mhurhangee/ep-ind-claims huggingface dataset:
A composite cathode active material comprising a first cathode active material comprising: a core comprising a first lithium transition metal oxide represented by Formula 3 and having a first layered crystalline phase that belongs to a R-3m space group; and a coating layer disposed on the core and comprising a second lithium transition metal oxide having a plurality of layered crystalline phases, in which each layered crystalline phase of the plurality of layered crystalline phases has a different composition Formula 3 Li a Ni b Co c Mn d O 2 wherein, in Formula 3, 1.0≤a≤1.03; 0.4<b<1.0, 0<c<0.3, 0<d<0.4, and b+c+d=1; wherein the plurality of layered crystalline phases comprises a second layered crystalline phase that belongs to a C2/m space group; and a third layered crystalline phase that belongs to a R-3m space group; wherein the second lithium transition metal oxide has a composition represented by Formula 6: Formula 6 aLi 2 MnO 3 ·(1-a)LiMO 2 wherein, in Formula 6, 0.2<a<1; and M comprises at least two elements selected from nickel, manganese and cobalt. a core comprising a first lithium transition metal oxide represented by Formula 3 and having a first layered crystalline phase that belongs to a R-3m space group; and a coating layer disposed on the core and comprising a second lithium transition metal oxide having a plurality of layered crystalline phases, in which each layered crystalline phase of the plurality of layered crystalline phases has a different composition Formula 3 Li a Ni b Co c Mn d O 2 wherein, in Formula 3, 1.0≤a≤1.03; 0.4<b<1.0, 0<c<0.3, 0<d<0.4, and b+c+d=1; wherein the plurality of layered crystalline phases comprises a second layered crystalline phase that belongs to a C2/m space group; and a third layered crystalline phase that belongs to a R-3m space group; wherein the second lithium transition metal oxide has a composition represented by Formula 6: Formula 6 aLi 2 MnO 3 ·(1-a)LiMO 2 wherein, in Formula 6, 0.2<a<1; and M comprises at least two elements selected from nickel, manganese and cobalt. wherein, in Formula 3, 1.0≤a≤1.03; 0.4<b<1.0, 0<c<0.3, 0<d<0.4, and b+c+d=1; wherein the plurality of layered crystalline phases comprises a second layered crystalline phase that belongs to a C2/m space group; and a third layered crystalline phase that belongs to a R-3m space group; wherein the second lithium transition metal oxide has a composition represented by Formula 6: Formula 6 aLi 2 MnO 3 ·(1-a)LiMO 2 wherein, in Formula 6, 0.2<a<1; and M comprises at least two elements selected from nickel, manganese and cobalt. 0.2<a<1; and M comprises at least two elements selected from nickel, manganese and cobalt.
A composition for the preparation of a fire protection mortar comprising - 45 to 70% by weight of cement binder, - 8 to 20% by weight calcite, - 8 to 20% by weight mica, - 0 to 5% by weight of xonotlite, - 0.1 to 20% by weight of expanded perlite, - 0.1 to 10% by weight of fibers, - 0.01 to 2% by weight of air entrainer and foaming agent, - 0.01 to 4% by weight of processing aids. - 45 to 70% by weight of cement binder, - 8 to 20% by weight calcite, - 8 to 20% by weight mica, - 0 to 5% by weight of xonotlite, - 0.1 to 20% by weight of expanded perlite, - 0.1 to 10% by weight of fibers, - 0.01 to 2% by weight of air entrainer and foaming agent, - 0.01 to 4% by weight of processing aids.
An apparatus for executing a vector cyclic shift operation, comprising: a storing unit, configured to store vector data associated with a vector cyclic shift operation instruction; a register unit, configured to store scalar data associated with the vector cyclic shift operation instruction; a control unit, configured to decode the vector cyclic shift operation instruction and to control an operation process of the vector cyclic shift operation instruction; and a cyclic shift unit, configured to execute the vector cyclic shift operation on input vector data according to the vector cyclic shift operation instruction decoded; the cyclic shift unit being implemented in a customized hardware circuit; and the scalar data stored in the register unit comprising a start address of the input vector data, a storage address of output vector data, a length of the input vector data and a shift step size associated with the vector cyclic shift operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit. a storing unit, configured to store vector data associated with a vector cyclic shift operation instruction; a register unit, configured to store scalar data associated with the vector cyclic shift operation instruction; a control unit, configured to decode the vector cyclic shift operation instruction and to control an operation process of the vector cyclic shift operation instruction; and a cyclic shift unit, configured to execute the vector cyclic shift operation on input vector data according to the vector cyclic shift operation instruction decoded; the cyclic shift unit being implemented in a customized hardware circuit; and the scalar data stored in the register unit comprising a start address of the input vector data, a storage address of output vector data, a length of the input vector data and a shift step size associated with the vector cyclic shift operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit.
A method for transmitting packets in an MU-MIMO frame, the method comprising: determining, by a wireless device (102, 106) communicating wirelessly with a plurality of devices (102, 106), that a first packet for a first device of the plurality of devices has a first transmission duration, and a second packet for a second device of the plurality of devices has a second transmission duration shorter than the first transmission duration; and adjusting, by the wireless device based on the determination, a modulation and coding scheme to transmit the second packet during a third transmission duration, the third transmission duration being greater than the second transmission duration, the method characterized by: comparing a signal-to-noise ratio reported by the first device to a signal-to-noise ratio reported by the second device; reducing a transmission power of the wireless device for the second device based at least on the signal-to-noise ratio comparison; and increasing a transmission power of the wireless device for the first device based on the transmission power reduction for the second device, wherein a total transmission power for the first and second device remains at a predetermined level. determining, by a wireless device (102, 106) communicating wirelessly with a plurality of devices (102, 106), that a first packet for a first device of the plurality of devices has a first transmission duration, and a second packet for a second device of the plurality of devices has a second transmission duration shorter than the first transmission duration; and adjusting, by the wireless device based on the determination, a modulation and coding scheme to transmit the second packet during a third transmission duration, the third transmission duration being greater than the second transmission duration, the method characterized by: comparing a signal-to-noise ratio reported by the first device to a signal-to-noise ratio reported by the second device; reducing a transmission power of the wireless device for the second device based at least on the signal-to-noise ratio comparison; and increasing a transmission power of the wireless device for the first device based on the transmission power reduction for the second device, wherein a total transmission power for the first and second device remains at a predetermined level. comparing a signal-to-noise ratio reported by the first device to a signal-to-noise ratio reported by the second device; reducing a transmission power of the wireless device for the second device based at least on the signal-to-noise ratio comparison; and increasing a transmission power of the wireless device for the first device based on the transmission power reduction for the second device, wherein a total transmission power for the first and second device remains at a predetermined level.
A submersible pump comprising: a pump housing (102, 302); a motor disposed within the pump housing (102, 302), the motor configured to provide rotational force to an impeller; and a pump discharge; the pump housing (102, 302) having a pump base removably coupled to the pump housing (102, 302) through at least one release connector, wherein removal of the pump base from the pump housing allows access to the impeller; wherein the pump base includes a first pump base and at least one second pump base, wherein the first pump base includes a first suction height and first maximum particle size and the second pump base includes a second suction height and a second maximum particle size, wherein the first pump base and the second pump base are selectively coupled with the pump housing (102, 302) by operation of the at least one release connector; characterized in that: the at least one release connector is configured to be inserted through the pump housing (102, 302) into the pump base (104, 304); and the at least one release connector is a quarter turn connector which is configured to be retained by corresponding captures disposed on the pump base (104, 304), wherein the captures comprise a valley or ridge configured to resist disengagement of the at least one release connector. a pump housing (102, 302); a motor disposed within the pump housing (102, 302), the motor configured to provide rotational force to an impeller; and a pump discharge; the pump housing (102, 302) having a pump base removably coupled to the pump housing (102, 302) through at least one release connector, wherein removal of the pump base from the pump housing allows access to the impeller; wherein the pump base includes a first pump base and at least one second pump base, wherein the first pump base includes a first suction height and first maximum particle size and the second pump base includes a second suction height and a second maximum particle size, wherein the first pump base and the second pump base are selectively coupled with the pump housing (102, 302) by operation of the at least one release connector; characterized in that: the at least one release connector is configured to be inserted through the pump housing (102, 302) into the pump base (104, 304); and the at least one release connector is a quarter turn connector which is configured to be retained by corresponding captures disposed on the pump base (104, 304), wherein the captures comprise a valley or ridge configured to resist disengagement of the at least one release connector. the at least one release connector is configured to be inserted through the pump housing (102, 302) into the pump base (104, 304); and the at least one release connector is a quarter turn connector which is configured to be retained by corresponding captures disposed on the pump base (104, 304), wherein the captures comprise a valley or ridge configured to resist disengagement of the at least one release connector.
A continuity box for receiving tie bars, commonly referred to as a "continuity box", comprising a support part consisting of a bottom wall extending along a longitudinal axis and flanked by two side walls parallel to said longitudinal axis, said support part being arranged to receive a large number of tie bars including a right-angle bracket passing through said bottom wall, and a bent end housed in the volume of said support part between the two side walls, a lid arranged to extend in parallel to said bottom wall, to close said support part, and contain bent end of said tie bars in the inside volume and two end parts (13, 14) arranged to close the ends of said support part and to seal said continuity box, said bottom wall comprising a large number of main openings extending between the two side walls of said support part, and arranged to allow the insertion of the right-angle bracket of said tie bars, and said continuity box further comprising a covering plate arranged to close said main openings after the installation of said tie bars and to ensure the sealing of said continuity box, characterized in that said covering plate includes at least one closing plate superimposed on bottom wall of said support part, and provided with a large number of additional openings for the passage of said tie bars and in that said closing plate is free to move in translational motion (T1, T2) with respect to said support part between an open position in which said additional openings are superimposed on the main openings and allow the insertion of said tie bars, and a closed position in which said additional openings are offset and close the said main openings.
A disposable wearable article having a vertical direction and a lateral direction, comprising: a front waist region; a rear waist region; a crotch region positioned between the front and rear waist regions; and an absorbent body positioned at least in the crotch region, wherein the absorbent body has both lateral sides opposing each other in the lateral direction in the crotch region, and a deformation guiding portion extending in the vertical direction in each of the lateral sides, elastic side flaps extending in the vertical direction are positioned at outer sides in the lateral direction of both of the lateral sides, and a dimension in the lateral direction of each of the elastic side flaps is larger than a dimension in the lateral direction from each lateral edge of the absorbent body to a lateral outside edge of each of the deformation guiding portions. a front waist region; a rear waist region; a crotch region positioned between the front and rear waist regions; and an absorbent body positioned at least in the crotch region, wherein
Kit for preparing controls for a method for determining thrombocyte function, wherein the kit contains the following components: a. a first lyophilisate for preparing a first control having normal thrombocyte function, wherein the lyophilisate consists of the following components: - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and b. a second lyophilisate for preparing a second control having abnormally reduced thrombocyte function, wherein the lyophilisate consists of the following components: - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and - a direct inhibitor of thrombocyte aggregation from the group consisting of tirofiban, abciximab, eptifibatide, acetylsalicylic acid, MRS 2395, AR-C66096, cangrelor, ticagrelor, cilostazol, dipyridamole, prostaglandin E1, prostacyclin, iloprost, cicaprost, forskolin, 2-MeSAMP, C1330-7, MRS 2179, MRS 2279, MRS 2500, A2P5P, A3P5P and A3P5PS. a. a first lyophilisate for preparing a first control having normal thrombocyte function, wherein the lyophilisate consists of the following components: - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and b. a second lyophilisate for preparing a second control having abnormally reduced thrombocyte function, wherein the lyophilisate consists of the following components: - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and - a direct inhibitor of thrombocyte aggregation from the group consisting of tirofiban, abciximab, eptifibatide, acetylsalicylic acid, MRS 2395, AR-C66096, cangrelor, ticagrelor, cilostazol, dipyridamole, prostaglandin E1, prostacyclin, iloprost, cicaprost, forskolin, 2-MeSAMP, C1330-7, MRS 2179, MRS 2279, MRS 2500, A2P5P, A3P5P and A3P5PS. - a buffer substance for maintaining a physiological pH, and - an auxiliary substance for lyophilization, and - a direct inhibitor of thrombocyte aggregation from the group consisting of tirofiban, abciximab, eptifibatide, acetylsalicylic acid, MRS 2395, AR-C66096, cangrelor, ticagrelor, cilostazol, dipyridamole, prostaglandin E1, prostacyclin, iloprost, cicaprost, forskolin, 2-MeSAMP, C1330-7, MRS 2179, MRS 2279, MRS 2500, A2P5P, A3P5P and A3P5PS.
Cylindrical grinding machine for grinding a workpiece; comprising: - a machine bed, which supports a swivel table, on which a workpiece headstock is arranged so as to be mountable fixedly for driving the workpiece in rotating manner, and on which a tailstock is mounted so as to be fixable, so that a first axis of rotation is defined by the workpiece headstock and the tailstock, about which the workpiece is rotatable, wherein the swivel table can be swivelled opposite the machine bed about a swivel axis aligned in a horizontal direction transversely to the first axis of rotation; - a grinding disc which is rotatable about a second axis of rotation for grinding the workpiece, and - a longitudinal guide for displacing the grinding disc axially in the direction of the second axis of rotation; and - a dressing unit for dressing the grinding disc, characterized in that, the first axis of rotation and the second axis of rotation are arranged together in the same vertical plane, wherein the second axis of rotation is arranged above the first axis of rotation; and that the longitudinal guide is arranged in the vertical plane which comprises the first axis of rotation and the second axis of rotation; and that the dressing unit is arranged on the machine bed beside the tailstock in the axial direction relative to the first axis of rotation. - a machine bed, which supports a swivel table, on which a workpiece headstock is arranged so as to be mountable fixedly for driving the workpiece in rotating manner, and on which a tailstock is mounted so as to be fixable, so that a first axis of rotation is defined by the workpiece headstock and the tailstock, about which the workpiece is rotatable, wherein the swivel table can be swivelled opposite the machine bed about a swivel axis aligned in a horizontal direction transversely to the first axis of rotation; - a grinding disc which is rotatable about a second axis of rotation for grinding the workpiece, and - a longitudinal guide for displacing the grinding disc axially in the direction of the second axis of rotation; and - a dressing unit for dressing the grinding disc,
A water extractor comprising: a swirler vane assembly including a body portion with an inlet and an outlet, and turning vanes positioned in the body portion adjacent to the inlet; an outer duct of the water extractor with an inlet and an outlet, wherein the outlet of the swirler vane assembly is connected to the inlet of the outer duct; an inner duct of the water extractor with an inlet and an outlet, wherein the inner duct is positioned in the outer duct; and a gap between the inner duct and the outer duct, wherein the inner duct and the outer duct are curved ducts, and wherein the gap is tapered between a first position and a second position, wherein the first position is a radially innermost section of a curve of the curved ducts, and wherein the second position is a radially outermost section of the curve of the curved ducts, a gap dimension G1 at the first position being greater than a gap dimension G2 at the second position. a swirler vane assembly including a body portion with an inlet and an outlet, and turning vanes positioned in the body portion adjacent to the inlet; an outer duct of the water extractor with an inlet and an outlet, wherein the outlet of the swirler vane assembly is connected to the inlet of the outer duct; an inner duct of the water extractor with an inlet and an outlet, wherein the inner duct is positioned in the outer duct; and a gap between the inner duct and the outer duct, wherein the inner duct and the outer duct are curved ducts, and wherein the gap is tapered between a first position and a second position, wherein the first position is a radially innermost section of a curve of the curved ducts, and wherein the second position is a radially outermost section of the curve of the curved ducts, a gap dimension G1 at the first position being greater than a gap dimension G2 at the second position.
A thin speaker with a voice coil having a damper function, comprising: a frame configured to surround and define a chamber; a magnetic device disposed inside the chamber; a damper voice coil disposed inside the chamber, the damper voice coil comprising a holding member and a conductive member, the holding member including a holding base and two holding suspension portions (312, 313), the holding base disposed inside the magnetic device, the two holding suspension portions respectively integrally formed on two ends of the holding base, each of the holding suspension portions provided with a perforation (314, 315), the conductive member including a conductor and two conductive suspension portions (322, 323) the conductor wound to form a first winding at one side of the holding base and a second winding at the other side of the holding base, the two conductive suspension portions respectively integrally formed on two ends of the conductor, the conductive suspension portions located on a top of the holding suspension portions, the shape of the conductive suspension portions corresponding to the shape of the holding suspension portions, and at least a part of each of the conductive suspension portions exposed from the perforations of the holding suspension portions; and a diaphragm disposed on a top of the damper voice coil, and a bottom of the diaphragm abutting against the top of the damper voice coil. a frame configured to surround and define a chamber; a magnetic device disposed inside the chamber; a damper voice coil disposed inside the chamber, the damper voice coil comprising a holding member and a conductive member, the holding member including a holding base and two holding suspension portions (312, 313), the holding base disposed inside the magnetic device, the two holding suspension portions respectively integrally formed on two ends of the holding base, each of the holding suspension portions provided with a perforation (314, 315), the conductive member including a conductor and two conductive suspension portions (322, 323) the conductor wound to form a first winding at one side of the holding base and a second winding at the other side of the holding base, the two conductive suspension portions respectively integrally formed on two ends of the conductor, the conductive suspension portions located on a top of the holding suspension portions, the shape of the conductive suspension portions corresponding to the shape of the holding suspension portions, and at least a part of each of the conductive suspension portions exposed from the perforations of the holding suspension portions; and a diaphragm disposed on a top of the damper voice coil, and a bottom of the diaphragm abutting against the top of the damper voice coil.