutes at 1000 x g, and the supernatant is removed; to the precipitate, 50 ml of acetone is again added, and this mixture is centrifuged; the supernatant is then removed, and the precipitate is recovered (acetone treatment, 5°C); the abovementioned acetone treatment (5°C) is repeated until there is almost no color in the precipitate; the acetone is removed by means of an evaporator from the precipitate recovered by the acetone treatment, and the weight of the obtained precipitate is measured (weight of acetone-treated precipitate); the content (wt %) of acetone-insoluble contained in 100 wt % of the color sample is determined using the following equation: Acetone − insoluble Content wt % = weight of acetone − treated precipitate g / sample amount g × 100. from a color sample, sample of approximately 3 g is taken and weighed out (sample amount); then, 50 ml of acetone is added to this sample and dissolved, and the sample is cooled to 5°C; this sample is centrifuged for 10 minutes at 1000 x g, and the supernatant is removed; to the precipitate, 50 ml of acetone is again added, and this mixture is centrifuged; the supernatant is then removed, and the precipitate is recovered (acetone treatment, 5°C); the abovementioned acetone treatment (5°C) is repeated until there is almost no color in the precipitate; the acetone is removed by means of an evaporator from the precipitate recovered by the acetone treatment, and the weight of the obtained precipitate is measured (weight of acetone-treated precipitate); the content (wt %) of acetone-insoluble contained in 100 wt % of the color sample is determined using the following equation: Acetone − insoluble Content wt % = weight of acetone − treated precipitate g / sample amount g × 100.