mhurhangee/ep-ind-claims huggingface dataset:
A display carrying device for a vehicle comprising: a carrier portion that is configured to receive a display, the carrier portion comprising a front side, a backside, a topside and a bottom side; a mounting portion that is configured to mount the display carrying device to a vehicle panel; a force absorbing portion connecting the carrier portion and the mounting portion and comprising at least two wall elements (18, 20) that extend from the backside of the carrier portion to the mounting portion; wherein the at least two wall elements (18,20) are configured to form at least one hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56) between the carrier portion and the mounting portion, the hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56) being open at the topside and the bottom side of the carrier portion to allow a cooling fluid to flow through the at least one hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56), wherein the at least two wall elements (18,20) of the force absorbing portion are configured to be deformable at least in a normal direction of the front side of the carrier portion upon an impact on the display and are configured to absorb impact energy of the impact; wherein the at least two wall elements (18,20) each comprise at least a portion that extends obliquely to the backside of the carrier portion. a carrier portion that is configured to receive a display, the carrier portion comprising a front side, a backside, a topside and a bottom side; a mounting portion that is configured to mount the display carrying device to a vehicle panel; a force absorbing portion connecting the carrier portion and the mounting portion and comprising at least two wall elements (18, 20) that extend from the backside of the carrier portion to the mounting portion; wherein the at least two wall elements (18,20) are configured to form at least one hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56) between the carrier portion and the mounting portion, the hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56) being open at the topside and the bottom side of the carrier portion to allow a cooling fluid to flow through the at least one hollow space (26, 26c, 38, 40, 42, 51, 52, 54, 56), wherein the at least two wall elements (18,20) of the force absorbing portion are configured to be deformable at least in a normal direction of the front side of the carrier portion upon an impact on the display and are configured to absorb impact energy of the impact; wherein the at least two wall elements (18,20) each comprise at least a portion that extends obliquely to the backside of the carrier portion.
A lubricating mechanism for a machine arrangement, comprising: a lubricating track, and an infeed mechanism configured to supply articles to be processed to the machine arrangement, wherein the lubricating track includes: an outer guide member configured to contact open ends of the articles, the outer guide member comprising a lubricant passage or chamber; and at least one opening in the outer guide member for passage of lubricant from the outer guide member to a lubrication path configured to be in contact with the articles in the lubricating track to apply the lubricant to the articles; and a starwheel with a plurality of pockets for holding the articles, wherein the articles to be lubricated are located in separate pockets of the starwheel, wherein the lubricating mechanism is coupled to or adjacent the starwheel such that the articles located in the plurality of pockets of the starwheel receive lubrication from the lubricating track, wherein the lubricating mechanism is configured so that the articles rotate within their respective pockets and on guide members (510,610) when passing through the lubrication track, and characterised in that the starwheel comprises air passages to provide air flow to the plurality of pockets to rotate the articles in the plurality of pockets. a lubricating track, and an infeed mechanism configured to supply articles to be processed to the machine arrangement, wherein the lubricating track includes: an outer guide member configured to contact open ends of the articles, the outer guide member comprising a lubricant passage or chamber; and at least one opening in the outer guide member for passage of lubricant from the outer guide member to a lubrication path configured to be in contact with the articles in the lubricating track to apply the lubricant to the articles; and an outer guide member configured to contact open ends of the articles, the outer guide member comprising a lubricant passage or chamber; and at least one opening in the outer guide member for passage of lubricant from the outer guide member to a lubrication path configured to be in contact with the articles in the lubricating track to apply the lubricant to the articles; and a starwheel with a plurality of pockets for holding the articles, wherein the articles to be lubricated are located in separate pockets of the starwheel, wherein the lubricating mechanism is coupled to or adjacent the starwheel such that the articles located in the plurality of pockets of the starwheel receive lubrication from the lubricating track, wherein the lubricating mechanism is configured so that the articles rotate within their respective pockets and on guide members (510,610) when passing through the lubrication track, and characterised in that the starwheel comprises air passages to provide air flow to the plurality of pockets to rotate the articles in the plurality of pockets.
A ferrite-rod antenna comprising a ferrite core having a first ferrite core portion, a second ferrite core portion and a third ferrite core portion, said first ferrite core portion and said third ferrite core portion being spaced apart from each other by said second ferrite core portion, and a first winding disposed above said first ferrite core portion and/or said third ferrite core portion and defining a first winding axis, and a second winding disposed above said second ferrite core portion and defining a second winding axis which is not parallel to said first winding axis, wherein the ferrite core at the second ferrite core portion is at least partially tapered relative to the first and third ferrite core portions (3, 7) in at least one direction, wherein the ferrite core at the second ferrite core portion has a small dimension in a direction parallel to the first winding axis relative to the first and third ferrite core portions (3, 7), wherein the ferrite core has an elongated shape defining a longitudinal direction, and a dimension of the second ferrite core portion along the longitudinal direction is smaller than a dimension of the first ferrite core portion along the longitudinal direction and/or a dimension of the third ferrite core portion along the longitudinal direction, wherein the first and third ferrite core portions (3, 7) are spaced apart from each other by the second ferrite core portion along a connecting direction perpendicular to the longitudinal direction of the first and third ferrite core portions (3, 7), wherein a dimension of the second ferrite core portion in a width direction perpendicular to the longitudinal direction and perpendicular to the connecting direction is smaller than or equal to a smallest dimension among dimensions of the first and third ferrite core portions (3, 7) in their respective width directions, and wherein said second ferrite core portion has a cylindrical shape, said first and third ferrite core portions (3, 7) are disposed on opposite end faces of said second ferrite core portion, and said second winding is disposed over a part of a circumferential surface of said second ferrite core portion.
A hydraulic damper assembly comprising: a housing extending about and along an axis and defining an interior wall and a chamber (26, 28) for holding a fluid; a piston assembly disposed in said chamber (26, 28) and axially moveable therein; said piston assembly including a core; a wear band disposed about said core and having an inside surface and an outside surface; characterized in that said inside surface of said wear band defines at least one groove in fluid communication with said chamber (26, 28) for allowing the fluid to bias said wear band toward said interior wall of said housing during the passage of the fluid through said at least one groove during the movement of said piston assembly, wherein said at least one groove is defined by a pair of spaced edge walls and a bottom surface disposed between said spaced edge walls, and said wear band defines at least one gap extending between first and second ends (74, 76) of said wear band and defining a pair of edges in spaced relationship with one another, and wherein said at least one groove is spaced from said at least one gap. a housing extending about and along an axis and defining an interior wall and a chamber (26, 28) for holding a fluid; a piston assembly disposed in said chamber (26, 28) and axially moveable therein; said piston assembly including a core; a wear band disposed about said core and having an inside surface and an outside surface; characterized in that said inside surface of said wear band defines at least one groove in fluid communication with said chamber (26, 28) for allowing the fluid to bias said wear band toward said interior wall of said housing during the passage of the fluid through said at least one groove during the movement of said piston assembly, wherein said at least one groove is defined by a pair of spaced edge walls and a bottom surface disposed between said spaced edge walls, and said wear band defines at least one gap extending between first and second ends (74, 76) of said wear band and defining a pair of edges in spaced relationship with one another, and wherein said at least one groove is spaced from said at least one gap.
Method for calibrating a cleaning device, wherein the cleaning device has at least one sensor for detecting at least one state variable, characterized in that the method comprises the following steps: a) carrying out a calibration measurement, wherein by means of at least one calibration sensor independently of the sensor of the cleaning device the at least one state variable is detected and at least one reference value is determined; b) establishing an electronic connection between the calibration sensor and a controller of the cleaning device, and electronically transmitting the reference value to the controller; and c) comparing the reference value with at least one measurement value of the sensor of the cleaning device and adjusting at least one correction function in accordance with the comparison, wherein future measurement values of the sensor of the cleaning device are automatically corrected using the correction function. a) carrying out a calibration measurement, wherein by means of at least one calibration sensor independently of the sensor of the cleaning device the at least one state variable is detected and at least one reference value is determined; b) establishing an electronic connection between the calibration sensor and a controller of the cleaning device, and electronically transmitting the reference value to the controller; and c) comparing the reference value with at least one measurement value of the sensor of the cleaning device and adjusting at least one correction function in accordance with the comparison, wherein future measurement values of the sensor of the cleaning device are automatically corrected using the correction function.
An oil separator for separating refrigeration oil contained in refrigerant from the refrigerant, the oil separator comprising: a separation container forming a separation chamber; an inlet pipe of the refrigerant, the inlet pipe communicating with the separation container; an outlet pipe of the refrigerant, the outlet pipe communicating with the separation container; an oil reservoir provided in the separation container and configured to store the refrigeration oil; a liquid passage section provided with a groove, the liquid passage section being disposed inside the separation container and configured to guide the refrigeration oil contained in the refrigerant to the oil reservoir; and an oil return pipe attached to the separation container and communicating with the oil reservoir, characterized in that the liquid passage section has the groove that is formed to be gradually increased in depth from an upper portion of the groove toward a lower portion of the groove. a separation container forming a separation chamber; an inlet pipe of the refrigerant, the inlet pipe communicating with the separation container; an outlet pipe of the refrigerant, the outlet pipe communicating with the separation container; an oil reservoir provided in the separation container and configured to store the refrigeration oil; a liquid passage section provided with a groove, the liquid passage section being disposed inside the separation container and configured to guide the refrigeration oil contained in the refrigerant to the oil reservoir; and an oil return pipe attached to the separation container and communicating with the oil reservoir, characterized in that the liquid passage section has the groove that is formed to be gradually increased in depth from an upper portion of the groove toward a lower portion of the groove.
Hydrodynamic machine, in particular hydrodynamic retarder, with a vaned primary wheel and a vaned secondary wheel, which together form a toroidal working chamber that can be filled with a working medium in order to form therein a hydrodynamic circuit flow for transmission of a drive moment; wherein at least one of the two vaned wheels (1, 2) is driven by a drive shaft of the hydrodynamic machine via a rotary axis; 1.1 with a side channel pump comprising a pump impeller with a plurality of pump vanes (9.1) and a channel running in the circumferential direction of the pump impeller, with an inlet end and an outlet end, wherein the pump vanes (9.1) are arranged in or relative to the channel such that on rotation of the pump impeller, a delivery effect is generated in the channel such that at the inlet end a suction effect and at the outlet end a pressure effect is generated; and 1.2 the inlet end or outlet end is in working-medium-conductive connection with the working chamber; characterized in that 1.3 the pump impeller is radially mounted, axially moveably and/or angularly tiltably, rotationally fixedly on the drive shaft. 1.1 with a side channel pump comprising a pump impeller with a plurality of pump vanes (9.1) and a channel running in the circumferential direction of the pump impeller, with an inlet end and an outlet end, wherein the pump vanes (9.1) are arranged in or relative to the channel such that on rotation of the pump impeller, a delivery effect is generated in the channel such that at the inlet end a suction effect and at the outlet end a pressure effect is generated; and 1.2 the inlet end or outlet end is in working-medium-conductive connection with the working chamber; characterized in that 1.3 the pump impeller is radially mounted, axially moveably and/or angularly tiltably, rotationally fixedly on the drive shaft.
A method for locating a network fault, wherein the method comprises: obtaining a first Transmission Control Protocol TCP throughput, on a first network device, of a first video stream sent by a head-end device, and a second TCP throughput, on a second network device, of a second video stream sent by the head-end device, wherein content of the first video stream is the same as that of the second video stream, a destination Internet Protocol IP address of the first video stream is an IP address of the first network device, a destination IP address of the second video stream is an IP address of the second network device, and the second video stream is sent to the second network device through the first network device; and determining a location of the video network fault based on the first TCP throughput and the second TCP throughput. obtaining a first Transmission Control Protocol TCP throughput, on a first network device, of a first video stream sent by a head-end device, and a second TCP throughput, on a second network device, of a second video stream sent by the head-end device, wherein content of the first video stream is the same as that of the second video stream, a destination Internet Protocol IP address of the first video stream is an IP address of the first network device, a destination IP address of the second video stream is an IP address of the second network device, and the second video stream is sent to the second network device through the first network device; and determining a location of the video network fault based on the first TCP throughput and the second TCP throughput.
A brushless electric motor which uses pulse width modulation, comprising: a stator including a stator steel core around which a coil is wound, wherein the stator steel core is molded with an insulating resin, wherein the coil is driven by an inverter of the pulse width modulation; a rotor which includes a rotating body and a shaft that fastens the rotating body so as to penetrate the center of the rotating body; a bearing having a plurality of steel balls, an outer ring and an inner ring for supporting the shaft; and a bracket being made of metal for fixing the outer ring of the bearing, characterized in that the bracket is electrically insulated from the stator steel core by the insulating resin; the rotor includes only a single shaft that fastens the rotating body; the rotating body is of an annular shape and is formed of a permanent magnet along a circumferential direction to face the stator, an outer steel core forming an outer periphery of a rotor steel core, a dielectric layer, and an inner steel core (31 b) forming an inner periphery of the rotor steel core, wherein the permanent magnet, the outer steel core (31 a) and the inner steel core (31 b) form a concentric arrangement, wherein the permanent magnet surrounds the outer steel core and the inner steel core (31 b); and the dielectric layer is provided between the inner steel core (31 b) and the outer steel core of the rotating body so that the outer steel core, the dielectric layer and the inner steel core (31 b) are placed in this order from a radial outer rim of the rotating body radially inwards to the shaft. a stator including a stator steel core around which a coil is wound, wherein the stator steel core is molded with an insulating resin, wherein the coil is driven by an inverter of the pulse width modulation; a rotor which includes a rotating body and a shaft that fastens the rotating body so as to penetrate the center of the rotating body; a bearing having a plurality of steel balls, an outer ring and an inner ring for supporting the shaft; and a bracket being made of metal for fixing the outer ring of the bearing,
A shoe sole comprising: a sole member having a first layer of material overlying a second layer of material, the first and second layers of material including first and second surfaces, respectively, wherein the second surface of the first layer of material is attached to the first surface of the second layer of material along at least portions of a length of the first surface; a plurality of lugs extending along a longitudinal axis of the sole member, wherein the first and second layers of material form a solid body with the first layer of material being harder than the second layer of material, wherein each of the plurality of lugs is isolated from adjacent lugs so as to be independently compressible; and an outsole engaged to the second layer of material along at least a portion of its second surface, wherein the plurality of lugs form a lateral-to-medial wave pattern across the sole member. a sole member having a first layer of material overlying a second layer of material, the first and second layers of material including first and second surfaces, respectively, wherein the second surface of the first layer of material is attached to the first surface of the second layer of material along at least portions of a length of the first surface; a plurality of lugs extending along a longitudinal axis of the sole member, wherein the first and second layers of material form a solid body with the first layer of material being harder than the second layer of material, wherein each of the plurality of lugs is isolated from adjacent lugs so as to be independently compressible; and an outsole engaged to the second layer of material along at least a portion of its second surface, wherein the plurality of lugs form a lateral-to-medial wave pattern across the sole member.
A polyp encapsulation device, characterized in that it comprises: a wire loop snare providing a wire loop electrode; a pouch having a closed end and an open end, the wire loop electrode providing a longitudinal slot configured to allow longitudinal movement of a pouch edge while concurrently resisting pullout of the pouch material, i.e. undesired movement of the pouch material in a direction orthogonal to the longitudinal axis of the electrosurgical electrode; wherein the open end is slidably captured within the longitudinal slot, the pouch being constructed from a material having heat-shrink properties, wherein the shrinkable pouch is formed from a material which is electrically non-conductive. a wire loop snare providing a wire loop electrode; a pouch having a closed end and an open end, the wire loop electrode providing a longitudinal slot configured to allow longitudinal movement of a pouch edge while concurrently resisting pullout of the pouch material, i.e. undesired movement of the pouch material in a direction orthogonal to the longitudinal axis of the electrosurgical electrode; wherein the open end is slidably captured within the longitudinal slot, the pouch being constructed from a material having heat-shrink properties, wherein the shrinkable pouch is formed from a material which is electrically non-conductive.