mhurhangee/ep-ind-claims huggingface dataset:
A polyolefin microporous membrane produced by: forming a gel-like molding using a polyolefin resin comprising - 80% or more by mass of polyethylene composition; and - 0.5% or more but less than 5% by mass of polypropylene having a weight average molecular weight of more than 50,000 but less than 300,000 based on 100% by mass of the total amount of the polyolefin, and stretching the molding in at least one direction, followed by washing; characterised in that the polyethylene composition comprises polyethylene having a mass average molecular weight of from 1 × 10 4 to less than 5 × 10 5 and 5 to 50% by mass based on 100% by mass of polyethylene composition of ultrahigh molecular weight polyethylene having a mass average molecular weight of 1 × 10 6 to 3 × 10 6; the polyolefin microporous membrane has an injection of electrolyte of 20 seconds or less, wherein the injection of electrolyte is evaluated by measuring the time taken for 0.5 ml of propylene carbonate to permeate the membrane; and a normalized PP/PE ratio whose average is 0.5 or more, whose standard deviation is 0.2 or less, and whose kurtosis is 1.0 or less, as measured by Raman spectroscopy in at least one plane perpendicular to the thickness direction. forming a gel-like molding using a polyolefin resin comprising - 80% or more by mass of polyethylene composition; and - 0.5% or more but less than 5% by mass of polypropylene having a weight average molecular weight of more than 50,000 but less than 300,000 based on 100% by mass of the total amount of the polyolefin, and - 80% or more by mass of polyethylene composition; and - 0.5% or more but less than 5% by mass of polypropylene having a weight average molecular weight of more than 50,000 but less than 300,000 based on 100% by mass of the total amount of the polyolefin, and stretching the molding in at least one direction, followed by washing; characterised in that the polyethylene composition comprises polyethylene having a mass average molecular weight of from 1 × 10 4 to less than 5 × 10 5 and 5 to 50% by mass based on 100% by mass of polyethylene composition of ultrahigh molecular weight polyethylene having a mass average molecular weight of 1 × 10 6 to 3 × 10 6; the polyolefin microporous membrane has an injection of electrolyte of 20 seconds or less, wherein the injection of electrolyte is evaluated by measuring the time taken for 0.5 ml of propylene carbonate to permeate the membrane; and a normalized PP/PE ratio whose average is 0.5 or more, whose standard deviation is 0.2 or less, and whose kurtosis is 1.0 or less, as measured by Raman spectroscopy in at least one plane perpendicular to the thickness direction.
A garment (100; 1900) comprising: a pocket (414, 416, 418, 420; 1922, 1924) positioned on the garment (100; 1900); and a thermal insulation insert (424, 426, 428, 430; 1926, 1928) removably positioned within the pocket (414, 416, 418, 420; 1922, 1924), the thermal insulation insert (424, 426, 428, 430; 1926, 1928) comprising: a first textile layer; a second textile layer secured to the first textile layer to form the thermal insulation insert (424, 426, 428, 430; 1926, 1928), the thermal insulation insert (424, 426, 428, 430; 1926, 1928) having a first end and a second end opposite the first end; a thermally insulating fill material contained within a space between the first textile layer and the second textile layer; characterised in that the thermal insulation insert (424, 426, 428, 430, 1926, 1928) has a closure mechanism positioned at one of the first end or the second end of the thermal insulation insert (424, 426, 428, 430; 1926, 1928), the closure mechanism comprising a male component, a female component, and a strap extending between the male component and the female component.
A surgical fastener applier (1000, 2000, 3000), comprising: a handle portion; a tubular member extending from the handle portion and defining a longitudinal axis; a stiffener member provided within the tubular member, the stiffener member having a different rigidity than the tubular member; a coiled spring disposed within the tubular member and being configured to maintain a substantially straight condition of the tubular member; a drive member including a central portion being radially flexible and torsionally stiff and a relatively stiff distal driving portion as compared to central portion, the drive member extending within the stiffener member and within the coiled spring and rotatably supported in the tubular member and in the handle portion; and a plurality of fasteners disposed within the tubular member and each fastener being configured to engage a portion of the drive member such that rotational motion of the drive member causes distal advancement of at least one fastener of the plurality of fasteners through the tubular member, at least one fastener of the plurality of fasteners engaged with the coiled spring; wherein a clearance is defined between the drive member and the stiffener member, and the drive member is configured for rotation in a deflected condition. a handle portion; a tubular member extending from the handle portion and defining a longitudinal axis; a stiffener member provided within the tubular member, the stiffener member having a different rigidity than the tubular member; a coiled spring disposed within the tubular member and being configured to maintain a substantially straight condition of the tubular member; a drive member including a central portion being radially flexible and torsionally stiff and a relatively stiff distal driving portion as compared to central portion, the drive member extending within the stiffener member and within the coiled spring and rotatably supported in the tubular member and in the handle portion; and a plurality of fasteners disposed within the tubular member and each fastener being configured to engage a portion of the drive member such that rotational motion of the drive member causes distal advancement of at least one fastener of the plurality of fasteners through the tubular member, at least one fastener of the plurality of fasteners engaged with the coiled spring; wherein a clearance is defined between the drive member and the stiffener member, and the drive member is configured for rotation in a deflected condition.
A method for assembling structural component, for instance for a vehicle, the method comprising: - providing a metal part defining an accommodating space; - providing a plastic insert having an outer shape at least approximately adapted to the space and accommodating the insert in the space, further comprising: heating the metal part to an elevated temperature; forming the insert at least partially from thermoplastic material and during assembly accommodating the insert into the space while applying pressure, wherein the elevated temperature of the metal part is at least approximately sufficient to melt thermoplastic material of the insert where the insert and the metal part are in contact, while applying the pressure to accommodate the insert, CHARACTERIZED BY forming the metal part, prior to assembly with the insert, in a temperature elevating process, such as press hardening, and allowing the metal part to thereafter cool to the elevated temperature at least approximately sufficient to melt the thermoplastic material while applying the pressure to accommodate the insert. - providing a metal part defining an accommodating space; - providing a plastic insert having an outer shape at least approximately adapted to the space and accommodating the insert in the space,
Transmission apparatus for a moulded-case circuit breaker for transmitting a torque from a manually operable handling apparatus for manually activating, deactivating and/or tripping the moulded-case circuit breaker to a drive shaft which is operatively connected to a drive apparatus for activating, deactivating and/or tripping the moulded-case circuit breaker, wherein the transmission apparatus has the drive shaft and also at least two transmission means (2, 3) which can be brought into engagement with one another, wherein the first transmission means is arranged rotatably about the drive shaft, and the second transmission means is connected to the drive shaft so as to transmit torque and is arranged such that it can move relative to the first transmission means from an engagement position to a separation position, characterized in that the first transmission means is operatively connected to an output drive gear wheel element for receiving the torque from a drive gear wheel element in order to form a torque interface.
A method for controlling downlink power, comprising: according to a current downlink load condition of a cell, adopting a corresponding power control manner to control transmitting power of a Downlink Dedicated Physical Channel, DL_DPCH, of a base station, wherein the power control manner comprises setting a time interval during which received Transmitting Power Control, TPC, commands are merged into one final TPC command which takes effect at the end of the interval, further comprising: setting in advance a corresponding relationship between a proportion of a carrier transmitting power of the at least one non-High speed channel of the cell to a maximum transmitting power of the cell and the power control manner; determining the corresponding power control manner according to a proportion of a current carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, to control the transmitting power of the DL_DPCH of the base station, wherein the corresponding power control manner comprises: setting the time interval, wherein the time interval increases with the proportion of the carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, and the time interval is adapted to comprise an odd number of time slots; and taking as the one final TPC command which takes effect at the end of the interval a most repeated TPC bit from the received TPC commands in the time interval. setting in advance a corresponding relationship between a proportion of a carrier transmitting power of the at least one non-High speed channel of the cell to a maximum transmitting power of the cell and the power control manner; determining the corresponding power control manner according to a proportion of a current carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, to control the transmitting power of the DL_DPCH of the base station, wherein the corresponding power control manner comprises: setting the time interval, wherein the time interval increases with the proportion of the carrier transmitting power of the at least one non-High speed channel of the cell to the maximum transmitting power of the cell, and the time interval is adapted to comprise an odd number of time slots; and taking as the one final TPC command which takes effect at the end of the interval a most repeated TPC bit from the received TPC commands in the time interval.
An image decoding method for decoding quantization parameters for subblocks in a block representing a part of an image for which intra prediction can be used, wherein the block is divided into subblocks so as to form a quadtree, the image decoding method comprising: decoding a first quantization parameter for a first subblock in a first block, coded data related to a first difference value between, in an order of coding, the first quantization parameter for the first subblock and a second quantization parameter for a second subblock in the first block and, for a third block as a subsequent subblock which is not in the first block, coded data related to a second difference value between a third quantization parameter of the third subblock and an integer value obtained by rounding an average of quantization parameters for subblocks coded before the third subblock; acquiring the second quantization parameter based on the first quantization parameter and the first difference value decoded by the decoding unit and acquire a third quantization parameter of the third subblock based on the second difference value decoded by the decoding unit and the integer value obtained by rounding the average of quantization parameters for subblocks decoded before the third subblock, and reproducing parts of an image corresponding to the first subblock, the second subblock, and the third subblock respectively using the acquired first quantization parameter, the acquired second quantization parameter, and the acquired third quantization parameter, wherein the parts of the image are reproduced using intra prediction. decoding a first quantization parameter for a first subblock in a first block, coded data related to a first difference value between, in an order of coding, the first quantization parameter for the first subblock and a second quantization parameter for a second subblock in the first block and, for a third block as a subsequent subblock which is not in the first block, coded data related to a second difference value between a third quantization parameter of the third subblock and an integer value obtained by rounding an average of quantization parameters for subblocks coded before the third subblock; acquiring the second quantization parameter based on the first quantization parameter and the first difference value decoded by the decoding unit and acquire a third quantization parameter of the third subblock based on the second difference value decoded by the decoding unit and the integer value obtained by rounding the average of quantization parameters for subblocks decoded before the third subblock, and reproducing parts of an image corresponding to the first subblock, the second subblock, and the third subblock respectively using the acquired first quantization parameter, the acquired second quantization parameter, and the acquired third quantization parameter, wherein the parts of the image are reproduced using intra prediction.
A RFID device comprising: - a device body having a first surface; - an open-circuit RFID antenna embedded in the device body and having a first terminal end and a second terminal end; - a recess formed in the first surface and having a bottom, the bottom having a stepped configuration with a peripheral portion surrounding a central recessed portion; - a first electrical contact and a second electrical contact provided in the peripheral portion on the bottom, the first electrical contact being electrically connected to the first terminal end, and the second electrical contact being electrically connected to the second terminal end; and - a switch module mounted at least in part in the recess, the switch module including a switch housing, a first switch contact exposed from the switch housing and electrically connected to the first electrical contact, a second switch contact exposed from the switch housing and electrically connected to the second electrical contact, and a switching portion configured to electrically connect the first switch contact and the second switch contact upon actuation by a user, characterized in that the switch housing has a shape that matches the stepped configuration of the bottom, with a peripheral connecting portion on which the first switch contact and the second switch contact are provided and a central protrusion accommodating the switching portion. - a device body having a first surface; - an open-circuit RFID antenna embedded in the device body and having a first terminal end and a second terminal end; - a recess formed in the first surface and having a bottom, the bottom having a stepped configuration with a peripheral portion surrounding a central recessed portion; - a first electrical contact and a second electrical contact provided in the peripheral portion on the bottom, the first electrical contact being electrically connected to the first terminal end, and the second electrical contact being electrically connected to the second terminal end; and - a switch module mounted at least in part in the recess, the switch module including a switch housing, a first switch contact exposed from the switch housing and electrically connected to the first electrical contact, a second switch contact exposed from the switch housing and electrically connected to the second electrical contact, and a switching portion configured to electrically connect the first switch contact and the second switch contact upon actuation by a user, characterized in that the switch housing has a shape that matches the stepped configuration of the bottom, with a peripheral connecting portion on which the first switch contact and the second switch contact are provided and a central protrusion accommodating the switching portion.
Method for monitoring a state variable of at least one battery cell (10, 12, 14, 16, 18) of a battery, wherein changing the state variable has an effect on the geometry of the battery cell (10, 12, 14, 16, 18) or the battery, wherein the battery has at least two battery cells (10, 12, 14, 16, 18) that are arranged adjacent to one another, with the following steps: - providing a first electrically conductive surface at a boundary surface of a first of the at least two battery cells (10, 12, 14, 16, 18) and providing a second electrically conductive surface at a boundary surface of a second of the at least two battery cells (10, 12, 14, 16, 18), wherein the electrically conductive surfaces (22, 24) are arranged to be electrically insulated from each other for the capacitive determination of the change of geometry, - applying an electrical voltage between the two electrically conductive surfaces (22, 24), - analysing an electrical variable produced due to an effect of the electrical voltage and - determining the state variable on the basis of the analysis. - providing a first electrically conductive surface at a boundary surface of a first of the at least two battery cells (10, 12, 14, 16, 18) and providing a second electrically conductive surface at a boundary surface of a second of the at least two battery cells (10, 12, 14, 16, 18), wherein the electrically conductive surfaces (22, 24) are arranged to be electrically insulated from each other for the capacitive determination of the change of geometry, - applying an electrical voltage between the two electrically conductive surfaces (22, 24), - analysing an electrical variable produced due to an effect of the electrical voltage and - determining the state variable on the basis of the analysis.
An ion thruster comprising: - a body having a symmetry of revolution about an axis of revolution (Ox) and having the shape of a capital E in a cross section passing through the axis of revolution (Ox), the body comprising therein a magnetic circuit, an element that generates a magnetic field and an annular element that generates a magnetic field, said element that generates a magnetic field being placed in the cross section in the central arm of the capital E, and said annular element having a symmetry of revolution about the axis of revolution (Ox) and being placed in the cross section S in the upper and lower arms of the capital E, the element that generates a magnetic field and the annular element that generates a magnetic field having opposite magnetic polarities, - an anode arranged opposite the body and covering an internal annular space, said internal annular space having a symmetry of revolution about the axis of revolution (Ox) and corresponding, in the cross section, to the counter of the capital E, said anode being such that, in operation, it allows the passage of the gas from the internal annular space to the external portion in the direction of the axis of revolution, - a gas line passing through the body and opening into the internal annular space, - a diffuser placed in said internal annular space, and - a cathode that is mechanically joined to the body, said diffuser and said anode occupying at least 50%, preferably from 60 to 100% and preferentially from 75% to 95% of the internal annular space. - a body having a symmetry of revolution about an axis of revolution (Ox) and having the shape of a capital E in a cross section passing through the axis of revolution (Ox), the body comprising therein a magnetic circuit, an element that generates a magnetic field and an annular element that generates a magnetic field, said element that generates a magnetic field being placed in the cross section in the central arm of the capital E, and said annular element having a symmetry of revolution about the axis of revolution (Ox) and being placed in the cross section S in the upper and lower arms of the capital E, the element that generates a magnetic field and the annular element that generates a magnetic field having opposite magnetic polarities, - an anode arranged opposite the body and covering an internal annular space, said internal annular space having a symmetry of revolution about the axis of revolution (Ox) and corresponding, in the cross section, to the counter of the capital E, said anode being such that, in operation, it allows the passage of the gas from the internal annular space to the external portion in the direction of the axis of revolution, - a gas line passing through the body and opening into the internal annular space, - a diffuser placed in said internal annular space, and - a cathode that is mechanically joined to the body,
A nucleic acid encoding an immunoglobulin heavy chain with retained genomic exon-intron organization comprising a nucleic acid encoding the amino acid sequence of the C-terminal part of the CH3-domain of an immunoglobulin of the class IgG, characterized in that the glycine-lysine-dipeptide at the C-terminus in said amino acid sequence of the C-terminal part of the C H 3-domain is encoded by the nucleic acid ggcaaa.