mhurhangee/ep-ind-claims huggingface dataset:
Sealed secondary cell comprising: - an electrode plate group comprising at least one positive electrode and one negative electrode arranged in a container; - positive and negative current output terminals arranged on a cover of the container and respectively connected to the positive and negative electrodes; - a circuit-breaker comprising: - a connecting piece extending over the top of the cover of the container and suitable for conducting an electrical current of between 30 A and 100 A between an electrode of one polarity and its current output terminal; the connecting piece extending between an intermediate terminal connected to an electrode of the electrode plate group and the current output terminal; and - a membrane, electrically insulated from the connecting piece and suitable for deforming under the effect of an overpressure in the container, the deformation of the membrane being suitable for breaking the connecting piece. - an electrode plate group comprising at least one positive electrode and one negative electrode arranged in a container; - positive and negative current output terminals arranged on a cover of the container and respectively connected to the positive and negative electrodes; - a circuit-breaker comprising: - a connecting piece extending over the top of the cover of the container and suitable for conducting an electrical current of between 30 A and 100 A between an electrode of one polarity and its current output terminal; the connecting piece extending between an intermediate terminal connected to an electrode of the electrode plate group and the current output terminal; and - a membrane, electrically insulated from the connecting piece and suitable for deforming under the effect of an overpressure in the container, the deformation of the membrane being suitable for breaking the connecting piece.
An apparatus, comprising: - at least three electrodes (106, 108, 110) configured proximate a combustion volume; - a controller configured to drive each of the at least three electrodes (106, 108, 110) with a respective waveform to produce periodically varying electric field axes across the combustion volume; and - a burner configured to support a flame within the combustion volume, wherein the controller includes at least three drivers, wherein each driver is coupled to provide a time-varying voltage to a corresponding one of the at least three electrodes (106, 108, 110), wherein the controller is configured to drive the at least three electrodes (106, 108, 110) to produce a rotating electric field across a flame disposed in the combustion volume, characterized in that the burner is configured to be one of the at least three electrodes (106,108,110). - at least three electrodes (106, 108, 110) configured proximate a combustion volume; - a controller configured to drive each of the at least three electrodes (106, 108, 110) with a respective waveform to produce periodically varying electric field axes across the combustion volume; and - a burner configured to support a flame within the combustion volume,
Paraglider canopy as used for piloting in gliding flight over relatively large distances over land, which is configured to comprise an upper layer and a lower layer and, as seen in lateral view, has the profile of an aircraft wing, and also has cells which are oriented in the gliding direction, are partitioned off by ribs and are configured to be open in the gliding direction and closed counter to the gliding direction, wherein in each case at least one diagonal rib, which is arranged transversely to the gliding direction, is configured to pass through two cells, characterized in that said diagonal rib is designed so that at the lower, peripheral corner of a first cell (4.1), it passes upwards through the rib between the first cell and a second cell (4.2) into the corner formed by the upper layer and rib between the second cell (4.2) and the following, third cell (4.3) and then, in mirror-inverted fashion, starting in the following, third cell (4.3), it passes downwards through the rib to the fourth cell (4.4) and leads into that corner of the fourth cell (4.4) which is formed by the lower layer and rib between the fourth cell (4.4) and fifth cell (4.5), wherein, on the other side of the rib between the fourth cell (4.4) and the fifth cell (4.5), the diagonal rib follows on again in the upward direction to the extent where the width of the upper layer and lower layer is covered.
A process for producing a pellet comprising glass fibres and a thermoplastic polyester matrix, characterised in that the glass fibre at least partially has been coated with a two-part sizing composition comprising: A precursor comprising: a. an aminosilane and b. a polymer or copolymer containing carboxylic acid and/or anhydride, both having a functionality, F ≥ 3, and A binder comprising a multifunctional epoxy resin of functionality, F ≥ 3, the process comprising the steps of: a. blending in an extruder the glass fibers and the thermoplastic polyester to form glass fiber reinforced polyester pellets; b. Subjecting said pellets to a solid state post condensation process (SSPC). A precursor comprising: a. an aminosilane and b. a polymer or copolymer containing carboxylic acid and/or anhydride, both having a functionality, F ≥ 3, and a. an aminosilane and b. a polymer or copolymer containing carboxylic acid and/or anhydride, both having a functionality, F ≥ 3, and A binder comprising a multifunctional epoxy resin of functionality, F ≥ 3, the process comprising the steps of: a. blending in an extruder the glass fibers and the thermoplastic polyester to form glass fiber reinforced polyester pellets; b. Subjecting said pellets to a solid state post condensation process (SSPC). a. blending in an extruder the glass fibers and the thermoplastic polyester to form glass fiber reinforced polyester pellets; b. Subjecting said pellets to a solid state post condensation process (SSPC).
A method for discriminating between removable memory cards configured to communicate with a host system according to different communication protocols placed into a computing device, comprising: sending a secure digital, SD, compliant interrogation signal to a common area on a removable memory card; and receiving a response that informs the computing device that the removable memory card is SD compliant, wherein the response provides a capability descriptor to inform the computing device that the removable memory card is SD compliant, or that the removable memory card is compliant with the Universal Flash Storage, UFS, protocol, wherein the response is encoded in a two-bit field if the removable memory card is compliant with the UFS protocol. sending a secure digital, SD, compliant interrogation signal to a common area on a removable memory card; and receiving a response that informs the computing device that the removable memory card is SD compliant, wherein the response provides a capability descriptor to inform the computing device that the removable memory card is SD compliant, or that the removable memory card is compliant with the Universal Flash Storage, UFS, protocol, wherein the response is encoded in a two-bit field if the removable memory card is compliant with the UFS protocol.
A method comprising: allocating an Internet Protocol, IP, address to a wireless device with a service provider network for accessing services by a cellular access network of the service provider network, wherein the service provider network includes a mobile virtual private network, VPN, that defines routes that are distinct and separate from a default routing space of the service provider network; and when the wireless device attaches to a wireless alternate access network other than the cellular access network, dynamically extending the mobile VPN from the service provider network toward the alternate access network by atomically installing a host route for the IP address into a VPN routing and forwarding, VRF, instance associated with the mobile VPN within a downstream router coupled to the alternate access network and within an upstream router to enable the wireless device to exchange network traffic via the alternate access network with the service provider network using the IP address allocated by the service provider network, wherein atomically installing the route comprises delaying the upstream router from installing the host route until the downstream router has installed the host route, and wherein, subsequent to atomically installing the route, network traffic destined for the wireless device proceeds from the upstream router toward the downstream router. allocating an Internet Protocol, IP, address to a wireless device with a service provider network for accessing services by a cellular access network of the service provider network, wherein the service provider network includes a mobile virtual private network, VPN, that defines routes that are distinct and separate from a default routing space of the service provider network; and when the wireless device attaches to a wireless alternate access network other than the cellular access network, dynamically extending the mobile VPN from the service provider network toward the alternate access network by atomically installing a host route for the IP address into a VPN routing and forwarding, VRF, instance associated with the mobile VPN within a downstream router coupled to the alternate access network and within an upstream router to enable the wireless device to exchange network traffic via the alternate access network with the service provider network using the IP address allocated by the service provider network, wherein atomically installing the route comprises delaying the upstream router from installing the host route until the downstream router has installed the host route, and wherein, subsequent to atomically installing the route, network traffic destined for the wireless device proceeds from the upstream router toward the downstream router.
A method of manufacturing a wiring electronic component to be incorporated in an electronic device package in which a circuit element is disposed, the circuit element including a semiconductor chip and the electronic device package including external electrodes connected to the circuit element via vertical wiring, the method comprising: providing a support portion comprising a two-layer structure, said two-layer structure comprising a reinforcement plate and insulation material, said reinforcement plate being bonded to a back side of the insulation material via a separable adhesive; and forming a plurality of vertical wiring portions for the vertical wiring through plating such that the vertical wiring portions are integrally connected to the support portion, the reinforcement plate being separable from the insulation material after connection of the wiring electronic component to the semiconductor chip. providing a support portion comprising a two-layer structure, said two-layer structure comprising a reinforcement plate and insulation material, said reinforcement plate being bonded to a back side of the insulation material via a separable adhesive; and forming a plurality of vertical wiring portions for the vertical wiring through plating such that the vertical wiring portions are integrally connected to the support portion, the reinforcement plate being separable from the insulation material after connection of the wiring electronic component to the semiconductor chip.
A method for producing a compound semiconductor light-emitting device, which comprises steps (a) to (d) shown below: (a) a step of manufacturing a semiconductor wafer by stacking an n-type semiconductor layer, a light-emitting layer and a p-type semiconductor layer, that are made of a compound semiconductor, on a substrate, the n-type semiconductor layer and the p-type semiconductor layer being stacked so as to interpose the light-emitting layer therebetween, (b) a step of stacking an amorphous IZO film on the semiconductor wafer, (c) a step of etching the amorphous IZO film to form an uneven shape on the surface of the amorphous IZO film, and (d) a step of crystallizing the etched amorphous IZO film by a heat treatment at a temperature of 700°C to 900°C. (a) a step of manufacturing a semiconductor wafer by stacking an n-type semiconductor layer, a light-emitting layer and a p-type semiconductor layer, that are made of a compound semiconductor, on a substrate, the n-type semiconductor layer and the p-type semiconductor layer being stacked so as to interpose the light-emitting layer therebetween, (b) a step of stacking an amorphous IZO film on the semiconductor wafer, (c) a step of etching the amorphous IZO film to form an uneven shape on the surface of the amorphous IZO film, and (d) a step of crystallizing the etched amorphous IZO film by a heat treatment at a temperature of 700°C to 900°C.
A catheter and holder assembly comprising: a catheter hub having a catheter tube with a distal opening attached to the catheter hub; a needle comprising a sharpened distal needle tip which projects out the distal opening of the catheter tube; and a blood collection holder having a housing having an interior space dimensioned to receive a vacutainer; characterized in that the blood collection holder has a needle hub with a bore having the needle passing therethrough; the needle comprises a sharpened proximal needle tip; and the catheter hub is in contact with the blood collection holder and the sharpened proximal needle tip is located within the interior space of the housing in a ready to use position. a catheter hub having a catheter tube with a distal opening attached to the catheter hub; a needle comprising a sharpened distal needle tip which projects out the distal opening of the catheter tube; and a blood collection holder having a housing having an interior space dimensioned to receive a vacutainer; characterized in that the blood collection holder has a needle hub with a bore having the needle passing therethrough; the needle comprises a sharpened proximal needle tip; and the catheter hub is in contact with the blood collection holder and the sharpened proximal needle tip is located within the interior space of the housing in a ready to use position.
A method (200, 400) of operating a wireless communication system, comprising: determining respective geometries of multiple subscriber stations with respect to a serving base station, the multiple subscriber stations including a first subscriber station and a second subscriber station, wherein respective geometries of multiple subscriber stations are determined by determining one or more respective measures of CINR channel quality of each of the multiple subscriber stations; and scheduling, based on the determining the respective geometries, respective channel sounding bandwidths for sounding a channel between the multiple subscriber stations and the serving base station (212, 210), wherein the respective channel sounding bandwidths include a first channel sounding bandwidth associated with the first subscriber station and a second channel sounding bandwidth associated with the second subscriber station, and wherein the first channel sounding bandwidth is greater than or equal to the second channel sounding bandwidth and the first subscriber station has a lower geometry than the second subscriber station. determining respective geometries of multiple subscriber stations with respect to a serving base station, the multiple subscriber stations including a first subscriber station and a second subscriber station, wherein respective geometries of multiple subscriber stations are determined by determining one or more respective measures of CINR channel quality of each of the multiple subscriber stations; and scheduling, based on the determining the respective geometries, respective channel sounding bandwidths for sounding a channel between the multiple subscriber stations and the serving base station (212, 210), wherein the respective channel sounding bandwidths include a first channel sounding bandwidth associated with the first subscriber station and a second channel sounding bandwidth associated with the second subscriber station, and wherein the first channel sounding bandwidth is greater than or equal to the second channel sounding bandwidth and the first subscriber station has a lower geometry than the second subscriber station.
Fibre Reinforced Polymeric composite comprising a dry preform laminated with a resin mix comprising a matrix resin, hardener and electrically conductive fillers selected from: conductive carbon black, silver-coated hollow glass microspheres, and carbon nanotubes, wherein the amount of the electrically conductive fillers is from 1% to 30% by weight in the matrix resin, and wherein the FRP composite has a density ranging from about 0.9 g/cc to about 2.0 g/cc, a surface electrical resistivity ranging from about 10 9 Ω/sq. to about 10 -1 Ω/sq., an ambient temperature storage modulus ranging from about 4 GPa to about 15 GPa, an Inter Lamellar Shear Strength (ILSS) ranging from about 15MPa to about 50 MPa, and is capable of withstanding a temperature of up to 170°C. wherein the amount of the electrically conductive fillers is from 1% to 30% by weight in the matrix resin, and wherein the FRP composite has a density ranging from about 0.9 g/cc to about 2.0 g/cc, a surface electrical resistivity ranging from about 10 9 Ω/sq. to about 10 -1 Ω/sq., an ambient temperature storage modulus ranging from about 4 GPa to about 15 GPa, an Inter Lamellar Shear Strength (ILSS) ranging from about 15MPa to about 50 MPa, and is capable of withstanding a temperature of up to 170°C.
A stabiliser accessory releasably securable to a ladder having two one piece stiles and at least three rungs extending between the stiles, characterised by an elongate housing to be secured in use to the lower end of the stiles of the ladder and two stabilising arms (14, 16) retractably received within the housing and extendable laterally in opposite directions, when deployed, to contact the ground at points that are further spaced apart than the ends of the housing, wherein the stabilising arms are spring biased in a direction to protrude from the housing and are retained within the housing, characterized in that a catch mechanism (24, 26, 40, 42) is provided on the housing to retain the stabiliser arms in the retracted position.
A method for wireless communication, comprising: associating a virtual cell identifier of a first base station with transmissions between the first base station and a first user equipment, wherein the virtual cell identifier is also associated with transmissions between a second base station and a second UE; and identifying a set of common resource blocks for transmission of a demodulation reference signal (DM-RS) in an uplink channel and a downlink channel between the first base station and the first UE, the identification of the set of common resource blocks being based at least in part on the virtual cell identifier. associating a virtual cell identifier of a first base station with transmissions between the first base station and a first user equipment, wherein the virtual cell identifier is also associated with transmissions between a second base station and a second UE; and identifying a set of common resource blocks for transmission of a demodulation reference signal (DM-RS) in an uplink channel and a downlink channel between the first base station and the first UE, the identification of the set of common resource blocks being based at least in part on the virtual cell identifier.
Holding device for a portable power tool, in particular a rotary- and/or chisel-hammer holding device, having a hammer tube (10b; 10c) and at least one locking body (12b; 12c) which connects the hammer tube (10b; 10c) to at least one further holding component (22b; 22c; 46c) in a fitted state, wherein the locking body (12b; 12c) has at least one locking surface (20b; 20c) curved about at least one load tilting axis (14b; 14c) and has, in the fitted state, a greater extent in the radial direction (32b; 32c) of the hammer tube (10b; 10c) than in the axial direction (34b; 34c) of the hammer tube (10b; 10c), characterized in that the load tilting axis (14b: 14c) is an axis about which the locking body (12b: 12c) is tilted in the axial direction and/or in the circumferential direction of the hammer tube (10b: 10c) when the hammer tube (10b: 10c) and/or the holding component (22b; 22c; 46c) to be connected to the hammer tube (10b; 10c) are/is under load, wherein the curved locking surface (20b; 20c) is configured as a sleeve face which is curved in a convex manner, and wherein the at least one further holding component (22b; 22c; 46c) has a curved holding surface (26b; 26c) which corresponds with the curved locking surface (20b; 20c) in at least one operating state.
A multi-layer armature for a moving armature receiver comprising: - a first armature layer comprising a first surface and a second armature layer comprising a second surface positioned adjacently to and facing the first surface, - a displacement region configured to provide relative displacement between the facing surfaces of the first and second armature layers (11, 19) in a predetermined direction, - wherein the first and second surfaces are internal surfaces of the multi-layer armature, - whereby the first armature layer is an outer armature layer and the second armature layer is an inner armature layer, - wherein the first and second armature layers (11, 19) are magnetically coupled to each other, - wherein the displacement region comprises a first curved segment of the first armature layer and a second curved segment of the second armature layer having different lengths, - wherein the first and second curved segments (13, 15) are spaced apart by a gap arranged in-between the first and second surfaces, characterized in that: the gap is located internally in the multi-layer armature. - a first armature layer comprising a first surface and a second armature layer comprising a second surface positioned adjacently to and facing the first surface, - a displacement region configured to provide relative displacement between the facing surfaces of the first and second armature layers (11, 19) in a predetermined direction, - wherein the first and second surfaces are internal surfaces of the multi-layer armature, - whereby the first armature layer is an outer armature layer and the second armature layer is an inner armature layer, - wherein the first and second armature layers (11, 19) are magnetically coupled to each other, - wherein the displacement region comprises a first curved segment of the first armature layer and a second curved segment of the second armature layer having different lengths, - wherein the first and second curved segments (13, 15) are spaced apart by a gap arranged in-between the first and second surfaces, characterized in that: the gap is located internally in the multi-layer armature. the gap is located internally in the multi-layer armature.