mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a plurality of secondary batteries arranged side by side, each of which comprises a vent ; a monitoring assembly , disposed above the plurality of secondary batteries and comprising a base plate and a monitoring wire , wherein the monitoring wire is coupled to the base plate ; the monitoring wire is disposed corresponding to positions of the vents of the plurality of secondary batteries , and can be broken off when any of the vents bursts, so as to monitor a state of the battery module , characterized in that , the monitoring wire comprises a first segment and a second segment spaced apart from each other in a width direction (X) of the base plate , the vent of each of the plurality of secondary batteries has a center line extending in a length direction (Z) of the base plate , and the first segment and the second segment are respectively disposed on two sides of the center line , and a minimum spacing between the first segment and the second segment is indicated by H, and an outer diameter of the monitoring wire is indicated by D, wherein H/D ≥ 2.5. a plurality of secondary batteries arranged side by side, each of which comprises a vent ; a monitoring assembly , disposed above the plurality of secondary batteries and comprising a base plate and a monitoring wire , wherein the monitoring wire is coupled to the base plate ; the monitoring wire is disposed corresponding to positions of the vents of the plurality of secondary batteries , and can be broken off when any of the vents bursts, so as to monitor a state of the battery module , the monitoring wire comprises a first segment and a second segment spaced apart from each other in a width direction (X) of the base plate , the vent of each of the plurality of secondary batteries has a center line extending in a length direction (Z) of the base plate , and the first segment and the second segment are respectively disposed on two sides of the center line , and a minimum spacing between the first segment and the second segment is indicated by H, and an outer diameter of the monitoring wire is indicated by D, wherein H/D ≥ 2.5.
Radiator comprising a body and two tanks arranged on two opposing sides of said one body , said body comprising a plurality of tubes opening at each end into one of said tanks , and spacers arranged on either side of each of said tubes , said radiator comprising an end plate at a first end of said body and extending substantially between said tanks , said end plate having an essentially U-shaped cross-section with a base extending into two side wings , said base coming into contact with the spacer (203 1 ) situated at said first end, said end plate bearing a sealing gasket extending around said first end, characterized in that said wings extend along the sides of said spacer (203 1 ).
A method of transmitting an uplink data in a wireless communication system, the method comprising: receiving (S210), by a user equipment, UE, a RRC message to allocate persistent resources for an uplink data transmission; monitoring (S220, S240, S270), by the UE, a control channel in order to find an uplink scheduling grant; if the uplink scheduling grant is found on the control channel, transmitting (S260), by the UE, the uplink data based on the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting (S230, S280), by the UE, the uplink data based on the persistent resources. receiving (S210), by a user equipment, UE, a RRC message to allocate persistent resources for an uplink data transmission; monitoring (S220, S240, S270), by the UE, a control channel in order to find an uplink scheduling grant; if the uplink scheduling grant is found on the control channel, transmitting (S260), by the UE, the uplink data based on the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting (S230, S280), by the UE, the uplink data based on the persistent resources.
A split ring resonator, SRR, antenna comprising a first conductive layer having a gap and a cavity , the SRR antenna further comprises: a substrate having an outer edge , at least two layers including an outer layer and another layer different therefrom, a first surface disposed on the outer layer and a second surface disposed on the another layer wherein the first conductive layer is disposed on the first surface ; a first feeding portion disposed inside the cavity ; a second conductive layer disposed on the second surface , and including a second feeding portion corresponding to the first feeding portion ; a first vertical interconnect access disposed between the first feeding portion and the second feeding portion ; and a signal line disposed on the first surface and electrically connected to the first feeding portion , wherein the first conductive layer defines two sides of the gap to be a first inner edge and a second inner edge , the cavity is connected to the outer edge of the substrate through the gap having a width smaller than an extent of the cavity in a direction parallel to the outer edge , and the first conductive layer further includes a first matching element disposed on the first inner edge and adjacent to the first feeding portion , characterized in that the first matching element comprises an edge that is parallel to the outer edge of the substrate and adjacent to and directly facing an edge of the first feeding portion that is parallel to the outer edge of the substrate. a substrate having an outer edge , at least two layers including an outer layer and another layer different therefrom, a first surface disposed on the outer layer and a second surface disposed on the another layer wherein the first conductive layer is disposed on the first surface ; a first feeding portion disposed inside the cavity ; a second conductive layer disposed on the second surface , and including a second feeding portion corresponding to the first feeding portion ; a first vertical interconnect access disposed between the first feeding portion and the second feeding portion ; and a signal line disposed on the first surface and electrically connected to the first feeding portion , wherein the first conductive layer defines two sides of the gap to be a first inner edge and a second inner edge , the cavity is connected to the outer edge of the substrate through the gap having a width smaller than an extent of the cavity in a direction parallel to the outer edge , and the first conductive layer further includes a first matching element disposed on the first inner edge and adjacent to the first feeding portion , characterized in that the first matching element comprises an edge that is parallel to the outer edge of the substrate and adjacent to and directly facing an edge of the first feeding portion that is parallel to the outer edge of the substrate.
Dishwasher cavity for a household dishwasher , with a bottom panel , a back panel and a U-shaped dishwasher cavity jacket that is arranged on the bottom panel and is fixedly connected thereto, wherein the bottom panel and the dishwasher cavity jacket have an attachment flange that encircles the dishwasher cavity so as to attach the back panel to the bottom panel and to the dishwasher cavity jacket , characterised in that - the bottom panel comprises a stamped step , which faces the direction of a top panel of the dishwasher cavity jacket and protrudes out of a bottom portion of the bottom panel , a part of the attachment flange being attached to said stamped step, and - the stamped step comprises a first step portion , which is arranged at an angle of inclination (α) with respect to the bottom portion of the bottom panel , and a second step portion , which is arranged parallel to the bottom portion of the bottom panel , wherein the first step portion is arranged between the bottom portion and the second step portion . - the bottom panel comprises a stamped step , which faces the direction of a top panel of the dishwasher cavity jacket and protrudes out of a bottom portion of the bottom panel , a part of the attachment flange being attached to said stamped step, and - the stamped step comprises a first step portion , which is arranged at an angle of inclination (α) with respect to the bottom portion of the bottom panel , and a second step portion , which is arranged parallel to the bottom portion of the bottom panel , wherein the first step portion is arranged between the bottom portion and the second step portion .
An airbag, especially a curtain and/or side airbag, comprising a dividing seam which separates a fabric part by sewing, wherein the fabric part has a neck portion and a substantially semicircular head portion , wherein between the head portion and the neck portion a transition portion tapering from the head portion to the neck portion is provided and wherein the transition portion forms an S-shaped curvature.
Apparatus for cutting to length of a hot-rolled strip , comprising: - a cooling section for cooling the hot-rolled strip , - a measuring device upstream or downstream of the cooling section for determining the thickness of the hot-rolled strip , - two different shears for cutting to length of the hot-rolled strip , - a discharging device which is arranged downstream of the shears for discharging the hot-rolled strip which has been cut to length, characterized in that the two shears are different and are arranged downstream of the cooling section and are drum shears, comprising a first drum shear and a second drum shear , - the first drum shear being suitable for cutting to length of thick hot-rolled strip with thicknesses of from 4 mm to 28 mm at strip running speeds of less than 2.25 m/s, - the second drum shear being suitable for cutting to length of thin hot-rolled strip with thicknesses of from 0.6 mm to 6 mm at strip running speeds of greater than 1.5 m/s, - a first drive roller unit being arranged upstream of the second drum shear , and a second drive roller unit being arranged downstream of the second drum shear , and it being possible for the first and second drive roller units to be set against the thin hot-rolled strip, - a selection device which is operatively connected at least to the thickness determination means , the first drum shear and the second drum shear selecting the first drum shear or the second drum shear in a manner which is dependent on the thickness of the hot-rolled strip . - a cooling section for cooling the hot-rolled strip , - a measuring device upstream or downstream of the cooling section for determining the thickness of the hot-rolled strip , - two different shears for cutting to length of the hot-rolled strip , - a discharging device which is arranged downstream of the shears for discharging the hot-rolled strip which has been cut to length, characterized in that the two shears are different and are arranged downstream of the cooling section and are drum shears, comprising a first drum shear and a second drum shear , - the first drum shear being suitable for cutting to length of thick hot-rolled strip with thicknesses of from 4 mm to 28 mm at strip running speeds of less than 2.25 m/s, - the second drum shear being suitable for cutting to length of thin hot-rolled strip with thicknesses of from 0.6 mm to 6 mm at strip running speeds of greater than 1.5 m/s, - a first drive roller unit being arranged upstream of the second drum shear , and a second drive roller unit being arranged downstream of the second drum shear , and it being possible for the first and second drive roller units to be set against the thin hot-rolled strip, - a selection device which is operatively connected at least to the thickness determination means , the first drum shear and the second drum shear selecting the first drum shear or the second drum shear in a manner which is dependent on the thickness of the hot-rolled strip .
A contactless power swivel comprising, a first coil unit , connected to a floating structure, rotatable with the floating structure, to which a current is configured to be applied from a power supply unit provided at the floating structure; a second coil unit , connected to a turret rotating relative to the floating structure, spaced apart from the first coil unit, to which a current is configured to be induced by a magnetic field formed by the first coil unit; a first case , which has a hollow inner space with an open top, which case is formed by rotating an L-shaped cross-section by 360° about a central portion, configured to support the first coil unit, connected to the floating structure and having an opening at a central portion of a bottom surface of the cylindrical part ; a second case , having the shape of a disc, configured to support the second coil unit, provided at the opening of the cylindrical part and connected to the turret; a first cover part , configured to cover the first coil unit and connected to the floating structure; and a second cover part , configured to cover the second coil unit, wherein the current induced to the second coil unit is supplied to the turret, characterized in that a plurality of through holes is formed at said first case to allow the respective both ends of the first coil wound around the first coil unit to be inserted into and taken out from the contactless power swivel , a plurality of through holes is formed at the second case to allow the second coil wound around the second coil unit to be inserted into and taken out from the contactless power swivel , an inner space defined by said first case , said second case , the first cover part , and the second cover part is filled with insulating oil, and the contactless power swivel further comprises a plurality of sealing members, provided at the respective through holes formed at the first case and the second case , configured to seal the inner space.
A process to prepare a copolymer comprising: a) charging one or more solvent to a reaction vessel equipped with an anchor agitator; b) heating the solvent to reach temperature between 50° - 150° C; c) purging nitrogen gas to the solvent with continuous agitation; d) feeding the reaction vessel with a predefined molar ratio of hydroxyethylpyrrolidone methacrylate (M06) and glycidyl methacrylate (GMA); e) charging one or more initiator to the reaction mixture of d); f) polymerizing the reaction mixture of e) for at least 30 minutes to prepare a hydroxyethylpyrrolidone methacrylate / glycidyl methacrylate copolymer having a structure: wherein x and y are mole %, the sum equals to 100; and g) recovering copolymer from step f) in solid form. a) charging one or more solvent to a reaction vessel equipped with an anchor agitator; b) heating the solvent to reach temperature between 50° - 150° C; c) purging nitrogen gas to the solvent with continuous agitation; d) feeding the reaction vessel with a predefined molar ratio of hydroxyethylpyrrolidone methacrylate (M06) and glycidyl methacrylate (GMA); e) charging one or more initiator to the reaction mixture of d); f) polymerizing the reaction mixture of e) for at least 30 minutes to prepare a hydroxyethylpyrrolidone methacrylate / glycidyl methacrylate copolymer having a structure: wherein x and y are mole %, the sum equals to 100; and g) recovering copolymer from step f) in solid form.
A heat exchanger comprising a plurality of rows of heat transfer tubes arranged next to one another in an air flow direction, and a plurality of headers each connected to an end of an associated one of the plurality of rows of heat transfer tubes , characterised in that among the plurality of headers , an upstream-most header arranged on a most upstream side in the air flow direction is arranged such that a center position (O) of the upstream-most header is displaced upstream from a center position of an upstream-most heat transfer tube in the air flow direction in order that the upstream-most header is spaced apart from an adjacent heat transfer tube of a row adjacent to the upstream-most heat transfer tube to which the upstream-most header is connected, and/or among the plurality of headers , a downstream-most header arranged on a most downstream side in the air flow direction is arranged such that a center position (O) of the downstream-most header is displaced downstream from a center position of a downstream-most heat transfer tube in the air flow direction in order that the downstream-most header is spaced apart from an adjacent flat tube of a row adjacent to the downstream-most heat transfer tube to which the downstream-most header is connected. among the plurality of headers , an upstream-most header arranged on a most upstream side in the air flow direction is arranged such that a center position (O) of the upstream-most header is displaced upstream from a center position of an upstream-most heat transfer tube in the air flow direction in order that the upstream-most header is spaced apart from an adjacent heat transfer tube of a row adjacent to the upstream-most heat transfer tube to which the upstream-most header is connected, and/or among the plurality of headers , a downstream-most header arranged on a most downstream side in the air flow direction is arranged such that a center position (O) of the downstream-most header is displaced downstream from a center position of a downstream-most heat transfer tube in the air flow direction in order that the downstream-most header is spaced apart from an adjacent flat tube of a row adjacent to the downstream-most heat transfer tube to which the downstream-most header is connected.
A transparent member comprising a base material provided with a water-repellent layer on the base material, wherein the transparent member has a surface portion whose contact angle to water changes continuously, wherein the water-repellent layer includes said surface portion, characterized in that the thickness of the water-repellent layer changes continuously. wherein the water-repellent layer includes said surface portion, characterized in that the thickness of the water-repellent layer changes continuously.
Differential for a motor vehicle , with a hollow drive gear provided for inducing torque, with at least one bearing journal located at an inner circumference of the drive gear , with at least one differential pinion rotatably mounted on the bearing journal , and with a hub carrier having an external toothing for a non-rotatable connection to the drive gear and provided for an accommodation of the at least one bearing journal and the at least one differential pinion , characterised in that the hub carrier has a radially outward-located outer ring and a radially inward-located inner ring spaced from the outer ring , the radially outward-located outer ring and the radially inward-located inner ring each having a recess for an accommodation of the at least one bearing journal .
A sensor module connectable between a main body of a fabrication tool and a head of the fabrication tool, wherein the fabrication tool is a welding apparatus or cutting apparatus and the head is a welding torch or a cutting head, the sensor module comprising: a first interface connectable to the main body of the fabrication tool and comprising: i) a first power port for receiving power transmitted by the main body to the head ; and ii) a first gas port for receiving gas delivered by the main body to the head ; a second interface connectable to the head of the fabrication tool and comprising: i) a second power port for delivering power to the head; and ii) a second gas port for delivering gas, received from the first gas port, to the head; characterized in that the sensor module comprising a memory for storing information relating to the fabrication tool; a first sensor for measuring a property of the power transmitted by the main body to the head ; a second sensor for measuring a property of the gas delivered by the main body to the head; a transmission means for transmitting information between the sensor module and a location remote from the sensor module; and a processor electronically connected to each of the memory , transmission means , first sensor , and second sensor . a first interface connectable to the main body of the fabrication tool and comprising: i) a first power port for receiving power transmitted by the main body to the head ; and ii) a first gas port for receiving gas delivered by the main body to the head ; i) a first power port for receiving power transmitted by the main body to the head ; and ii) a first gas port for receiving gas delivered by the main body to the head ; a second interface connectable to the head of the fabrication tool and comprising: i) a second power port for delivering power to the head; and ii) a second gas port for delivering gas, received from the first gas port, to the head; i) a second power port for delivering power to the head; and ii) a second gas port for delivering gas, received from the first gas port, to the head; characterized in that the sensor module comprising a memory for storing information relating to the fabrication tool; a first sensor for measuring a property of the power transmitted by the main body to the head ; a second sensor for measuring a property of the gas delivered by the main body to the head; a transmission means for transmitting information between the sensor module and a location remote from the sensor module; and a processor electronically connected to each of the memory , transmission means , first sensor , and second sensor .
Method for reduction of noise and room air overpressure on discharge of a gas extinguisher system (A), wherein, during the discharge, an extinguishing fluid (F) is conveyed from a pressurised container (B) via a container valve (BV) and line system (LS) to an extinguishing nozzle (D), wherein the extinguishing fluid (F) stored in the pressurised container (B) has an extinguishing liquid (L) and a propellant gas (G), wherein the extinguishing fluid (F) is predominantly present in the line system (LS) at the beginning of the discharge in a liquid phase and, after discharge, the extinguishing liquid (L) changes into a predominantly gaseous phase, and characterised in that , in a phase transition area (T), which is associated with a significant reduction in the extinguishing fluid mass flow ( ṁ ) and a significant increase in the noise and the room air pressure, the mass flow ( ṁ ) is then reduced or stopped.