mhurhangee/ep-ind-claims huggingface dataset:
A battery, comprising: a conductive substrate configured as an exterior member of the battery, the conductive substrate including a first resin layer, a barrier layer, a second resin layer, a first electrode current collector layer, and a first electrode coating layer that are sequentially stacked inward from an outermost side of the battery, wherein the barrier layer is made of a conductive metal and the second resin layer includes a plurality of conducting portions that allows electrical conduction between the barrier layer and the first electrode current collector layer; an exterior member disposed to face the conductive substrate, wherein the exterior member comprises a structure in which an outer resin layer, a metal layer, and an inner resin layer are sequentially stacked; a sealing portion formed at edges of surfaces of the first resin layer or second resin layer of the conductive substrate and the exterior member, wherein the surfaces face each other; at least one first inner electrode positioned between the conductive substrate and the exterior member; and a separator positioned between the first inner electrode and the conductive substrate, wherein the first resin layer and the second resin layer are made of the same material that includes one or more of polyimide, polyetheretherketone (PEEK), polyethersulfone, polyetherimide, polycarbonate, or polyethylene terephthalate, and wherein the sealing portion is formed of a material having the same heat expansion rate as that of the first resin layer and the second resin layer. a conductive substrate configured as an exterior member of the battery, the conductive substrate including a first resin layer, a barrier layer, a second resin layer, a first electrode current collector layer, and a first electrode coating layer that are sequentially stacked inward from an outermost side of the battery, wherein the barrier layer is made of a conductive metal and the second resin layer includes a plurality of conducting portions that allows electrical conduction between the barrier layer and the first electrode current collector layer; an exterior member disposed to face the conductive substrate, wherein the exterior member comprises a structure in which an outer resin layer, a metal layer, and an inner resin layer are sequentially stacked; a sealing portion formed at edges of surfaces of the first resin layer or second resin layer of the conductive substrate and the exterior member, wherein the surfaces face each other; at least one first inner electrode positioned between the conductive substrate and the exterior member; and a separator positioned between the first inner electrode and the conductive substrate, wherein the first resin layer and the second resin layer are made of the same material that includes one or more of polyimide, polyetheretherketone (PEEK), polyethersulfone, polyetherimide, polycarbonate, or polyethylene terephthalate, and wherein the sealing portion is formed of a material having the same heat expansion rate as that of the first resin layer and the second resin layer.
Use of an absorbent composition in the form of granules, for the removal of impurities present in natural gas, refinery gas, biogases, and other liquid or gaseous fluids containing hydrocarbons contaminated by sulfur-based compounds, comprised of iron oxide and/or hydroxide, a binder and/or a lubricant, water, and optionally promoter additives, containing active carbon in a proportion of from 0.5% to 50% by weight, based on the weight of the final composition, wherein the same exhibits a specific area relationship between the active carbon and the iron oxide and/or hydroxide of between 2.5 and 600, having a mechanical strength value higher than 9.81 N (1 kgf), maintaining the physical integrity thereof prior to and after becoming saturated with impurities.
A method of cooling a boil off gas stream from a liquefied ethane cargo in a floating transportation vessel, said method comprising at least the steps of: compressing a boil off gas stream from said liquefied ethane cargo in two or more stages of compression comprising at least a first stage and a final stage to provide a compressed BOG discharge stream, wherein said first stage of compression has a first stage discharge pressure and said final stage of compression has a final stage suction pressure, and one or more intermediate, optionally cooled, compressed BOG streams (02, 03, 04) are provided between consecutive stages of compression; cooling the compressed BOG discharge stream against one or more first coolant streams (202, 302) to provide a first cooled compressed BOG stream; cooling the first cooled compressed BOG stream against at least one second coolant stream to provide a second cooled compressed BOG stream; cooling the second cooled compressed BOG stream against a third coolant stream to provide a third cooled compressed BOG stream; characterised in that the method further comprises at least the steps of; expanding a portion of the third cooled compressed BOG stream to a pressure between that of the first stage discharge pressure and the final stage suction pressure to provide a first expanded cooled BOG stream; using the first expanded cooled BOG stream as the third coolant stream to provide a first expanded heated BOG stream; and using the first expanded heated BOG stream as the or a second coolant stream. compressing a boil off gas stream from said liquefied ethane cargo in two or more stages of compression comprising at least a first stage and a final stage to provide a compressed BOG discharge stream, wherein said first stage of compression has a first stage discharge pressure and said final stage of compression has a final stage suction pressure, and one or more intermediate, optionally cooled, compressed BOG streams (02, 03, 04) are provided between consecutive stages of compression; cooling the compressed BOG discharge stream against one or more first coolant streams (202, 302) to provide a first cooled compressed BOG stream; cooling the first cooled compressed BOG stream against at least one second coolant stream to provide a second cooled compressed BOG stream; cooling the second cooled compressed BOG stream against a third coolant stream to provide a third cooled compressed BOG stream; characterised in that the method further comprises at least the steps of; expanding a portion of the third cooled compressed BOG stream to a pressure between that of the first stage discharge pressure and the final stage suction pressure to provide a first expanded cooled BOG stream; using the first expanded cooled BOG stream as the third coolant stream to provide a first expanded heated BOG stream; and using the first expanded heated BOG stream as the or a second coolant stream.
A crimping tool comprising: a mandrel having a first portion having a first outer diameter, and a second portion having a second outer diameter which is greater than the first outer diameter; characterised in that a chamfered abutment face is provided between the first and second portions (3,5) and that the tool further comprises: at least one first collar mountable on the first portion of the mandrel and having a chamfered first end which in use abuts the abutment face; and at least one second collar mountable on the second portion of the mandrel and having a chamfered second end which in use abuts the first end. a mandrel having a first portion having a first outer diameter, and a second portion having a second outer diameter which is greater than the first outer diameter; characterised in that a chamfered abutment face is provided between the first and second portions (3,5) and that the tool further comprises: at least one first collar mountable on the first portion of the mandrel and having a chamfered first end which in use abuts the abutment face; and at least one second collar mountable on the second portion of the mandrel and having a chamfered second end which in use abuts the first end. at least one first collar mountable on the first portion of the mandrel and having a chamfered first end which in use abuts the abutment face; and at least one second collar mountable on the second portion of the mandrel and having a chamfered second end which in use abuts the first end.
Hearing aid system, wherein the hearing aid system has: - a first and a second hearing aid (110, 110'), wherein the first hearing aid has a first acousto-electric converter and the second hearing aid has a second acousto-electric converter and the converters (2, 2') are designed to convert incoming acoustic signals into first and second electrical signals; - a signal processing device (3, 3'), wherein the signal processing device (3, 3') is connected to the first and second acousto-electric converters (2, 2') by way of signal links, wherein at least one of the signal links to the first and second acousto-electric converters (2, 2') is in wireless form, wherein the signal processing device (3, 3') is designed to determine and compensate for signal deviations in the first and/or second electrical signal(s) that are caused by the first and second acousto-electric converters (2, 2') using the first and second electrical signals from the wearer's own voice, and wherein the hearing aid system additionally has a device (7, 7') for recognising the wearer's own voice, wherein the device (7, 7') for recognising the wearer's own voice is connected to the first and second acousto-electric converters (2, 2') by way of signal links and is designed to signal to the signal processing device (3, 3') the recognition of a signal from the wearer's own voice. - a first and a second hearing aid (110, 110'), wherein the first hearing aid has a first acousto-electric converter and the second hearing aid has a second acousto-electric converter and the converters (2, 2') are designed to convert incoming acoustic signals into first and second electrical signals; - a signal processing device (3, 3'),
A cubic boron nitride sintered material comprising 30% by volume or more and 80% by volume or less of cubic boron nitride grains and 20% by volume or more and 70% by volume or less of a binder phase, the binder phase including: at least one selected from the group consisting of: a simple substance selected from the group consisting Titanium (Ti), Zirconium (Zr), Hafnium (Hf), Vanadium, Niobium (Nb), Tantalum (Ta), Chromium (Cr), Molybdenum (Mo), tungsten, aluminum, silicon, cobalt and nickel; an alloy thereof; and an intermetallic compound thereof; or at least one selected from the group consisting of a compound consisting of at least one element selected from the group consisting Titanium (Ti), Zirconium (Zr), Hafnium (Hf), Vanadium, Niobium (Nb), Tantalum (Ta), Chromium (Cr), Molybdenum (Mo), tungsten, aluminum, silicon, cobalt and nickel and at least one element selected from the group consisting of nitrogen, carbon, boron and oxygen, the cubic boron nitride grains having a dislocation density of 3 × 10 17 /m 2 or more and 1 × 10 20 /m 2 or less, the dislocation density measured using X-ray diffraction using the method described in the description. at least one selected from the group consisting of: a simple substance selected from the group consisting Titanium (Ti), Zirconium (Zr), Hafnium (Hf), Vanadium, Niobium (Nb), Tantalum (Ta), Chromium (Cr), Molybdenum (Mo), tungsten, aluminum, silicon, cobalt and nickel; an alloy thereof; and an intermetallic compound thereof; or at least one selected from the group consisting of a compound consisting of at least one element selected from the group consisting Titanium (Ti), Zirconium (Zr), Hafnium (Hf), Vanadium, Niobium (Nb), Tantalum (Ta), Chromium (Cr), Molybdenum (Mo), tungsten, aluminum, silicon, cobalt and nickel and at least one element selected from the group consisting of nitrogen, carbon, boron and oxygen, the cubic boron nitride grains having a dislocation density of 3 × 10 17 /m 2 or more and 1 × 10 20 /m 2 or less, the dislocation density measured using X-ray diffraction using the method described in the description.
A method for filtering a video advertisement, comprising: recognizing a time count number displayed in a time count area of an advertisement frame in a video by using a text recognition algorithm; determining a time difference between advertisement broadcast end time and present time based on the recognized time count number; and advancing playing time of the video to the advertisement broadcast end time based on the time difference. recognizing a time count number displayed in a time count area of an advertisement frame in a video by using a text recognition algorithm; determining a time difference between advertisement broadcast end time and present time based on the recognized time count number; and advancing playing time of the video to the advertisement broadcast end time based on the time difference.
A single-channel chemiluminescent micro-fluidic chip, including a chip body, wherein the chip body includes an optical path scanning window, a whole blood filter cavity, a quantification-reaction cavity and a waste liquid cavity, a fluid outlet of the whole blood filter cavity is sequentially communicated with the quantification-reaction cavity and the waste liquid cavity through a micro-fluidic passage (3-a), the optical path scanning window is disposed over the quantification-reaction cavity, a fluid inlet of the quantification-reaction cavity is communicated with external fluid paths through a cleaning solution delivery branch and a chromogenic reagent delivery branch respectively, and the whole blood filter cavity is communicated with an external air path; the quantification-reaction cavity is composed of a quantification-reaction pool on a lower portion and a reaction pool cover plate for sealing an opening of the quantification-reaction pool, characterized in that the quantification-reaction pool is equally divided into three cavities by two partition plates a disposed perpendicular to a fluid flow direction, a labeled antibody is placed in the middle cavity, coated antibodies are placed in the partitioned cavities on two sides, a surface, facing the quantification-reaction pool, of the reaction pool cover plate is equally divided into two cover plate parts by a partition plate b disposed perpendicular to the fluid flow direction, and the coated antibodies are embedded in the cover plate parts.
Use of a quaternary ammonium salt comprising the reaction product of: (a) the reaction product of polyisobutylene succinic anhydride and a compound having an oxygen or nitrogen atom capable of condensing with said polyisobutylene succinic anhydride and further having a tertiary amino group; and (b) a quaternizing agent suitable for converting the tertiary amino group to a quaternary nitrogen; to provide a gain in power during the operation of an internal combustion engine, wherein the quaternary ammonium salt is present at a level of at least 50 ppm in a fuel composition which is supplied to said engine, the fuel composition further comprising a diesel fuel which is liquid at room temperature; wherein the engine is a direct injection, turbocharged, common rail engine, and said engine experiences the power gain in the output of the engine, wherein the power gain is relative to the baseline fuel without the quaternary ammonium salt, and measured using the CEC DW10 diesel fuel injector fouling test with a one hour test cycle. (a) the reaction product of polyisobutylene succinic anhydride and a compound having an oxygen or nitrogen atom capable of condensing with said polyisobutylene succinic anhydride and further having a tertiary amino group; and (b) a quaternizing agent suitable for converting the tertiary amino group to a quaternary nitrogen;
Protection system for a vehicle underbody, the vehicle comprising a fuel tank seated in a cavity in the underbody and a wheel set including a cradle attached to the underbody, the protection system being characterized in that it includes a supporting element attached to the underbody opposite the wheel set in relation to the tank, in front of this latter, and a fairing extending facing the tank such as to cover same at least partially, and resting on the supporting element and on the cradle and in that the cradle holds a differential intended to transmit motion to the wheels in the wheel set, the vehicle also having a transmission shaft linked to the differential and extending along the tank, the fairing also at least partially covering the transmission shaft.
Wood-processing plant with a workpiece support for the workpieces to be processed, at least one processing unit arranged between a front support region and a rear support region of the workpiece support and a transport device for displacement of the workpieces resting on the workpiece support relative to the workpiece support and to the processing unit in a first linear axis (X axis), wherein the processing unit contains a carrier which is movable in a second linear axis (Y axis) at right angles to the first linear axis (X axis) and a third linear axis (Z axis) at right angles thereto, on which carrier a processing unit designed as a motor spindle to receive at least one rotationally driven processing tool is arranged to be pivotable about three rotational axes (A axis, B axis, C axis), wherein the processing unit is arranged to be pivotable about a third rotational axis (C axis) spaced from the first rotational axis (A axis) on the free end of an arm which is pivotable on the carrier about a first rotational axis (A axis) and a second rotational axis (B axis) at right angles to the first rotational axis (A axis), characterised in that the arm is arranged on a front carrier part to be rotatable around 360° about the second rotational axis (B axis), which carrier part is arranged to be rotatable on a front end-face side of the carrier about the first rotational axis (A axis) which is perpendicular to the first linear axis (X axis).
An injector pump for delivering fluid to a fluid receiving location of a fluid receiving device, comprising: an initially sealed integral fluid reservoir having a seal; an initially dry micro-porous fluidic path having a fluid application end for accepting fluid released from the integral fluid reservoir upon rupture of the seal and an effluent end for delivering fluid to the receiving location, the fluidic path made of a micro-porous material and automatically filling with fluid by capillary action up to the effluent end upon application of the fluid released from the integral fluid reservoir to the application end; an isolator for fluidically isolating the effluent end from the receiving location to prevent passive fluid flow from the effluent end when the fluidic path includes a fluid, wherein the isolator is an air gap adjacent the effluent end; a driving arrangement including a pair of spaced apart electrodes (6,8) for generating an electric field in the fluidic path between the application end and the effluent end for electro-osmotically pumping fluid out of the effluent end of the fluidic path element past the isolator to the fluid receiving location; and a sealing element for sealing the fluidic path along a perimeter thereof to prevent fluid flow from the fluidic path at the perimeter during electro-osmotic pumping. an initially sealed integral fluid reservoir having a seal; an initially dry micro-porous fluidic path having a fluid application end for accepting fluid released from the integral fluid reservoir upon rupture of the seal and an effluent end for delivering fluid to the receiving location, the fluidic path made of a micro-porous material and automatically filling with fluid by capillary action up to the effluent end upon application of the fluid released from the integral fluid reservoir to the application end; an isolator for fluidically isolating the effluent end from the receiving location to prevent passive fluid flow from the effluent end when the fluidic path includes a fluid, wherein the isolator is an air gap adjacent the effluent end; a driving arrangement including a pair of spaced apart electrodes (6,8) for generating an electric field in the fluidic path between the application end and the effluent end for electro-osmotically pumping fluid out of the effluent end of the fluidic path element past the isolator to the fluid receiving location; and a sealing element for sealing the fluidic path along a perimeter thereof to prevent fluid flow from the fluidic path at the perimeter during electro-osmotic pumping.
An electromagnetic-wave absorber comprising: - a body of porous material comprising a first surface for receiving electromagnetic waves, and starting from the first surface, a first layer for scattering the electromagnetic waves; - positioned after the first layer, a second layer substantially transparent to the electromagnetic waves; wherein the porous material is open-porous material; wherein: - positioned after the second layer, a reflective surface for reflecting the electromagnetic waves, wherein the reflective surface is a metallic film; and - pores in the first layer comprising a coating of electrically conductive material, the coating only partially covering the pores so that a region with coating is formed on the side of the pores facing the first surface and a region free of coating is formed on the side of the pores facing away from the first surface. - a body of porous material comprising a first surface for receiving electromagnetic waves, and starting from the first surface, a first layer for scattering the electromagnetic waves; - positioned after the first layer, a second layer substantially transparent to the electromagnetic waves; - positioned after the second layer, a reflective surface for reflecting the electromagnetic waves, wherein the reflective surface is a metallic film; and - pores in the first layer comprising a coating of electrically conductive material, the coating only partially covering the pores so that a region with coating is formed on the side of the pores facing the first surface and a region free of coating is formed on the side of the pores facing away from the first surface.
A unit including two hydraulic units (62, 64) and a control plate mounted between the two hydraulic units (62, 64), in particular between the two hydraulic units of a transmission, wherein the control plate comprises an intermediate layer having apertures (32, 34) for guiding fluid, and metal sealing layers (22, 24) that are arranged on either side of the intermediate layer and have apertures (42, 44, 52, 54) for guiding fluid, and linearly formed sealing beads (112, 114, 116, 118) which run between the apertures, for sealing between the intermediate layer and the opposing hydraulic units (62, 64) on either side thereof and wherein, for sealing, the sealing beads (112, 114, 116, 118) abut by means of their bead feet (132, 134) against the intermediate layer and have on their side remote from the intermediate layer a bead crest for linearly sealing to the respective hydraulic unit (62, 64), wherein the sealing beads (112, 114, 116, 118) in the sealing layers (22, 24) are formed such that when the sealing beads (112, 114, 116, 118) are compressed in the course of installing the control plate between the hydraulic units (62, 64) a plasto-elastic deformation is established, at least in certain regions, and characterised in that there is achieved over the entire linear extent of the respective bead crest a sealing force which is above a predetermined minimum sealing force of 5 N/mm 2, and the sealing force is 100 N/mm 2 or less, and in that after the plasto-elastic deformation for achieving the predetermined minimum sealing force, the sealing beads (112, 114, 116, 118) still have a rebound travel of 10 μm or more, and in that with a plasto-elastic deformation of the respective sealing bead (112, 114, 116, 118) to a bead height that is 5 μm greater than the bead height on complete compression, the sealing force is in a range of from 40 N/mm 2 to 80 N/mm 2, and/or in that, with a plasto-elastic deformation of the sealing beads (112, 114, 116, 118) to a bead height that is 50 μm above the bead height on complete compression, the sealing force is in a range of from 5 N/mm 2 to 20 N/mm 2, wherein a complete compression is defined by a bead height equal to zero.