mhurhangee/ep-ind-claims huggingface dataset:
A battery cell characterized by comprising: a housing being hollow and comprising an opening, and an end cover assembly comprising an end cover and an insulator, a periphery of the end cover is combined with a frame at the opening of the housing so that the end cover covers the housing to be connected to the opening of the housing, and at least a part of the end cover being inserted into the housing, the part of the end cover inserted into the housing comprising an end surface and a first side surface, wherein the end surface is substantially perpendicular to an insertion direction of the end cover, the first side surface is distributed along a periphery of the end surface and is opposite to an inner wall surface of the housing, and wherein the inner wall surface is substantially parallel to the insertion direction of the end cover, and the end surface and the first side surface intersect to form a first edge, and wherein the insulator is connected to the end surface and is located at a side of the end surface adjacent to an electrode assembly contained in the housing, and the insulator extends beyond the first edge toward the inner wall surface in a first direction, wherein the first direction is a direction perpendicular to the insertion direction of the end cover and towards the inner wall surface. a housing being hollow and comprising an opening, and an end cover assembly comprising an end cover and an insulator, a periphery of the end cover is combined with a frame at the opening of the housing so that the end cover covers the housing to be connected to the opening of the housing, and at least a part of the end cover being inserted into the housing, the part of the end cover inserted into the housing comprising an end surface and a first side surface, wherein the end surface is substantially perpendicular to an insertion direction of the end cover, the first side surface is distributed along a periphery of the end surface and is opposite to an inner wall surface of the housing, and wherein the inner wall surface is substantially parallel to the insertion direction of the end cover, and the end surface and the first side surface intersect to form a first edge, and wherein the insulator is connected to the end surface and is located at a side of the end surface adjacent to an electrode assembly contained in the housing, and the insulator extends beyond the first edge toward the inner wall surface in a first direction, wherein the first direction is a direction perpendicular to the insertion direction of the end cover and towards the inner wall surface.
An insulating glass unit comprising first and second panes held in a spaced-apart configuration, one of the first and second panes being a transparent substrate bearing a temperable high shading performance low-emissivity coating comprising, in sequence outwardly: (a) a first infrared-reflective film having a thickness of between 8.5 nm (85Å) and 10 nm (100Å); (b) a first high absorption blocker layer deposited directly over the first infrared-reflective film, the first high absorption blocker layer being deposited as essentially pure niobium; (c) a middle coat comprising a plurality of transparent dielectric films beginning with a nitride film deposited directly over the first high absorption blocker layer and ending with an oxide film directly beneath a second infrared-reflective film; (d) the second infrared-reflective film having a thickness of between 11 nm (110Å) and 14 nm (140Å); (e) a second high absorption blocker layer deposited directly over the second infrared-reflective film, the second high absorption blocker layer being deposited as essentially pure niobium; and (f) an outer coat comprising a transparent dielectric nitride film deposited directly over the second high absorption blocker layer; wherein the first and second high absorption blocker layers have a combined thickness of greater than 5 nm (50 angstroms), the two panes of the insulating glass unit having confronting inner surfaces oriented toward a between-pane space and opposed outer surfaces oriented away from the between-pane space, one of said inner surfaces bearing the temperable high shading performance low-emissivity coating, the insulating glass unit having a total visible transmittance of between 0.35 and 0.43, and the insulating glass unit having an exterior visible reflectance of less than 13%. (a) a first infrared-reflective film having a thickness of between 8.5 nm (85Å) and 10 nm (100Å); (b) a first high absorption blocker layer deposited directly over the first infrared-reflective film, the first high absorption blocker layer being deposited as essentially pure niobium; (c) a middle coat comprising a plurality of transparent dielectric films beginning with a nitride film deposited directly over the first high absorption blocker layer and ending with an oxide film directly beneath a second infrared-reflective film; (d) the second infrared-reflective film having a thickness of between 11 nm (110Å) and 14 nm (140Å); (e) a second high absorption blocker layer deposited directly over the second infrared-reflective film, the second high absorption blocker layer being deposited as essentially pure niobium; and (f) an outer coat comprising a transparent dielectric nitride film deposited directly over the second high absorption blocker layer;
An expansion rod holder for the assembly of fin and tube heat exchangers, comprising: a first plate having a first aperture therethrough; a ring located in said first aperture, said ring having a second aperture therethrough, said first and second apertures (111, 215) configured to receive a tapered end of an expansion rod having an annular groove proximate said tapered end; a biasing member located in said first aperture between said ring and a wall of said first aperture, said biasing member configured to bias said ring in a first direction toward an opposite wall of said first aperture and into said annular groove; and CHARACTERIZED BY: a second plate having a cavity in a surface thereof, said cavity configured to receive said first plate therein and having a third aperture therethrough configured such that in use the tapered end of the expansion rod is inserted through the third aperture and then simultaneously through the ring aperture and the first plate aperture. a first plate having a first aperture therethrough; a ring located in said first aperture, said ring having a second aperture therethrough, said first and second apertures (111, 215) configured to receive a tapered end of an expansion rod having an annular groove proximate said tapered end; a biasing member located in said first aperture between said ring and a wall of said first aperture, said biasing member configured to bias said ring in a first direction toward an opposite wall of said first aperture and into said annular groove; and CHARACTERIZED BY: a second plate having a cavity in a surface thereof, said cavity configured to receive said first plate therein and having a third aperture therethrough configured such that in use the tapered end of the expansion rod is inserted through the third aperture and then simultaneously through the ring aperture and the first plate aperture. a second plate having a cavity in a surface thereof, said cavity configured to receive said first plate therein and having a third aperture therethrough configured such that in use the tapered end of the expansion rod is inserted through the third aperture and then simultaneously through the ring aperture and the first plate aperture.
A method for uplink transmission by a user equipment, UE, comprising: receiving a first assignment for one or more beacon signals, the first assignment including a first interlace assignment in a contention-based spectrum; receiving an uplink grant for a payload of an uplink transmission, wherein the uplink grant includes a resource assignment and a second interlace assignment in the contention-based spectrum; determining that a size of the uplink grant for the payload of the uplink transmission is less than a threshold; transmitting the one or more beacon signals according to the first assignment in response to determining that the size of the uplink grant for the payload of the uplink transmission is less than the threshold, wherein the one or more beacon signals increase bandwidth occupancy by the UE over the contention-based spectrum, wherein the one or more beacon signals transmitted according to the first assignment provides a bandwidth occupancy percentage that meets or exceeds a bandwidth occupancy level; and transmitting the payload of the uplink transmission according to the resource assignment on the second interlace assignment. receiving a first assignment for one or more beacon signals, the first assignment including a first interlace assignment in a contention-based spectrum; receiving an uplink grant for a payload of an uplink transmission, wherein the uplink grant includes a resource assignment and a second interlace assignment in the contention-based spectrum; determining that a size of the uplink grant for the payload of the uplink transmission is less than a threshold; transmitting the one or more beacon signals according to the first assignment in response to determining that the size of the uplink grant for the payload of the uplink transmission is less than the threshold, wherein the one or more beacon signals increase bandwidth occupancy by the UE over the contention-based spectrum, wherein the one or more beacon signals transmitted according to the first assignment provides a bandwidth occupancy percentage that meets or exceeds a bandwidth occupancy level; and transmitting the payload of the uplink transmission according to the resource assignment on the second interlace assignment.
An arc welding power supply comprising: an output control unit (CM, DR, EI, EV, ICR, ID, ILR, ND, PM, SD, SW, TDS, VD, VR, VTN, TDS) configured to output a welding voltage (Vw) and a welding current (Iw) in correspondence to each of a short-circuiting period and an arc period; and a feeding control unit (FR, FC) configured to increase a feeding rate (Fw) of a welding wire in a forward feeding direction during a forward feeding acceleration period (Tsu), to reduce the feeding rate (Fw) in the forward feeding direction during a forward feeding deceleration period (Tsd), to increase the feeding rate (Fw) in a reverse feeding direction during a reverse feeding acceleration period (Tru), and to reduce the feeding rate (Fw) in the reverse feeding direction during a reverse feeding deceleration period (Trd), characterised in that the output control unit (CM, DR, EI, EV, ICR, ID, ILR, ND, PM, SD, SW, TDS, VD, VR, VTN, TDS) is configured to provide a short-circuit forcibly generating period (Tsp) between the forward feeding acceleration period (Tsu) and the forward feeding deceleration period (Tsd), and, during the short-circuit forcibly generating period (Tsp), the feeding control unit (FR, FC) increases the feeding rate (Fw) with a change rate larger than a change rate during the forward feeding acceleration period (Tsu) and maintains a predetermined forward feeding peak value (Fsp) when the feeding rate (Fw) reaches the peak value. an output control unit (CM, DR, EI, EV, ICR, ID, ILR, ND, PM, SD, SW, TDS, VD, VR, VTN, TDS) configured to output a welding voltage (Vw) and a welding current (Iw) in correspondence to each of a short-circuiting period and an arc period; and a feeding control unit (FR, FC) configured to increase a feeding rate (Fw) of a welding wire in a forward feeding direction during a forward feeding acceleration period (Tsu), to reduce the feeding rate (Fw) in the forward feeding direction during a forward feeding deceleration period (Tsd), to increase the feeding rate (Fw) in a reverse feeding direction during a reverse feeding acceleration period (Tru), and to reduce the feeding rate (Fw) in the reverse feeding direction during a reverse feeding deceleration period (Trd), characterised in that the output control unit (CM, DR, EI, EV, ICR, ID, ILR, ND, PM, SD, SW, TDS, VD, VR, VTN, TDS) is configured to provide a short-circuit forcibly generating period (Tsp) between the forward feeding acceleration period (Tsu) and the forward feeding deceleration period (Tsd), and, during the short-circuit forcibly generating period (Tsp), the feeding control unit (FR, FC) increases the feeding rate (Fw) with a change rate larger than a change rate during the forward feeding acceleration period (Tsu) and maintains a predetermined forward feeding peak value (Fsp) when the feeding rate (Fw) reaches the peak value.
An isolated peptide comprising an amino acid sequence with at least 70% sequence identity to amino acid sequence SEQ ID No. 1; wherein the isolated peptide increases the oxidative stress tolerance of a cell or organism under oxidative stress conditions.
An input device which includes a first member and a second member and which is configured to perform input according to a relative rotation between the first member and the second member, comprising: a bearing portion (121, 122) configured to rotatably support the first member and the second member; a gap which is formed between the first member and the second member at a position different from that of the bearing portion (121, 122); and a viscous material which is present in the gap and is in contact with the first member and the second member, characterized in that one of the first member and the second member includes a sleeve (240, 640) and a sleeve holding portion configured to hold the sleeve (240, 640), and wherein the other of the first member and the second member, and the sleeve (240, 640) form the gap. a bearing portion (121, 122) configured to rotatably support the first member and the second member; a gap which is formed between the first member and the second member at a position different from that of the bearing portion (121, 122); and a viscous material which is present in the gap and is in contact with the first member and the second member, characterized in that one of the first member and the second member includes a sleeve (240, 640) and a sleeve holding portion configured to hold the sleeve (240, 640), and wherein the other of the first member and the second member, and the sleeve (240, 640) form the gap.
A firearm comprising: a barrel having a barrel extension, wherein the barrel extension has a flange; a cross pin on the barrel; a backbone disposed within a receiver above the barrel, wherein the backbone has a slot, a groove, and a pair of v-blocks formed therein, and wherein the slot is configured to slidably receive a portion of a bolt carrier; a swinging wedge configured to engage the cross pin on the barrel to pull the barrel upward into the pair of v-blocks (8081, 8082) on the backbone and to pull the flange on the barrel extension upward into the groove in the backbone to center the barrel and lock the barrel extension from fore and aft motion in relation to the backbone.
Arrangement for fixing an air intake circuit of an indirect fuel injection combustion engine comprising a cylinder head in which there have been bored intake runners which open at one end into a recess in the intake wall of the cylinder head and, at the opposite end, into a combustion chamber delimited by a cylinder, a piston, and the underside wall of the cylinder head, said cylinder head comprising at least one injection duct per cylinder able to house a fuel injector and opening obliquely into an intake runner, said intake circuit comprising a heat exchanger fixed to the intake wall of the cylinder head, characterized in that the recess in the cylinder head is divided into cavities by at least one dividing wall formed as one with the cylinder head and extending from the recess surface toward the outside of the cylinder head so that a combustion chamber communicates with a single cavity, and in that the exchanger is divided into longitudinal compartments, each of said compartments is connected to a single cavity of the cylinder head in the axial continuation of the compartment.
The use of xylan derivatives which contain a unit of general formula, in which R 1 and R 2 represent, independently of one another, H or -C(=O)-NR 3 R 4, with the proviso that at least 1 of the groups R 1 and R 2 is equal to -C(=O)-NR 3 R 4, and R 3 and R 4 represent, independently of one another, -H, aryl, straight-chain or branched alkyl, aryl, alkylaryl or arylalkyl groups, which can be substituted with one or more functional groups such as hydroxy, carboxy, oxy, amino or ammonium groups, and/or which can be interrupted with heteroatoms such as N, O or S, for enhancing the cleaning performance of washing agents when washing textiles. R 3 and R 4 represent, independently of one another, -H, aryl, straight-chain or branched alkyl, aryl, alkylaryl or arylalkyl groups, which can be substituted with one or more functional groups such as hydroxy, carboxy, oxy, amino or ammonium groups, and/or which can be interrupted with heteroatoms such as N, O or S, for enhancing the cleaning performance of washing agents when washing textiles.
Holding device for temporarily fixing a plate-shaped object, in particular a tablet computer, having a first holder, which has a coupling arrangement for connection to a carrying device and a first receiving section for positive locking a first narrow side of a plate-shaped object in at least two spatial directions, having a second holder, which has a second receiving section for positive locking a second narrow side of a plate-shaped object in at least in two spatial directions, and having a flexible traction means, which is connected to the first holder and to the second holder, which is designed for a transmission of tensile forces between the first holder and the second holder for fixing the plate-shaped object, wherein the first holder comprises a winding device with a winding shaft which is rotatably mounted on the first holder and around which an end region of the flexible traction means is looped, wherein the winding shaft is designed for winding and unwinding the traction means, characterized in that the winding shaft is assigned a pretensioned spring arrangement supported on the first holder for providing a tensile force on the traction means.
A semiconductor light-emitting element (10; 10A; 30; 50) comprising: a first semiconductor layer of a first conductivity type; a light-emitting functional layer formed on the first semiconductor layer; and a second semiconductor layer that is formed on the light-emitting functional layer and is of a second conductivity type opposite to that of the first semiconductor layer, wherein the light-emitting functional layer includes: a base layer formed on the first semiconductor layer, the base layer having a plurality of base segments that have a composition subject to stress strain from the first semiconductor layer and are formed in a random net shape, the base layer being doped with a dopant of the second conductivity type; and a quantum well structure layer (WA, BA) formed on the base layer. a first semiconductor layer of a first conductivity type; a light-emitting functional layer formed on the first semiconductor layer; and a second semiconductor layer that is formed on the light-emitting functional layer and is of a second conductivity type opposite to that of the first semiconductor layer, wherein the light-emitting functional layer includes: a base layer formed on the first semiconductor layer, the base layer having a plurality of base segments that have a composition subject to stress strain from the first semiconductor layer and are formed in a random net shape, the base layer being doped with a dopant of the second conductivity type; and a quantum well structure layer (WA, BA) formed on the base layer. a base layer formed on the first semiconductor layer, the base layer having a plurality of base segments that have a composition subject to stress strain from the first semiconductor layer and are formed in a random net shape, the base layer being doped with a dopant of the second conductivity type; and a quantum well structure layer (WA, BA) formed on the base layer.
A controlling node for a cellular communications system, the controlling node being arranged to determine and transmit commands for Transmit Power Control, TPC, to one or more Mobile Terminals, MTs (110, 115, 120), in at least one cell in the system, wherein the controlling node is arranged to classify an MT (110, 115, 120, 130) as being in one of a number of states, in which the states that an MT (110, 120, 130) can be classified as being in comprise an active state in which the MT (110, 115, 120) is allowed to transmit payload data and control data, and a passive state in which the MT (110, 115, 120) is allowed to transmit control data or to not make any transmissions at all, and to adapt its method for determining an MT's TPC commands depending on which state the MT (110, 115, 120) is in, so that one TPC method is used for determining TPC commands to an MT in the active state and another TPC method is used for determining TPC commands to an MT in the passive state, wherein the controlling node is arranged to use one of the following as TPC method for MTs in the active state and another of the following as TPC method for MTs in the passive state: a TPC method which determines TPC commands based only on a comparison between the received Signal to Interference Ratio of transmissions from the MT and a Signal to Interference Ratio target value, a TPC method which determines TPC commands based only on a comparison between the Signal to Interference and Noise Ratio of transmissions from the MT which is classified as being in the active state for determining TPC commands to the MT and a Signal to Interference and Noise Ratio target value, a TPC method which determines TPC commands based only on a comparison between the Received Signal Code Power of transmissions from the MT and a Received Signal Code Power target value, and a TPC method which determines TPC commands based only on a comparison between the Rise over Thermal of transmissions from the MT and a Rise over Thermal target value.