mhurhangee/ep-ind-claims huggingface dataset:
A cellular phone apparatus comprising: an image display surface; a first enter key that is located on an operation surface; at least four cursor keys (5a, 5b, 5c, 5d) for moving a cursor in any desired direction on the image display surface, the cursor keys (5a, 5b, 5c, 5d) being located on the operation surface such that the cursor keys (5a, 5b, 5c, 5d) surround the first enter key; and a second enter key that is located outside a virtual annular line (c), the virtual annular line connecting the four cursor keys (5a, 5b, 5c, 5d) on the operation surface, wherein functions of the first and second enter keys (6a, 6b) are completely identical, the cellular phone apparatus further comprises means for inactivating key functions that temporarily inactivates the functions of either the first enter key or the second enter key, and further comprising means for allocating a second enter key that selectively allocates one key out of two keys (7a, 7b) as the second enter key, the two keys (7a, 7b) being located on both sides with respect to an axis (L-L) that connects a center of the image display surface and a center of the operation surface, respectively, wherein the second enter key is one of the two keys (7a, 7b), the one being allocated by the means for allocating the second enter key. an image display surface; a first enter key that is located on an operation surface; at least four cursor keys (5a, 5b, 5c, 5d) for moving a cursor in any desired direction on the image display surface, the cursor keys (5a, 5b, 5c, 5d) being located on the operation surface such that the cursor keys (5a, 5b, 5c, 5d) surround the first enter key; and a second enter key that is located outside a virtual annular line (c), the virtual annular line connecting the four cursor keys (5a, 5b, 5c, 5d) on the operation surface, wherein functions of the first and second enter keys (6a, 6b) are completely identical, the cellular phone apparatus further comprises means for inactivating key functions that temporarily inactivates the functions of either the first enter key or the second enter key, and further comprising means for allocating a second enter key that selectively allocates one key out of two keys (7a, 7b) as the second enter key, the two keys (7a, 7b) being located on both sides with respect to an axis (L-L) that connects a center of the image display surface and a center of the operation surface, respectively, wherein the second enter key is one of the two keys (7a, 7b), the one being allocated by the means for allocating the second enter key.
A heat pump device comprising: a compressor including a compression mechanism that compresses a refrigerant and a motor that drives the compression mechanism; an inverter configured to apply a voltage for driving the motor; a converter configured to apply a voltage to the inverter; a bus-voltage detecting unit configured to detect an output voltage of the converter; an inverter control unit configured to generate a driving signal for driving the inverter, wherein the inverter control unit is further configured to include a heating operation mode in which a heating operation of the compressor is performed by applying a high-frequency alternating-current voltage to the motor and a normal operation mode in which a refrigerant is compressed by performing a normal operation of the compressor; and characterized in that a converter control unit is configured to generate a driving signal for driving the converter on the basis of a signal input from the inverter control unit and a signal (Vdc) input from the bus-voltage detecting unit and outputs the driving signal to the converter, and in the heating operation mode of the inverter control unit, the converter control unit is configured to stop the converter when a voltage amplitude given to the motor is equal to or larger than a bus voltage detection value detected by bus-voltage detecting unit and to step down the voltage applied to the inverter when the voltage amplitude is smaller than the bus voltage detection value. a compressor including a compression mechanism that compresses a refrigerant and a motor that drives the compression mechanism; an inverter configured to apply a voltage for driving the motor; a converter configured to apply a voltage to the inverter; a bus-voltage detecting unit configured to detect an output voltage of the converter; an inverter control unit configured to generate a driving signal for driving the inverter, wherein the inverter control unit is further configured to include a heating operation mode in which a heating operation of the compressor is performed by applying a high-frequency alternating-current voltage to the motor and a normal operation mode in which a refrigerant is compressed by performing a normal operation of the compressor; and characterized in that a converter control unit is configured to generate a driving signal for driving the converter on the basis of a signal input from the inverter control unit and a signal (Vdc) input from the bus-voltage detecting unit and outputs the driving signal to the converter, and in the heating operation mode of the inverter control unit, the converter control unit is configured to stop the converter when a voltage amplitude given to the motor is equal to or larger than a bus voltage detection value detected by bus-voltage detecting unit and to step down the voltage applied to the inverter when the voltage amplitude is smaller than the bus voltage detection value.
A system, comprising: a print head comprising a nozzle; a print surface; an infrared sensor to detect the temperature of a location of the print surface upon firing the nozzle to eject a drop of printing fluid to the location of the print surface; a processor to determine whether the nozzle ejected the drop properly using the detected temperature. a print head comprising a nozzle; a print surface; an infrared sensor to detect the temperature of a location of the print surface upon firing the nozzle to eject a drop of printing fluid to the location of the print surface; a processor to determine whether the nozzle ejected the drop properly using the detected temperature.
A glass film laminate, comprising a glass film and a supporting glass laminated on the glass film, wherein the glass film and the supporting glass are formed by an overflow down-draw method, a surface of the glass film and a surface of the supporting glass, which are brought into contact with each other, being unpolished and having a surface roughness Ra of 2.0 nm or less respectively, the glass film has a thickness of 300 μm or less, the glass film is laminated on the supporting glass in the state of the surface of the glass film being in contact with the surface of the supporting glass without an adhesive, so that the glass film can be peeled off from the supporting glass.
A treatment process for the production of implants or prostheses of polymers with controlled release of active ingredients comprising a first step referred to as a "pretreatment" step followed by a step referred to as a "impregnation" step of the implants or prostheses of polymers pretreated with active ingredients, the first step comprising: - introduction of the implants or prostheses of polymers into a high-pressure cell or autoclave, - feeding the cell with CO 2 in a pressurisation and heating phase in accordance with controlled kinetics with a pressurisation rate of between 0.01 and 1 MPa/min until attaining supercritical or subcritical liquid conditions of the CO 2 with a pressure of between 5 and 20 MPa and a temperature of between 20°C and 50°C, - a phase of bringing the implants or prostheses of polymers into contact with the CO 2 in a batch mode or a continuous mode, the contacting phase comprising: • in the batch mode: isolation of the high-pressure cell or autoclave for a period of a few minutes to an hour, and • in the continuous mode: sweeping the high-pressure cell or autoclave with a through flow of CO 2 for a period varying from a few minutes to one hour, the CO 2 flow rate being in a range of flow rates ranging from a few grams per hour to 1 kg/h, and - a depressurisation phase in accordance with controlled kinetics with a depressurisation rate of between 0.01 and 1 MPa/min under isothermal conditions. - introduction of the implants or prostheses of polymers into a high-pressure cell or autoclave, - feeding the cell with CO 2 in a pressurisation and heating phase in accordance with controlled kinetics with a pressurisation rate of between 0.01 and 1 MPa/min until attaining supercritical or subcritical liquid conditions of the CO 2 with a pressure of between 5 and 20 MPa and a temperature of between 20°C and 50°C, - a phase of bringing the implants or prostheses of polymers into contact with the CO 2 in a batch mode or a continuous mode, the contacting phase comprising: • in the batch mode: isolation of the high-pressure cell or autoclave for a period of a few minutes to an hour, and • in the continuous mode: sweeping the high-pressure cell or autoclave with a through flow of CO 2 for a period varying from a few minutes to one hour, the CO 2 flow rate being in a range of flow rates ranging from a few grams per hour to 1 kg/h, and • in the batch mode: isolation of the high-pressure cell or autoclave for a period of a few minutes to an hour, and • in the continuous mode: sweeping the high-pressure cell or autoclave with a through flow of CO 2 for a period varying from a few minutes to one hour, the CO 2 flow rate being in a range of flow rates ranging from a few grams per hour to 1 kg/h, and - a depressurisation phase in accordance with controlled kinetics with a depressurisation rate of between 0.01 and 1 MPa/min under isothermal conditions.
A lithium salt compound comprising a lithium cation including, as a ligand, at least one ether compound selected from 2,5,8,11-tetraoxadodecane and 2,5,8,11,14-pentaoxapentadecane, characterized in that the lithium cation further includes a difluorophosphate anion, wherein in the lithium cation, the molar ratio of the ether compound to the lithium ion (Li +) is from 0.1 to 0.7.
A glass fiber filled flame retardant polypropylene composition comprising a propylene-based polymer, a first flame retardant in an amount of 15 to 40 wt% of the total composition, wherein the first flame retardant is in the form of particles comprising ammonium polyphosphate and at least one phosphate selected from the group consisting of melamine phosphate, melamine polyphosphate, melamine pyrophosphate, piperazine phosphate, piperazine polyphosphate, piperazine pyrophosphate, 2-methylpiperazine monophosphate, tricresyl phosphate, alkyl phosphates, haloalkyl phosphates, tetraphenyl pyrophosphate, poly(2-hydroxy propylene spirocyclic pentaerythritol bisphosphate) and poly(2,2-dimethylpropylene spirocyclic pentaerythritol bisphosphonate) and a second flame retardant in an amount of 0.1 to 15 wt% of the total composition, wherein the second flame retardant comprises an aromatic phosphate ester and glass fibers in an amount of 5 to 40 wt% of the total composition. a propylene-based polymer, a first flame retardant in an amount of 15 to 40 wt% of the total composition, wherein the first flame retardant is in the form of particles comprising ammonium polyphosphate and at least one phosphate selected from the group consisting of melamine phosphate, melamine polyphosphate, melamine pyrophosphate, piperazine phosphate, piperazine polyphosphate, piperazine pyrophosphate, 2-methylpiperazine monophosphate, tricresyl phosphate, alkyl phosphates, haloalkyl phosphates, tetraphenyl pyrophosphate, poly(2-hydroxy propylene spirocyclic pentaerythritol bisphosphate) and poly(2,2-dimethylpropylene spirocyclic pentaerythritol bisphosphonate) and melamine polyphosphate, melamine pyrophosphate, piperazine phosphate, piperazine polyphosphate, piperazine pyrophosphate, 2-methylpiperazine monophosphate, tricresyl phosphate, alkyl phosphates, haloalkyl phosphates, tetraphenyl pyrophosphate, poly(2-hydroxy propylene spirocyclic pentaerythritol bisphosphate) and poly(2,2-dimethylpropylene spirocyclic pentaerythritol bisphosphonate) and a second flame retardant in an amount of 0.1 to 15 wt% of the total composition, wherein the second flame retardant comprises an aromatic phosphate ester and glass fibers in an amount of 5 to 40 wt% of the total composition.
A method performed by a user equipment, UE, for managing hybrid automatic repeat request, HARQ, procedure, the method comprising: receiving, from a base station, information for indicating a joint feedback or a separate feedback; in case that the information indicates the separate feedback, performing a HARQ-acknowledge, ACK, transmission for a first cell and a HARQ- ACK transmission for a second cell, separately; and in case that the information indicates the joint feedback, performing a HARQ-ACK transmission associated with combined information for the first cell and the second cell, on one physical uplink control channel, PUCCH, wherein the combined information is generated for physical downlink shared channel, PDSCH, receptions of the first cell and the second cell, and wherein the combined information is generated by jointing a HARQ-ACK codebook for each of the first cell and the second cell. receiving, from a base station, information for indicating a joint feedback or a separate feedback; in case that the information indicates the separate feedback, performing a HARQ-acknowledge, ACK, transmission for a first cell and a HARQ- ACK transmission for a second cell, separately; and in case that the information indicates the joint feedback, performing a HARQ-ACK transmission associated with combined information for the first cell and the second cell, on one physical uplink control channel, PUCCH, wherein the combined information is generated for physical downlink shared channel, PDSCH, receptions of the first cell and the second cell, and wherein the combined information is generated by jointing a HARQ-ACK codebook for each of the first cell and the second cell.
A method for performing fetal weight estimation, the method comprising: acquiring a plurality of different three dimensional ultrasound images of an imaging region, wherein the plurality of different three dimensional ultrasound images comprise: a head image that includes a view of a head of the fetus; an abdominal image that includes a view of a torso of the fetus; and a femur image that includes a view of a leg of the fetus; performing segmentation on each of the plurality of different three dimensional ultrasound images; and performing fetal weight estimation based on the segmentations of each of the plurality of different three dimensional ultrasound images, and characterized in that: if the abdominal image comprises a partial view of the torso of the fetus, the segmentation of the abdominal image comprises: generating a model torso image; comparing the model torso image to a segmented abdominal image; and generating an adjustment factor for the segmented abdominal image based on the comparison. acquiring a plurality of different three dimensional ultrasound images of an imaging region, wherein the plurality of different three dimensional ultrasound images comprise: a head image that includes a view of a head of the fetus; an abdominal image that includes a view of a torso of the fetus; and a femur image that includes a view of a leg of the fetus; a head image that includes a view of a head of the fetus; an abdominal image that includes a view of a torso of the fetus; and a femur image that includes a view of a leg of the fetus; performing segmentation on each of the plurality of different three dimensional ultrasound images; and performing fetal weight estimation based on the segmentations of each of the plurality of different three dimensional ultrasound images, and characterized in that: if the abdominal image comprises a partial view of the torso of the fetus, the segmentation of the abdominal image comprises: generating a model torso image; comparing the model torso image to a segmented abdominal image; and generating an adjustment factor for the segmented abdominal image based on the comparison. if the abdominal image comprises a partial view of the torso of the fetus, the segmentation of the abdominal image comprises: generating a model torso image; comparing the model torso image to a segmented abdominal image; and generating an adjustment factor for the segmented abdominal image based on the comparison.
A method for controlling source tracking, the method comprising: detecting, by a computing device, audio; starting a source tracking process on the detected audio to determine a source direction of the detected audio; performing beamforming on the detected audio based on the source direction of the detected audio; determining, based on determining at least an initial portion of a keyword from the detected audio, a pause duration corresponding to the keyword; pausing, based on the determining the at least the initial portion of the keyword and after determining the pause duration, the source tracking process; and resuming, after the pause duration, the source tracking process. detecting, by a computing device, audio; starting a source tracking process on the detected audio to determine a source direction of the detected audio; performing beamforming on the detected audio based on the source direction of the detected audio; determining, based on determining at least an initial portion of a keyword from the detected audio, a pause duration corresponding to the keyword; pausing, based on the determining the at least the initial portion of the keyword and after determining the pause duration, the source tracking process; and resuming, after the pause duration, the source tracking process.
An anti-TIGIT antibody, or TIGIT-binding fragment thereof, for use in a method for therapeutic modulation of the immune system function and/or activity, the method comprising administration of the anti-TIGIT antibody, or TIGIT-binding fragment thereof, to a human or animal body, wherein the anti-TIGIT antibody, or TIGIT-binding fragment thereof, inhibits the binding of TIGIT to one or more of PVRL2, PVRL3, and PVR, and wherein the anti-TIGIT antibody, or TIGIT-binding fragment thereof, comprises a light chain comprising an HVR-L1 comprising SEQ ID NO: 23, an HVR-L2 comprising SEQ ID NO: 24, and an HVR-L3 comprising SEQ ID NO: 25, and a heavy chain comprising an HVR-H1 comprising SEQ ID NO: 26, an HVR-H2 comprising SEQ ID NO: 27, and an HVR-H3 comprising SEQ ID NO: 28.
A method of detecting and modulating the positions of a plurality of probes (5a-g), the method comprising: a. directing an input beam into an optical device; b. transforming the input beam with the optical device into a plurality of output beamlets (13a-c) which are not parallel with each other; c. splitting each output beamlet into a sensing beamlet (15a-c) and an associated reference beamlet (16a-c); d. simultaneously directing each of the sensing beamlets (15a-c) onto an associated one of the probes to generate a reflected beamlet (19a-c), wherein an objective lens simultaneously directs each of the sensing beamlets (15a-c) onto an associated one of the probes, and the objective lens collects the reflected beamlets (19a-c) and projects them into an interferometer, the interferometer comprising a sensor (22,23) and a sensor lens; e. combining each reflected beamlet with its associated reference beamlet to generate an interferogram; and f. measuring each interferogram to determine the position of an associated one of the probes, wherein each reflected beamlet (19a-c) and its associated reference beamlet (16a-c) are directed onto the sensor (22,23) with the sensor lens (26,27), and the sensor (22,23) measures each interferogram to determine the position of an associated one of the probes, the method further comprising modulating the positions of the probes in accordance with the positions of the probes determined by measuring the interferograms. a. directing an input beam into an optical device; b. transforming the input beam with the optical device into a plurality of output beamlets (13a-c) which are not parallel with each other; c. splitting each output beamlet into a sensing beamlet (15a-c) and an associated reference beamlet (16a-c); d. simultaneously directing each of the sensing beamlets (15a-c) onto an associated one of the probes to generate a reflected beamlet (19a-c), wherein an objective lens simultaneously directs each of the sensing beamlets (15a-c) onto an associated one of the probes, and the objective lens collects the reflected beamlets (19a-c) and projects them into an interferometer, the interferometer comprising a sensor (22,23) and a sensor lens; e. combining each reflected beamlet with its associated reference beamlet to generate an interferogram; and f. measuring each interferogram to determine the position of an associated one of the probes,
A high-purity electrolytic copper, wherein a Cu purity excluding gas components (O, F, S, C, and Cl) is 99.9999 mass% or more, a content of S is 0.1 mass ppm or less, and an area ratio of crystals having a ± 10° orientation is 5 % or more and less than 40%, when crystal orientation is measured by electron backscatter diffraction in a cross section along a thickness direction. wherein a Cu purity excluding gas components (O, F, S, C, and Cl) is 99.9999 mass% or more, a content of S is 0.1 mass ppm or less, and an area ratio of crystals having a ± 10° orientation is 5 % or more and less than 40%, when crystal orientation is measured by electron backscatter diffraction in a cross section along a thickness direction.
An optical disc device comprising: a light source; an object lens to focus light emitted from the light source on an information recording surface of an optical disc; a movable lens that is arranged on an optical path between the light source and the objective lens and arranged such that position thereof is adjustable along a direction of a light axis; a lens moving portion to move the movable lens along the direction of the light axis; and a tracking servo system which makes a beam spot that is formed of the light from the light source through focusing by the objective lens keep on track of the optical disc; characterized by further comprising a control part which controls a gain of a servo loop of the tracking servo system such that said gain is larger by a predetermined amount while the movable lens is moved by the lens moving portion as compared to when the movable lens is not moved by the lens moving portion said predetermined amount being determined such that the influence of the disturbance of the objective lens actuator caused by the driving of the lens moving portion is reduced and at the same time oscillation of the servo system is reduced. a light source; an object lens to focus light emitted from the light source on an information recording surface of an optical disc; a movable lens that is arranged on an optical path between the light source and the objective lens and arranged such that position thereof is adjustable along a direction of a light axis; a lens moving portion to move the movable lens along the direction of the light axis; and a tracking servo system which makes a beam spot that is formed of the light from the light source through focusing by the objective lens keep on track of the optical disc; characterized by further comprising a control part which controls a gain of a servo loop of the tracking servo system such that said gain is larger by a predetermined amount while the movable lens is moved by the lens moving portion as compared to when the movable lens is not moved by the lens moving portion said predetermined amount being determined such that the influence of the disturbance of the objective lens actuator caused by the driving of the lens moving portion is reduced and at the same time oscillation of the servo system is reduced.