mhurhangee/ep-ind-claims huggingface dataset:
A modular surge protection device (311, 411, 511) comprising: a first electrode (320, 420, 520); a second electrode (330, 430, 530); a varistor member (338, 438, 538) captured between and electrically connected with each of the first and second electrodes, wherein the varistor member is formed of a varistor material; and a gas discharge tube, GDT (339, 439, 539), captured and electrically connected between the varistor member and one of the first and second electrodes; characterized in that the modular surge protection device further includes an electrically conductive, meltable member (336, 436, 536), wherein the meltable member is responsive to heat in the modular surge protection device to melt and form a short circuit current flow path through the meltable member, between the first and second electrodes and bypassing the varistor member and the GDT. a first electrode (320, 420, 520); a second electrode (330, 430, 530); a varistor member (338, 438, 538) captured between and electrically connected with each of the first and second electrodes, wherein the varistor member is formed of a varistor material; and a gas discharge tube, GDT (339, 439, 539), captured and electrically connected between the varistor member and one of the first and second electrodes; characterized in that the modular surge protection device further includes an electrically conductive, meltable member (336, 436, 536), wherein the meltable member is responsive to heat in the modular surge protection device to melt and form a short circuit current flow path through the meltable member, between the first and second electrodes and bypassing the varistor member and the GDT.
A system for generating electric power, comprising: a buffer chamber; a thermal pump coupled to the buffer chamber and to a fluid source; wherein the thermal pump comprises: a first channel to receive a first fluid from the fluid source through a first valve; a second channel to circulate a second fluid through a second valve, wherein the second fluid is circulated in heat exchange relationship with the first fluid to heat the first fluid, at a constant volume of the first fluid and generate a pressurized gas; a third channel for discharging a portion of the pressurized gas to the buffer chamber through a check valve; and a fourth channel for discharging a further portion of the pressurized gas through a third valve; a turboexpander for receiving and expanding the further portion of the pressurized gas from the thermal pump; a generator coupled to the turboexpander and configured to generate the electric power; and a compression device arranged to receive a portion of the first fluid from the fluid source, pressurize the portion of the first fluid, and feed the pressurized portion of the first fluid to the buffer chamber, wherein the first fluid comprises a gaseous medium. a buffer chamber; a thermal pump coupled to the buffer chamber and to a fluid source; wherein the thermal pump comprises: a first channel to receive a first fluid from the fluid source through a first valve; a second channel to circulate a second fluid through a second valve, wherein the second fluid is circulated in heat exchange relationship with the first fluid to heat the first fluid, at a constant volume of the first fluid and generate a pressurized gas; a third channel for discharging a portion of the pressurized gas to the buffer chamber through a check valve; and a fourth channel for discharging a further portion of the pressurized gas through a third valve; a first channel to receive a first fluid from the fluid source through a first valve; a second channel to circulate a second fluid through a second valve, wherein the second fluid is circulated in heat exchange relationship with the first fluid to heat the first fluid, at a constant volume of the first fluid and generate a pressurized gas; a third channel for discharging a portion of the pressurized gas to the buffer chamber through a check valve; and a fourth channel for discharging a further portion of the pressurized gas through a third valve; a turboexpander for receiving and expanding the further portion of the pressurized gas from the thermal pump; a generator coupled to the turboexpander and configured to generate the electric power; and a compression device arranged to receive a portion of the first fluid from the fluid source, pressurize the portion of the first fluid, and feed the pressurized portion of the first fluid to the buffer chamber, wherein the first fluid comprises a gaseous medium.
A cutting apparatus comprising a housing, a blade assembly comprising at least one reciprocatable blade (11, 12) and an eccentric rotor comprising an eccentric (61, 62) associated with each of said at least one reciprocatable blade (11, 12); and an electric motor adapted to drive said eccentric rotor; wherein the apparatus further comprises a planetary gear adapted to transfer motion to the eccentric rotor; wherein the eccentric rotor comprises a shaft having upper and lower shaft portions (64, 65) carrying each of said eccentrics (61, 62) therebetween; characterised in that the eccentric rotor includes a bearing on each of the upper and lower shaft portions (64, 65); and wherein the at least one reciprocatable blade (11, 12), rotor and bearings are formed as a demountable blade unit.
Spring for a spring core unit, the spring comprising a spiral body, and an end ring having a free leg, wherein the free leg of the end ring extends in an essentially straight direction and is provided with at least one V-shaped bending or at least one U-shaped bending, characterized in that the free leg of the end ring of the spring extends in the straight direction such that it does not include a bent end tip portion.
A modular die tool unit for a press brake including: a drive shaft having opposing first and second longitudinal ends (18A, 18B) and a central longitudinal axis (A-A) extending therethrough about which the drive shaft is rotatable; a pair of first and second die jaws (14, 16) each located on opposite sides of the central longitudinal axis, the die jaws being reciprocally movable towards and away from one another relative to the central longitudinal axis; and a means for translating the rotational motion of the drive shaft into the reciprocal motion of the die jaws; characterised in that the modular die tool unit further includes a connecting formation at each of the longitudinal ends of the drive shaft for: (i) coaxially connecting the drive shafts of two or more adjacent modular die tool units end-to-end; and/or (ii) connecting a drive means to the drive shaft of one of the modular die tool units thereby to drive such drive shaft and the other drive shafts connected thereto. a drive shaft having opposing first and second longitudinal ends (18A, 18B) and a central longitudinal axis (A-A) extending therethrough about which the drive shaft is rotatable; a pair of first and second die jaws (14, 16) each located on opposite sides of the central longitudinal axis, the die jaws being reciprocally movable towards and away from one another relative to the central longitudinal axis; and a means for translating the rotational motion of the drive shaft into the reciprocal motion of the die jaws; characterised in that the modular die tool unit further includes a connecting formation at each of the longitudinal ends of the drive shaft for: (i) coaxially connecting the drive shafts of two or more adjacent modular die tool units end-to-end; and/or (ii) connecting a drive means to the drive shaft of one of the modular die tool units thereby to drive such drive shaft and the other drive shafts connected thereto. (i) coaxially connecting the drive shafts of two or more adjacent modular die tool units end-to-end; and/or (ii) connecting a drive means to the drive shaft of one of the modular die tool units thereby to drive such drive shaft and the other drive shafts connected thereto.
A cloth material for marking comprising, in this order: a label cloth formed from a fiber; an intermediate layer comprising a resin having a softening point of 180°C or higher; a transfer adhesive layer comprising a thermoplastic resin having a softening point of 170°C or lower and having a melt flow rate of 100 g/10 min or lower; and a release sheet, wherein the softening point is defined according to a Vicat softening temperature prescribed in JIS K-7206:1999 and the melt flow rate is measured at a temperature of 190°C under a load of 8.76kg according to JIS K-7210 B:1999. a label cloth formed from a fiber; an intermediate layer comprising a resin having a softening point of 180°C or higher; a transfer adhesive layer comprising a thermoplastic resin having a softening point of 170°C or lower and having a melt flow rate of 100 g/10 min or lower; and a release sheet,
A method for chromatographic separation of betaine from a sugar beet based solution, wherein a weakly acid cation exchange resin in H + form is used in the chromatographic separation; wherein betaine is separated from other carboxylic compounds.
A vehicle control device comprising: a first integrated circuit unit for receiving an output from a camera mounted in a vehicle, performing image processing on the output from the camera, and outputting image data obtained through the image processing; a second IC unit for receiving the image data output from the first IC unit, performing recognition processing of an external environment of the vehicle based on the image data, and outputting external environment data obtained through the recognition processing; and a third IC unit for receiving the external environmental data output from the second IC unit, and performing judgment processing for cruise control of the vehicle based on the external environment data, wherein a control flow is provided so as to allow the third IC unit to transmit a control signal to each of the first and second IC units (10A, 20A), characterized in that the control flow is provided separately from a data flow configured to transmit the output from the camera, the image data output from the first IC unit, and the external environment data output from the second IC unit. a first integrated circuit unit for receiving an output from a camera mounted in a vehicle, performing image processing on the output from the camera, and outputting image data obtained through the image processing; a second IC unit for receiving the image data output from the first IC unit, performing recognition processing of an external environment of the vehicle based on the image data, and outputting external environment data obtained through the recognition processing; and a third IC unit for receiving the external environmental data output from the second IC unit, and performing judgment processing for cruise control of the vehicle based on the external environment data, wherein a control flow is provided so as to allow the third IC unit to transmit a control signal to each of the first and second IC units (10A, 20A), characterized in that the control flow is provided separately from a data flow configured to transmit the output from the camera, the image data output from the first IC unit, and the external environment data output from the second IC unit.
A slip-proof clamping system consisting of a wrench and a screw connecting element having recesses for the engagement of the wrench, said wrench being provided with lobes which fit in the recesses for tightening and loosening the screw connecting element, wherein the screw connecting element is a sleeve nut with a cylindrical curved surface and an annular face surface, and the recesses are arranged in the curved surface, characterized in that the recesses (6, 22) extend from the face surface parallel to the axis over part of the curved surface (5, 23), have a depth in the radial direction of approximately half the wall thickness of the nut (1, 21), and, in an outer region connecting to the face surface, have a constant width with flat side walls over approximately half the axial extension of the recess and, in an axially connecting inner region, an enlargement formed by mutually opposing indentations of the side walls, and the wrench (11, 25, 30) has a head (12, 26, 31) which is provided in the axial direction with lobes (14, 28, 32) which can be inserted in the recesses.
A computer-implemented method of performing automated quality control for a three-dimensional printed object comprising: providing a first illumination of the 3D printed object using a first light source arrangement; generating a plurality of images of the 3D printed object using one or more imaging devices, wherein each image of the plurality of images depicts a distinct region of the 3D printed object; processing the plurality of images by a processing device using a machine learning model trained to identify one or more types of manufacturing defects of a 3D printing process, wherein an output of the machine learning model comprises, for each type of manufacturing defect, a probability that an image comprises a defect of that type of manufacturing defect; and determining, by the processing device and without user input, that the 3D printed object comprises one or more manufacturing defects based on a result of the processing, wherein an output of the machine learning model further comprises an indication of a severity of a detected manufacturing defect, and wherein determining that the 3D printed object comprises one or more manufacturing defects comprises determining, based at least in part on the severity of the detected one or more manufacturing defects, whether the one or more manufacturing defects alone or together will degrade a performance of the 3D printed object. providing a first illumination of the 3D printed object using a first light source arrangement; generating a plurality of images of the 3D printed object using one or more imaging devices, wherein each image of the plurality of images depicts a distinct region of the 3D printed object; processing the plurality of images by a processing device using a machine learning model trained to identify one or more types of manufacturing defects of a 3D printing process, wherein an output of the machine learning model comprises, for each type of manufacturing defect, a probability that an image comprises a defect of that type of manufacturing defect; and determining, by the processing device and without user input, that the 3D printed object comprises one or more manufacturing defects based on a result of the processing, wherein an output of the machine learning model further comprises an indication of a severity of a detected manufacturing defect, and wherein determining that the 3D printed object comprises one or more manufacturing defects comprises determining, based at least in part on the severity of the detected one or more manufacturing defects, whether the one or more manufacturing defects alone or together will degrade a performance of the 3D printed object.
A wire saw comprising: a wire cutting member; a plurality of wheels (164, 248, 252, 220) about which the wire cutting member is at least partially wrapped; and an adjustment member coupled to at least one of the plurality of wheels (164, 248, 252) for moving the at least one of the plurality of wheels (164, 248, 252) to adjust a tension of the wire cutting member, wherein the adjustment member is moveable between a first position, in which the wire cutting member has an adequate tension to perform a cutting operation, and a second position, in which the wire cutting member has a reduced tension to facilitate removal of the wire cutting member from the plurality of wheels (164, 248, 252), a first arm member supporting at least one of the plurality of wheels (164, 248, 252); and a second arm member supporting at least one of the plurality of wheels (164, 248, 252), characterized in that each of the first arm member and the second arm member include a first portion and a second portion rotatable relative to each other between a first position, in which the first portion and the second portion are coupled together, and a second position, in which the first portion and the second portion are uncoupled and spaced-apart from one another to provide a gap there between. a wire cutting member; a plurality of wheels (164, 248, 252, 220) about which the wire cutting member is at least partially wrapped; and an adjustment member coupled to at least one of the plurality of wheels (164, 248, 252) for moving the at least one of the plurality of wheels (164, 248, 252) to adjust a tension of the wire cutting member, wherein the adjustment member is moveable between a first position, in which the wire cutting member has an adequate tension to perform a cutting operation, and a second position, in which the wire cutting member has a reduced tension to facilitate removal of the wire cutting member from the plurality of wheels (164, 248, 252), a first arm member supporting at least one of the plurality of wheels (164, 248, 252); and a second arm member supporting at least one of the plurality of wheels (164, 248, 252), characterized in that each of the first arm member and the second arm member include a first portion and a second portion rotatable relative to each other between a first position, in which the first portion and the second portion are coupled together, and a second position, in which the first portion and the second portion are uncoupled and spaced-apart from one another to provide a gap there between.
An illumination structure comprising: a bottom conductor layer; a plurality of vertical light emitting diodes (VLEDs), each of the VLEDs having a bottom electrode electrically contacting the bottom conductor layer, each of the VLEDs having a first transparent conductor layer forming a top electrode; a dielectric material between the VLEDs and overlying the bottom conductor layer but not substantially covering the first transparent conductor layer; and a second transparent conductor layer overlying the dielectric layer and the first transparent conductor layer such that the plurality of VLEDs are electrically connected in parallel and light passes through the first transparent conductor layer and the second transparent conductor layer when the VLEDs are illuminated by a voltage differential between the second transparent conductor layer and the bottom conductor layer, characterised in that the dielectric material has a height above the first transparent layer and has rounded edges, the dielectric material being deposited as a liquid over top surfaces of the VLEDs, wherein the liquid dielectric material pulls off from the top surfaces of the VLEDs by surface tension due to a sacrificial hydrophobic layer over the first transparent conductor layer that is later removed, thus allowing the dielectric material to have a height above the first transparent conductor layer, and causing the dielectric material to have rounded edges. a bottom conductor layer; a plurality of vertical light emitting diodes (VLEDs), each of the VLEDs having a bottom electrode electrically contacting the bottom conductor layer, each of the VLEDs having a first transparent conductor layer forming a top electrode; a dielectric material between the VLEDs and overlying the bottom conductor layer but not substantially covering the first transparent conductor layer; and a second transparent conductor layer overlying the dielectric layer and the first transparent conductor layer such that the plurality of VLEDs are electrically connected in parallel and light passes through the first transparent conductor layer and the second transparent conductor layer when the VLEDs are illuminated by a voltage differential between the second transparent conductor layer and the bottom conductor layer, characterised in that the dielectric material has a height above the first transparent layer and has rounded edges, the dielectric material being deposited as a liquid over top surfaces of the VLEDs, wherein the liquid dielectric material pulls off from the top surfaces of the VLEDs by surface tension due to a sacrificial hydrophobic layer over the first transparent conductor layer that is later removed, thus allowing the dielectric material to have a height above the first transparent conductor layer, and causing the dielectric material to have rounded edges.
A secondary battery having no beaded portion, the secondary battery comprising: an electrode assembly having a cathode plate and an anode plate arranged with a separator being interposed therebetween; a battery case having an upper can configured to accommodate the electrode assembly and an electrolytic solution in an inner space thereof and have an open top and an open bottom, the top of the upper can being bent inwards, and a lower sealing member coupled to the bottom of the upper can to seal the bottom of the upper can; and a cap assembly having a top cap protruding on an uppermost portion thereof to form a cathode terminal, a safety vent located below the top cap and configured to change a shape when an inner pressure of the battery case increases, and a gasket surrounding rims of the top cap and the safety vent, characterized in that the gasket has a protrusion supporting a lower end of the rim of the safety vent upwards, an upper end contacting an inner surface of the bent top of the upper can and a lower end contacting: - an upper surface of the electrode assembly, or - an upper insulation plate provided at an upper portion of the electrode assembly. an electrode assembly having a cathode plate and an anode plate arranged with a separator being interposed therebetween; a battery case having an upper can configured to accommodate the electrode assembly and an electrolytic solution in an inner space thereof and have an open top and an open bottom, the top of the upper can being bent inwards, and a lower sealing member coupled to the bottom of the upper can to seal the bottom of the upper can; and a cap assembly having a top cap protruding on an uppermost portion thereof to form a cathode terminal, a safety vent located below the top cap and configured to change a shape when an inner pressure of the battery case increases, and a gasket surrounding rims of the top cap and the safety vent, characterized in that the gasket has a protrusion supporting a lower end of the rim of the safety vent upwards, an upper end contacting an inner surface of the bent top of the upper can and a lower end contacting: - an upper surface of the electrode assembly, or - an upper insulation plate provided at an upper portion of the electrode assembly. - an upper surface of the electrode assembly, or - an upper insulation plate provided at an upper portion of the electrode assembly.
Control valve of a compressed air system of a vehicle, comprising at least one control piston, which is guided in an axially movable manner in a cylinder which is fixed to the housing, two pressure chambers (32, 34) being separated from one another by means of the control piston, which is sealed by at least one sealing ring (37, 37') arranged on the outer circumference of the control piston (22, 36), characterized in that the sealing ring (37, 37') is in the form of a radial sealing ring having an axial width which substantially corresponds to the axial thickness of the control piston (22, 36), in that the sealing ring (37, 37') has, on the two axial edges thereof, in each case one radially obliquely outwardly directed sealing lip (39, 40) which is in contact with the inner wall of the cylinder, and in that a plurality of guide members (50, 51) which are arranged so as to be distributed over the circumference are formed between the two sealing lips (39, 40) on the sealing ring (37, 37').
(+)-2-((3,4-trans)-4-methyl-1-(pyumidin-2-ylmethyl)pyrrolidin-3-yl)-7-(tetrahydro-2H-pyran-4-yl)imidazo[5,1-f][l,2,4]triazin-4 -one or a pharmaceutically acceptable salt thereof.