mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor, comprising: a casing comprising a rotational shaft; a cover fixed inside of the casing to partition an inner space of the casing into a suction space and a discharge space; a first scroll that is revolved by rotation of the rotational shaft; a second scroll disposed on or at one side of the first scroll to define a compression chamber together with the first scroll, wherein the second scroll comprises a discharge hole through which a refrigerant compressed in the compression chamber is discharged; a switching device movably disposed on or at one side of the discharge hole to selectively open and close the discharge hole; a back pressure portion comprising a moving guide that accommodates at least a portion of the switching device and a top surface that covers one side of the switching device; an adhesion preventer to reduce a contact area between the switching device and at least a portion of the back pressure portion; a discharge pressure apply hole that is defined in the top surface and applies a pressure of the discharge space to the switching device to allow the switching device to move; and an intermediate discharge hole that communicates with the discharge hole to discharge the refrigerant discharged from the discharge hole toward the cover, characterized by further comprising: a protrusion that protrudes from the top surface to surround the discharge pressure apply hole to restrict introduction of the refrigerant flowing through the intermediate discharge hole into the discharge pressure apply hole. a casing comprising a rotational shaft; a cover fixed inside of the casing to partition an inner space of the casing into a suction space and a discharge space; a first scroll that is revolved by rotation of the rotational shaft; a second scroll disposed on or at one side of the first scroll to define a compression chamber together with the first scroll, wherein the second scroll comprises a discharge hole through which a refrigerant compressed in the compression chamber is discharged; a switching device movably disposed on or at one side of the discharge hole to selectively open and close the discharge hole; a back pressure portion comprising a moving guide that accommodates at least a portion of the switching device and a top surface that covers one side of the switching device; an adhesion preventer to reduce a contact area between the switching device and at least a portion of the back pressure portion; a discharge pressure apply hole that is defined in the top surface and applies a pressure of the discharge space to the switching device to allow the switching device to move; and an intermediate discharge hole that communicates with the discharge hole to discharge the refrigerant discharged from the discharge hole toward the cover, characterized by further comprising: a protrusion that protrudes from the top surface to surround the discharge pressure apply hole to restrict introduction of the refrigerant flowing through the intermediate discharge hole into the discharge pressure apply hole.
A gripping device mounted on a movable robot arm for the automated mounting and insertion, through a respective mounting opening of a contact carrier, of at least one first contact element that is connected to a first wire and one second contact element that is connected to a second wire in adjacently arranged contact chambers, wherein a first, front gripper as viewed in the direction of insertion and a second, rear gripper that is offset relative thereto are provided on the gripping device, each having a gripper portion for simultaneously gripping the wires, the rear gripper having at least one gripper portion whose height can be changed relative to the front gripper or which can be offset relative thereto in the vertical direction.
A balloon catheter and stent delivery system comprising: a shaft having a proximal end and a distal end a hub at the proximal end of the shaft a balloon at or near the distal end of the shaft the shaft defining an inflation lumen extending from a proximal inflation port defined by the hub to an interior of the balloon, and a guidewire lumen extending from a proximal guidewire port at an intermediate position between the proximal end of the shaft and the distal end of the shaft to a distal guidewire port at the distal end of the shaft; the shaft including a hypotube (48, 54, 58) which extends from the hub to a position near a proximal seal of the balloon; the hypotube (48, 54, 58) having a cut pattern (56, 60) over a portion of its distal length defining a cut pattern portion; the proximal guidewire port being positioned in the cut pattern portion, characterised in that a heat-shrink polymer is placed over at least the length of the hypotube (48, 54, 58) in the cut pattern portion, excluding the proximal guidewire port, and serves as a fluid-tight seal for the inflation lumen and, the proximal guidewire port is positioned between adjacent cuts (56, 60) of the cut pattern portion. a shaft having a proximal end and a distal end a hub at the proximal end of the shaft a balloon at or near the distal end of the shaft the shaft defining an inflation lumen extending from a proximal inflation port defined by the hub to an interior of the balloon, and a guidewire lumen extending from a proximal guidewire port at an intermediate position between the proximal end of the shaft and the distal end of the shaft to a distal guidewire port at the distal end of the shaft; the shaft including a hypotube (48, 54, 58) which extends from the hub to a position near a proximal seal of the balloon; the hypotube (48, 54, 58) having a cut pattern (56, 60) over a portion of its distal length defining a cut pattern portion; the proximal guidewire port being positioned in the cut pattern portion, characterised in that a heat-shrink polymer is placed over at least the length of the hypotube (48, 54, 58) in the cut pattern portion, excluding the proximal guidewire port, and serves as a fluid-tight seal for the inflation lumen and, the proximal guidewire port is positioned between adjacent cuts (56, 60) of the cut pattern portion.
A composite sheet comprising a flat lower fibrous sheet and an upper fibrous sheet bonded to the lower fibrous sheet, the upper fibrous sheet being three-dimensionally textured with a number of hollow projections and a number of * depression each of which is located between every adjacent two of the projections, the projections and the depressions alternating in a first direction of the composite sheet and in a second direction perpendicular to the first direction, the projections each having a pair of opposing first walls parallel to the first direction, a pair of opposing second walls parallel to the second direction, and a top plane connected to the upper edge of each first wall and the upper edge of each second wall, and the basis weight of each first wall being different from that of each second wall.
A method of manufacturing a wet shaving cartridge comprising: providing a housing having a guard with a top surface bowed in an upward direction from a pair of lateral end portions toward a mid- line of the guard; mounting at least one blade in the housing; bending the blade about a portion of the housing; characterized by the step of securing the blade to the housing comprising mounting a clip over the blade and securing the clip to the housing. providing a housing having a guard with a top surface bowed in an upward direction from a pair of lateral end portions toward a mid- line of the guard; mounting at least one blade in the housing; bending the blade about a portion of the housing; characterized by the step of securing the blade to the housing comprising mounting a clip over the blade and securing the clip to the housing.
A multilayer electronics assembly, comprising: a plurality of stacked substrate layers, each of the plurality of substrate layers fusion bonded to at least an adjacent one of the plurality of substrate layers; a first discrete electrical circuit component bonded to a first layer of the plurality of layers using a bonding material interposed between the discrete electrical circuit component and the first layer and forming an interfacial solder joint having a reflow temperature > 900 °C, the reflow temperature at which the bonding material becomes flowable being higher than each of an initial flow temperature of the bonding material and a fusion bonding temperature of the substrate layers, the initial flow temperature of the bonding material being the temperature at which the bonding material became flowable to bond the discrete electrical circuit component and the first layer prior to fusion bonding of the substrate layers; a plurality of vent holes configured to operably allow gases to escape during a bonding of the first discrete electrical component and the first layer. a plurality of stacked substrate layers, each of the plurality of substrate layers fusion bonded to at least an adjacent one of the plurality of substrate layers; a first discrete electrical circuit component bonded to a first layer of the plurality of layers using a bonding material interposed between the discrete electrical circuit component and the first layer and forming an interfacial solder joint having a reflow temperature > 900 °C, the reflow temperature at which the bonding material becomes flowable being higher than each of an initial flow temperature of the bonding material and a fusion bonding temperature of the substrate layers, the initial flow temperature of the bonding material being the temperature at which the bonding material became flowable to bond the discrete electrical circuit component and the first layer prior to fusion bonding of the substrate layers; a plurality of vent holes configured to operably allow gases to escape during a bonding of the first discrete electrical component and the first layer.
A shoe member consisting of a material comprising a thermoplastic elastomer, wherein the material has a glass transition temperature Tg of no more than 10°C, for determination of glass transition temperature using a test of dynamic viscoelasticity according to JIS K 6394 2007, a loss tangent tan δ of no less than 0.4, for determination of loss tangent tan δ in a test of dynamic viscoelasticity according to JIS K 6394 2007, and a Δ tan δ, which is the amount of change of tan δ, of no less than 0.15 when strain is changed from 5% to 100%, for determination of Δ tan δ in a test of viscoelasticity according to JIS K 6394 2007. the material has a glass transition temperature Tg of no more than 10°C, for determination of glass transition temperature using a test of dynamic viscoelasticity according to JIS K 6394 2007, a loss tangent tan δ of no less than 0.4, for determination of loss tangent tan δ in a test of dynamic viscoelasticity according to JIS K 6394 2007, and a Δ tan δ, which is the amount of change of tan δ, of no less than 0.15 when strain is changed from 5% to 100%, for determination of Δ tan δ in a test of viscoelasticity according to JIS K 6394 2007.
A wireless communication system for a train comprising windowpanes, each windowpane comprising a heat resistant, metallised layer, the system comprising: a plurality of antennas arranged on the train; at least one router in the train for receiving and transmitting wireless data communication to and from a stationary communication server outside said train through at least one exterior mobile network via said plurality of antennas; wherein the antennas are window antennas, arranged integrated in or connected to the windowpanes of the train, and wherein the window antennas are arranged in at least one of the following ways: - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layers; - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layer, and with additional heat resistant layers arranged behind the antennas, and covering the limited areas not being provided with the heat resistant, metallized layers; and - the window antennas are provided in layers outside the heat resistant, metallized layers in the windowpanes. a plurality of antennas arranged on the train; at least one router in the train for receiving and transmitting wireless data communication to and from a stationary communication server outside said train through at least one exterior mobile network via said plurality of antennas; wherein the antennas are window antennas, arranged integrated in or connected to the windowpanes of the train, and wherein the window antennas are arranged in at least one of the following ways: - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layers; - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layer, and with additional heat resistant layers arranged behind the antennas, and covering the limited areas not being provided with the heat resistant, metallized layers; and - the window antennas are provided in layers outside the heat resistant, metallized layers in the windowpanes. - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layers; - the window antennas are arranged in limited areas of the windowpanes not being provided with heat resistant, metallized layer, and with additional heat resistant layers arranged behind the antennas, and covering the limited areas not being provided with the heat resistant, metallized layers; and - the window antennas are provided in layers outside the heat resistant, metallized layers in the windowpanes.
A method of forming a tube, the method comprising: moving a material in a feed direction into a curving device (408, 502), the material having a first discrete section abutting a second discrete section along a separation plane intersecting the material, the first discrete section and the second discrete section having the same thickness at the separation plane and each having a varying thickness in the feed direction, wherein the material moved into the curving device (408, 502) is a planar strip of metal; as the material intersected by the separation plane moves through the curving device (408, 502), forming the material into a first cylinder having a spiral seam intersected by the separation plane; joining the first discrete section to itself and to the second discrete section along the spiral seam; and severing the first discrete section from the second discrete section along the separation plane intersecting the spiral seam along a position at which the first discrete section is joined to the second discrete section. moving a material in a feed direction into a curving device (408, 502), the material having a first discrete section abutting a second discrete section along a separation plane intersecting the material, the first discrete section and the second discrete section having the same thickness at the separation plane and each having a varying thickness in the feed direction, wherein the material moved into the curving device (408, 502) is a planar strip of metal; as the material intersected by the separation plane moves through the curving device (408, 502), forming the material into a first cylinder having a spiral seam intersected by the separation plane; joining the first discrete section to itself and to the second discrete section along the spiral seam; and severing the first discrete section from the second discrete section along the separation plane intersecting the spiral seam along a position at which the first discrete section is joined to the second discrete section.
A method for producing an LGPS-type solid electrolyte, which comprises: a solution-making step for preparing a homogeneous solution by mixing and reacting Li 2 S and P 2 S 5 in an organic solvent such that the molar ratio of Li 2 S/P 2 S 5 is 1.0 to 1.85, wherein the organic solvent is selected from an ether-based solvent, an ester-based solvent, a hydrocarbon-based solvent and a nitrile-based solvent; a precipitation step for forming a precipitate by adding, to the homogeneous solution, at least one MS 2 (M is selected from the group consisting of Ge, Si and Sn) and Li 2 S and then mixing; a drying step for obtaining a precursor by removing the organic solvent from the precipitate; and a heat treatment step for obtaining the LGPS-type solid electrolyte by heating the precursor at 200 to 700°C. a solution-making step for preparing a homogeneous solution by mixing and reacting Li 2 S and P 2 S 5 in an organic solvent such that the molar ratio of Li 2 S/P 2 S 5 is 1.0 to 1.85, wherein the organic solvent is selected from an ether-based solvent, an ester-based solvent, a hydrocarbon-based solvent and a nitrile-based solvent; a precipitation step for forming a precipitate by adding, to the homogeneous solution, at least one MS 2 (M is selected from the group consisting of Ge, Si and Sn) and Li 2 S and then mixing; a drying step for obtaining a precursor by removing the organic solvent from the precipitate; and a heat treatment step for obtaining the LGPS-type solid electrolyte by heating the precursor at 200 to 700°C.
An ink jet printer, comprising: a substrate support table; a printhead coupled to a traveller disposed over the substrate support, the printhead comprising a plurality of nozzles; an image capture device positioned to capture an image of a portion of the substrate and a controller configured to: control the substrate support table to relatively position the substrate and the image capture device for imaging a feature on the substrate; control the image capture device to capture an image of the feature on the substrate; determine a position of the feature on the substrate from the captured image; detect a substrate error dependent on the position of the feature and a predetermined position; receive data defining where a layer is to be printed on the substrate; generate adjusted data from the received data based on the substrate error; and determine firing instructions for the nozzles to print the layer according to the adjusted data. a substrate support table; a printhead coupled to a traveller disposed over the substrate support, the printhead comprising a plurality of nozzles; an image capture device positioned to capture an image of a portion of the substrate and a controller configured to: control the substrate support table to relatively position the substrate and the image capture device for imaging a feature on the substrate; control the image capture device to capture an image of the feature on the substrate; determine a position of the feature on the substrate from the captured image; detect a substrate error dependent on the position of the feature and a predetermined position; receive data defining where a layer is to be printed on the substrate; generate adjusted data from the received data based on the substrate error; and determine firing instructions for the nozzles to print the layer according to the adjusted data. control the substrate support table to relatively position the substrate and the image capture device for imaging a feature on the substrate; control the image capture device to capture an image of the feature on the substrate; determine a position of the feature on the substrate from the captured image; detect a substrate error dependent on the position of the feature and a predetermined position; receive data defining where a layer is to be printed on the substrate; generate adjusted data from the received data based on the substrate error; and determine firing instructions for the nozzles to print the layer according to the adjusted data.
Promoter comprising the nucleic acid sequence SEQ ID NO:1, in which a fragment starting from position A and ending at position B of said sequence SEQ ID NO:1 has been substituted by a fragment of the hEF1α promoter comprising at least the TATA box, wherein position A is comprised between nucleotides 521 and 555 of SEQ ID NO:1, and position B is comprised between nucleotides 560 and 587 of SEQ ID NO:1, and wherein the fragment consisting of nucleotides 598 to 607 of SEQ ID NO:1 may be present or absent, wherein the fragment of the hEF1α promoter comprising at least the TATA box is chosen from sequences SEQ ID NO:2, 3 and 4.
Method for operating a passive access system for a vehicle, wherein an onboard transmitting device (3a, 3b, 3c) for transmitting wireless low-frequency electromagnetic signals and an onboard transceiver device for wireless high-frequency electromagnetic signals are arranged on the vehicle, and wherein a mobile vehicle key (8a, 8b) with a key-receiver device for wireless low-frequency electromagnetic signals and a key transceiver device for wireless high-frequency electromagnetic signals are provided, wherein at least one sensor device is arranged on the vehicle for detecting an approach to a vehicle door by a user, comprising the steps of placing the sensor device on the vehicle in a passive, non-sensing state with reduced energy requirement, scanning the area surrounding the vehicle by emitting repeated wake-up signals (4a, 4b, 4c) with the onboard transmitting device (3a, 3b, 3c) for transmitting wireless low-frequency electromagnetic signals, receiving the wake-up signal in the mobile vehicle key with the key receiver device for wireless low-frequency electromagnetic signals and initiating of a verification dialogue between the key transceiver device for wireless high-frequency electromagnetic signals and the onboard transceiver device for wireless high frequency electromagnetic signals, placing the sensor device on the vehicle in an active, sensing-enabled operating state depending on the verification dialogue, wherein the sensing device on the vehicle is switched from the active state to the passive, sensing-disabled state with reduced energy requirement again if no actuation is sensed for a predefined period of time.