mhurhangee/ep-ind-claims huggingface dataset:
An NK-1 antagonist for use in the prevention and/or the treatment of ocular sensitivity and/or ocular pain wherein the NK-1 antagonist is Fosaprepitant, Aprepitant or a pharmaceutically acceptable salt thereof.
A control device comprising: a controller configured to, when a prediction value of an electricity fee is greater than a target value of an electricity fee and a difference between the prediction value and the target value is less than a first threshold, execute either one control of an electric power saving control for electric equipment (500, 510) and a charge-discharge control in which electric power supplied from a commercial electric power source is stored in a storage battery (420, 430) in a first time slot and the electric power stored in the storage battery (420, 430) is supplied to the electric equipment (500, 510) in a second time slot in which a unit cost of the electric power supplied from the commercial electric power source is greater than that in the first time slot, when the prediction value is greater than the target value and the difference is greater than the first threshold, execute control of both the electric power saving control and the charge-discharge control. when a prediction value of an electricity fee is greater than a target value of an electricity fee and a difference between the prediction value and the target value is less than a first threshold, execute either one control of an electric power saving control for electric equipment (500, 510) and a charge-discharge control in which electric power supplied from a commercial electric power source is stored in a storage battery (420, 430) in a first time slot and the electric power stored in the storage battery (420, 430) is supplied to the electric equipment (500, 510) in a second time slot in which a unit cost of the electric power supplied from the commercial electric power source is greater than that in the first time slot, when the prediction value is greater than the target value and the difference is greater than the first threshold, execute control of both the electric power saving control and the charge-discharge control.
A gas guide for a laser cutting head having a nozzle, having a central flow axis, comprising a base part having a pressure chamber concentrically surrounding the flow axis, configured for the reception of a gas flow (20a, 20b, 20c), wherein the base part has at least four gas conduits (26a, 26b, 26c), which extend from the pressure chamber in the direction of the flow axis, and characterized in that the cross-sections of the pressure chamber and the gas conduits (26a, 26b, 26c) are dimensioned such that the gas has a maximum flow rate when it exits the gas conduits (26a, 26b, 26c), wherein the gas conduits (26a, 26b, 26c) each extend at a decreasing angle with respect to the flow axis in the flow direction of the gas flow (20a, 20b, 20c). a base part having a pressure chamber concentrically surrounding the flow axis, configured for the reception of a gas flow (20a, 20b, 20c), wherein the base part has at least four gas conduits (26a, 26b, 26c), which extend from the pressure chamber in the direction of the flow axis, and characterized in that the cross-sections of the pressure chamber and the gas conduits (26a, 26b, 26c) are dimensioned such that the gas has a maximum flow rate when it exits the gas conduits (26a, 26b, 26c), wherein the gas conduits (26a, 26b, 26c) each extend at a decreasing angle with respect to the flow axis in the flow direction of the gas flow (20a, 20b, 20c).
A node device comprising: a first optical unit for outputting a first optical signal addressed to a second terminal station that is received from a first terminal station and a second optical signal having a wavelength band different from that of the first optical signal addressed to a third terminal station that is received from the first terminal station; and characterized by a second optical unit (10, 11, 16) in which the first and second optical signals outputted from the first optical unit are inputted, the frequency of the first optical signal is shifted by a predetermined amount into a fourth optical signal, the second optical signal is passed as it is, and the second and fourth optical signals are coupled and transmitted to the third terminal station, wherein the predetermined amount is determined in such a way that the frequency of a carrier of the fourth optical signal is a frequency midway between two frequencies of the frequency grid receivable by the third terminal station. a first optical unit for outputting a first optical signal addressed to a second terminal station that is received from a first terminal station and a second optical signal having a wavelength band different from that of the first optical signal addressed to a third terminal station that is received from the first terminal station; and characterized by a second optical unit (10, 11, 16) in which the first and second optical signals outputted from the first optical unit are inputted, the frequency of the first optical signal is shifted by a predetermined amount into a fourth optical signal, the second optical signal is passed as it is, and the second and fourth optical signals are coupled and transmitted to the third terminal station, wherein the predetermined amount is determined in such a way that the frequency of a carrier of the fourth optical signal is a frequency midway between two frequencies of the frequency grid receivable by the third terminal station.
A drip emitter (100, 800, 1800) comprising: a fluid inlet, a first molded part (228, 1828) including, a first surface and a first set of baffles protruding from said first surface; and a second molded part including, a second surface facing said first surface, a second set of baffles protruding from said second surface; said first set of baffles and said second set of baffles projecting into a labyrinth flow path confined between said first surface and said second surface, and a regulator (140, 840, 1840) including: a regulator outlet (142, 842), characterized by a flexible membrane partially blocking flow through said regulator outlet (142, 842); said labyrinth flow path including a channel outlet (136, 1836) to said regulator (140, 840, 1840), and in that said labyrinth flow path further includes: a divider preventing fluid from short circuiting said labyrinth flow path to said channel outlet (136, 1836); said divider including a first protrusion from said first surface and a second protrusion from said second surface, said first protrusion interlocking with said second protrusion. a fluid inlet, a first molded part (228, 1828) including, a first surface and a first set of baffles protruding from said first surface; and a first surface and a first set of baffles protruding from said first surface; and a second molded part including, a second surface facing said first surface, a second set of baffles protruding from said second surface; a second surface facing said first surface, a second set of baffles protruding from said second surface; said first set of baffles and said second set of baffles projecting into a labyrinth flow path confined between said first surface and said second surface, and a regulator (140, 840, 1840) including: a regulator outlet (142, 842), characterized by a flexible membrane partially blocking flow through said regulator outlet (142, 842); a regulator outlet (142, 842), characterized by a flexible membrane partially blocking flow through said regulator outlet (142, 842); said labyrinth flow path including a channel outlet (136, 1836) to said regulator (140, 840, 1840), and in that said labyrinth flow path further includes: a divider preventing fluid from short circuiting said labyrinth flow path to said channel outlet (136, 1836); said divider including a first protrusion from said first surface and a second protrusion from said second surface, said first protrusion interlocking with said second protrusion.
A backlight device comprising: a substrate; a plurality of light emitting elements disposed on a surface of the substrate; a diffuser plate having an incident surface disposed facing to the surface of the substrate, and an emitting surface disposed on the opposite side of the incident surface, diffuses light incident on the incident surface from the plurality of light emitting elements, and emits the diffused light from the emitting surface; and a frame defining a light emitting region on which the plurality of light emitting elements are disposed, wherein a half value region is defined in which light that is equal to or more than half of a peak value of a brightness of light emitted from one of the plurality of light emitting elements is incident on the incident surface, characterised in that the frame is disposed so as not to form a region less than the half value outside the light emitting elements disposed along the frame, and all of the plurality of light emitting elements are disposed so that a ratio less than the half value is 20 % or less,the ratio less than the half value is a ratio of an area of the region less than the half value to an area of a surrounding region formed by connecting at least three light emitting elements disposed around the region less than the half value, and the region less than the half value is a region on which no half value regions of the plurality of light emitting elements are disposed. a substrate; a plurality of light emitting elements disposed on a surface of the substrate; a diffuser plate having an incident surface disposed facing to the surface of the substrate, and an emitting surface disposed on the opposite side of the incident surface, diffuses light incident on the incident surface from the plurality of light emitting elements, and emits the diffused light from the emitting surface; and a frame defining a light emitting region on which the plurality of light emitting elements are disposed, wherein a half value region is defined in which light that is equal to or more than half of a peak value of a brightness of light emitted from one of the plurality of light emitting elements is incident on the incident surface, characterised in that the frame is disposed so as not to form a region less than the half value outside the light emitting elements disposed along the frame, and all of the plurality of light emitting elements are disposed so that a ratio less than the half value is 20 % or less,the ratio less than the half value is a ratio of an area of the region less than the half value to an area of a surrounding region formed by connecting at least three light emitting elements disposed around the region less than the half value, and the region less than the half value is a region on which no half value regions of the plurality of light emitting elements are disposed.
Device for the production and the controlled dispensing of soft ice cream or similar products, comprising: - A refrigerator body suitable to treat a pre-determined amount of ice-cream; - A dispenser (1 a,2,3,4,4a,5) of ice-cream; - Means for the mixing and the forwarding of the ice-cream to the dispenser (1a,2,3,4,4a,5); and characterised in that the dispenser (1a,2,3,4,4a,5) comprises or is constituted by: - An only tap having an internal portioning chamber of a pre-determined volume and suitable to be filled completely by the ice-cream so as to contain a pre-determined volume of ice-cream as one portion, - An only plunger that slides from an upper end to a lower end of the chamber; - Holding means for holding the ice cream inside the chamber when the plunger is not actuated, said holding means being fixed at the lower end of the chamber corresponding to the lower end of the tap; - Means (3,4,4a) for actuating said plunger for the dispensing of the ice-cream, the plunger expelling from the tap (1 a), upon single actuation, said pre-determined volume of ice-cream; the dispenser (1a,2,3,4,4a,5) further presenting means for the detection of the stroke end of said only plunger and the production of a corresponding detection signal that is sent to a management electronic unit. - A refrigerator body suitable to treat a pre-determined amount of ice-cream; - A dispenser (1 a,2,3,4,4a,5) of ice-cream; - Means for the mixing and the forwarding of the ice-cream to the dispenser (1a,2,3,4,4a,5); - An only tap having an internal portioning chamber of a pre-determined volume and suitable to be filled completely by the ice-cream so as to contain a pre-determined volume of ice-cream as one portion, - An only plunger that slides from an upper end to a lower end of the chamber; - Holding means for holding the ice cream inside the chamber when the plunger is not actuated, said holding means being fixed at the lower end of the chamber corresponding to the lower end of the tap; - Means (3,4,4a) for actuating said plunger for the dispensing of the ice-cream, the plunger expelling from the tap (1 a), upon single actuation, said pre-determined volume of ice-cream;
A pump barrel (26; 70) for use in a hydrostatic pump assembly comprising: a barrel body defining a plurality of piston bores configured for receiving a plurality of pistons that are moveable within the bores; and a porting face (54; 74) that defines a plurality of ports (42; 72) that are in fluid communication with the piston bores and providing fluid flow paths into and out from the barrel body; wherein edge surfaces of the ports (42; 72) are oriented at non-right angles relative to the porting face (54; 74); and wherein each port (42; 72) has a leading edge surface and a trailing edge surface relative to a direction of rotation of the pump barrel characterised in that the leading edge surface is oriented at an angle of less than 90° relative to the porting face (54; 74), and the trailing edge surface is oriented at an angle greater than 90° relative to the porting face. a barrel body defining a plurality of piston bores configured for receiving a plurality of pistons that are moveable within the bores; and a porting face (54; 74) that defines a plurality of ports (42; 72) that are in fluid communication with the piston bores and providing fluid flow paths into and out from the barrel body; wherein edge surfaces of the ports (42; 72) are oriented at non-right angles relative to the porting face (54; 74); and wherein each port (42; 72) has a leading edge surface and a trailing edge surface relative to a direction of rotation of the pump barrel characterised in that the leading edge surface is oriented at an angle of less than 90° relative to the porting face (54; 74), and the trailing edge surface is oriented at an angle greater than 90° relative to the porting face.
A method of controlling impurities for clindamycin hydrochloride, characterized in that it is determined by two-phase high performance liquid chromatography, wherein the chromatographic conditions are as follows: the detection wavelength is 200-220 nm; the column temperature is 20-40°C; the flow rate is 0.8-1 ml/min; Mobile phase A: 0.025 mol/L potassium dihydrogen phosphate solution; The pH of the Mobile phase A is 7.5; Mobile phase B: Acetonitrile; Gradient elution: Gradient elution is performed based on the following gradient: 0∼35 min: 10%-25% phase B; 35∼40 min: 10%-25%→30%-45% phase B; 40∼78 min: 30%-45% phase B; 78∼79 min: 30%-45%→10%-25% phase B; 79∼90min: 10%-25% phase B; The chromatographic column is filled with octadecylsilane-bonded silica gel (250 mm×4.6 mm, 5μm). the detection wavelength is 200-220 nm; the column temperature is 20-40°C; the flow rate is 0.8-1 ml/min; Mobile phase A: 0.025 mol/L potassium dihydrogen phosphate solution; The pH of the Mobile phase A is 7.5; Mobile phase B: Acetonitrile; Gradient elution: Gradient elution is performed based on the following gradient: 0∼35 min: 10%-25% phase B; 35∼40 min: 10%-25%→30%-45% phase B; 40∼78 min: 30%-45% phase B; 78∼79 min: 30%-45%→10%-25% phase B; 79∼90min: 10%-25% phase B; The chromatographic column is filled with octadecylsilane-bonded silica gel (250 mm×4.6 mm, 5μm). Gradient elution is performed based on the following gradient: 0∼35 min: 10%-25% phase B; 35∼40 min: 10%-25%→30%-45% phase B; 40∼78 min: 30%-45% phase B; 78∼79 min: 30%-45%→10%-25% phase B; 79∼90min: 10%-25% phase B; The chromatographic column is filled with octadecylsilane-bonded silica gel (250 mm×4.6 mm, 5μm).
A plasma processing device, comprising: a) a vacuum container including a wall having an opening; b) a radio-frequency antenna (11; 11A) including a metal fiber sheet and located at the opening; and c) a dielectric protection plate located closer to an interior of the vacuum container than the radio-frequency antenna (11; 11A) and configured to close the opening in a gas-tight manner. a) a vacuum container including a wall having an opening; b) a radio-frequency antenna (11; 11A) including a metal fiber sheet and located at the opening; and c) a dielectric protection plate located closer to an interior of the vacuum container than the radio-frequency antenna (11; 11A) and configured to close the opening in a gas-tight manner.
A heat pump cycle comprising: a compressor for compressing a refrigerant; a heat exchanger downstream of said compressor; a main expansion device downstream of said heat exchanger; an evaporator downstream of said main expansion device, and a refrigerant flowing from said compressor to said heat exchanger, to said expansion device, to said evaporator, and returning to said compressor, a fan for blowing air over said evaporator; a hot water supply to be heated in said heat exchanger and a water pump for moving water through said heat exchanger; and a control for said cycle, said control being operable to control components and initiate a defrost mode at which refrigerant from a discharge side of said compressor is cycled into said evaporator at a relatively hot temperature to defrost said evaporator, said control being operable to initiate said defrost mode based upon an algorithm developed to maximum heat transfer from said heat pump to an environment to be heated, characterised by: said control also being operable to stop said water pump during defrost mode and operates to minimize the likelihood of water in said heat exchanger being unduly heated during defrost mode, said control also stopping said fan during defrost mode, and monitoring system conditions to identify an approaching end of said defrost mode, and actuating said fan to begin blowing air over said evaporator prior to an end of said defrost mode. a compressor for compressing a refrigerant; a heat exchanger downstream of said compressor; a main expansion device downstream of said heat exchanger; an evaporator downstream of said main expansion device, and a refrigerant flowing from said compressor to said heat exchanger, to said expansion device, to said evaporator, and returning to said compressor, a fan for blowing air over said evaporator; a hot water supply to be heated in said heat exchanger and a water pump for moving water through said heat exchanger; and a control for said cycle, said control being operable to control components and initiate a defrost mode at which refrigerant from a discharge side of said compressor is cycled into said evaporator at a relatively hot temperature to defrost said evaporator, said control being operable to initiate said defrost mode based upon an algorithm developed to maximum heat transfer from said heat pump to an environment to be heated,
A machine vision system comprising: a processor configured to run a computer program stored in memory that is configured to cause the processor to: receive an intermediate image generated by removing a first transform of a homography matrix from a distorted image, wherein the homography matrix is associated with the distorted image and the homography matrix comprises the first transform and a second transform, wherein the first transform relates the distorted image to the intermediate image and the second transform relates the intermediate image to a rectified image; and generate, using a homography removal module, a rectified image by removing a second transform of the homography matrix from the intermediate image, wherein the second transform is constrained to map pixels along a first dimension of the rectified image to equi-distant locations along a first dimension of the intermediate image. receive an intermediate image generated by removing a first transform of a homography matrix from a distorted image, wherein the homography matrix is associated with the distorted image and the homography matrix comprises the first transform and a second transform, wherein the first transform relates the distorted image to the intermediate image and the second transform relates the intermediate image to a rectified image; and generate, using a homography removal module, a rectified image by removing a second transform of the homography matrix from the intermediate image, wherein the second transform is constrained to map pixels along a first dimension of the rectified image to equi-distant locations along a first dimension of the intermediate image.
A method performed by a wireless device for handling a transmission of data in a wireless communication network comprising: - receiving from a radio network node a default indication indicating a default value of an initial delay value for the wireless device for a transmission of data from the wireless device; - using the default value when performing one or more transmissions of data to the radio network node. - transmitting, to the radio network node, a capability indication indicating the capability related to the processing time of the wireless device. - receiving a message from the radio network node, which message indicates a delay value for a transmission of data from the wireless device based on the capability of the wireless device; and - performing a transmission of data to the radio network node delayed using the received delay value. - receiving from a radio network node a default indication indicating a default value of an initial delay value for the wireless device for a transmission of data from the wireless device; - using the default value when performing one or more transmissions of data to the radio network node. - transmitting, to the radio network node, a capability indication indicating the capability related to the processing time of the wireless device. - receiving a message from the radio network node, which message indicates a delay value for a transmission of data from the wireless device based on the capability of the wireless device; and - performing a transmission of data to the radio network node delayed using the received delay value.
A method of indirect spot welding a member including two overlapping metal sheets (21, 22) by holding a spot welding electrode against a metal sheet at one side of the member while applying pressure with the spot welding electrode whereas the other side of the member is unsupported in midair, attaching a feeding point to a metal sheet at the other side of the member at a location remote from the spot welding electrode, and allowing current to flow between the spot welding electrode and the feeding point, wherein an electrode end portion of the welding electrode includes a tip of the welding electrode, and as viewed from the tip, the electrode end portion has a two-step dome shape formed by a first curved surface with a curvature radius r 1 (mm) located within a range of a circle of radius R (mm) centering on the tip and a second curved surface with a curvature radius r 2 (mm) located around the first curved surface, and 2 √ t ≤ R ≤ 6 √ t 30 ≤ r 1 6 ≤ r 2 ≤ 12 where t is a sheet thickness (mm) of a thinner metal sheet in the member; the sheet thickness t of the thinner metal sheet is 0.5 mm to 1.8 mm, and the total sheet thickness of the member composed of the overlapping metal sheets is 1 mm to 4 mm; wherein the current and the electrode force of the welding electrode are kept constant from turning on to turning off electricity; and wherein the length of time from turning on to turning off electricity is 0.06 s to 0.60 s, the current is 4 kA to 12 kA and the electrode force of the welding electrode is 100 N to 1500 N.