mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing a bearer, comprising: after a core network node initiates a bearer setup request, receiving, by a gateway node, a first identifier and a third identifier that are sent by a macro access network node, wherein the first identifier is used to enable the core network node to identify uplink user data forwarded by the gateway node, the first identifier is sent by the core network node to the macro access network node, the third identifier is used to enable a first small access network node to identify downlink user data forwarded by the gateway node, and the third identifier is sent by the first small access network node to the macro access network node;and sending, by the gateway node, a second identifier and a fourth identifier to the macro access network node, so that the macro access network node sends the second identifier to the first small access network node and sends the fourth identifier to the core network node, wherein the second identifier is used to enable the gateway node to identify uplink user data sent by the first small access network node, the fourth identifier is used to enable the gateway node to identify downlink user data sent by the core network node, and the second identifier and the fourth identifier are allocated by the gateway node. after a core network node initiates a bearer setup request, receiving, by a gateway node, a first identifier and a third identifier that are sent by a macro access network node, wherein the first identifier is used to enable the core network node to identify uplink user data forwarded by the gateway node, the first identifier is sent by the core network node to the macro access network node, the third identifier is used to enable a first small access network node to identify downlink user data forwarded by the gateway node, and the third identifier is sent by the first small access network node to the macro access network node;and sending, by the gateway node, a second identifier and a fourth identifier to the macro access network node, so that the macro access network node sends the second identifier to the first small access network node and sends the fourth identifier to the core network node, wherein the second identifier is used to enable the gateway node to identify uplink user data sent by the first small access network node, the fourth identifier is used to enable the gateway node to identify downlink user data sent by the core network node, and the second identifier and the fourth identifier are allocated by the gateway node.
An apparatus, comprising: a crossbar including a plurality of crossbar nodes arranged in an array of rows and columns, each crossbar node being programmable to either a high resistance state or a low resistance state, the crossbar being configured to sum a plurality of analog input activation signals over each column of crossbar nodes and output a plurality of summed activation signals; and a multiplier, coupled to the crossbar, including a plurality of multiplier nodes, each multiplier node being programmable to a different conductance level proportional to one of a plurality of neural network weights, the multiplier being configured to input the plurality of summed activation signals to the multiplier nodes, perform a multiply-and-accumulate operation, and output an analog output activation signal. a crossbar including a plurality of crossbar nodes arranged in an array of rows and columns, each crossbar node being programmable to either a high resistance state or a low resistance state, the crossbar being configured to sum a plurality of analog input activation signals over each column of crossbar nodes and output a plurality of summed activation signals; and a multiplier, coupled to the crossbar, including a plurality of multiplier nodes, each multiplier node being programmable to a different conductance level proportional to one of a plurality of neural network weights, the multiplier being configured to input the plurality of summed activation signals to the multiplier nodes, perform a multiply-and-accumulate operation, and output an analog output activation signal.
Device for selecting a combination of patterns, particularly for a timepiece, which comprises: ▪ a first disc, called inner disc, the inner disc comprising N angular sectors of the same size, each of the N angular sectors bearing a symbol (A, B, C, D) on its periphery, a symbol being defined as a pattern or a lack of a pattern, with N being a whole number greater than 1; ▪ a second disc, called outer disc, coaxial to the inner disc and having a larger diameter than the inner disc, the outer disc bearing M symbols (E, F, G, H) distributed over M*N angular sectors of the same size, with M being a whole number greater than 1, each of the M symbols of the outer disc being repeated on N consecutive sectors of the outer disc; ▪ a dial extending opposite the inner disc, the dial comprising an aperture allowing a pattern (A, B, C, D) of the inner disc to be matched with a pattern (E, F, G, H) of the outer disc; ▪ activation means allowing the inner disc to be set into rotation and meshing means coupling the two discs (DI, DE) according to a speed reducing ratio M, so that the outer disc slower than the inner disc, the driving disc being the outer disc and the driven disc being the inner disc. ▪ a first disc, called inner disc, the inner disc comprising N angular sectors of the same size, each of the N angular sectors bearing a symbol (A, B, C, D) on its periphery, a symbol being defined as a pattern or a lack of a pattern, with N being a whole number greater than 1; ▪ a second disc, called outer disc, coaxial to the inner disc and having a larger diameter than the inner disc, the outer disc bearing M symbols (E, F, G, H) distributed over M*N angular sectors of the same size, with M being a whole number greater than 1, each of the M symbols of the outer disc being repeated on N consecutive sectors of the outer disc; ▪ a dial extending opposite the inner disc, the dial comprising an aperture allowing a pattern (A, B, C, D) of the inner disc to be matched with a pattern (E, F, G, H) of the outer disc; ▪ activation means allowing the inner disc to be set into rotation and meshing means coupling the two discs (DI, DE) according to a speed reducing ratio M, so that the outer disc slower than the inner disc, the driving disc being the outer disc and the driven disc being the inner disc.
A kit for use in revision shoulder arthroplasty comprising: at least one revision glenoid component including a base component having a lip defining a first circular outer periphery and a bottom surface defining a second circular outer periphery, characterised in that the glenoid component is a revision glenoid component, and the kit includes a reaming device which has a shaft and a working portion, the working portion including a central reamer portion for reaming a circular cavity in the glenoid, and an outer planing portion for planing the surface of the glenoid around the reamed circular cavity, the reamer portion being shaped complementarily to, and slightly larger than, the base component such that when a cavity is formed in the glenoid with the reaming device, the base component fits within the cavity without being press-fit into the cavity. at least one revision glenoid component including a base component having a lip defining a first circular outer periphery and a bottom surface defining a second circular outer periphery, characterised in that the glenoid component is a revision glenoid component, and the kit includes a reaming device which has a shaft and a working portion, the working portion including a central reamer portion for reaming a circular cavity in the glenoid, and an outer planing portion for planing the surface of the glenoid around the reamed circular cavity, the reamer portion being shaped complementarily to, and slightly larger than, the base component such that when a cavity is formed in the glenoid with the reaming device, the base component fits within the cavity without being press-fit into the cavity.
An element, comprising: a first electrode; an intermediate layer; and a second electrode, the first electrode, the intermediate layer, and the second electrode being laminated in this order, wherein the intermediate layer has flexibility, wherein a universal hardness, H1, at an indentation depth of 10 μm on a side of the first electrode of the intermediate layer is different from a universal hardness, H2, at an indentation depth of 10 μm on a side of the second electrode of the intermediate layer, and wherein an oxygen concentration profile in a thickness direction of the intermediate layer has a local maximum value. a first electrode; an intermediate layer; and a second electrode, the first electrode, the intermediate layer, and the second electrode being laminated in this order, wherein the intermediate layer has flexibility, wherein a universal hardness, H1, at an indentation depth of 10 μm on a side of the first electrode of the intermediate layer is different from a universal hardness, H2, at an indentation depth of 10 μm on a side of the second electrode of the intermediate layer, and wherein an oxygen concentration profile in a thickness direction of the intermediate layer has a local maximum value.
A compact container for cosmetics, comprising: an outer container comprising a lid; a first inner container coupled to an inner side of the outer container, wherein an inside of the first inner container is filled with a first cosmetic; an inner container lid for opening and closing the first inner container; and a second inner container rotatably coupled to the outer container and having a cosmetic storage space filled with a second cosmetic, wherein the second inner container is closed when placed on the inner container lid, wherein the lid of the outer container closes the outer container while blocking the first inner container, the inner container lid, and the second inner container from outside characterized in that a ring-shaped sealing protrusion is formed on a top surface of the inner container lid to seal the cosmetic storage space of the second inner container. an outer container comprising a lid; a first inner container coupled to an inner side of the outer container, wherein an inside of the first inner container is filled with a first cosmetic; an inner container lid for opening and closing the first inner container; and a second inner container rotatably coupled to the outer container and having a cosmetic storage space filled with a second cosmetic, wherein the second inner container is closed when placed on the inner container lid, wherein the lid of the outer container closes the outer container while blocking the first inner container, the inner container lid, and the second inner container from outside characterized in that a ring-shaped sealing protrusion is formed on a top surface of the inner container lid to seal the cosmetic storage space of the second inner container.
A node deployment system comprising: a cable supply configured to provide a cable for attachment of one or more nodes, the one or more nodes configured for deployment to a water column along the cable; and a coupling apparatus configured to drive the cable, characterised in that the coupling apparatus comprises a cable buffering system (200, 506, 508) configured to reduce an attachment speed of one or more selected positions along the cable when adjacent to the coupling apparatus for attachment of the one or more nodes, without changing a deployment speed at which the cable is deployed to the water column. a cable supply configured to provide a cable for attachment of one or more nodes, the one or more nodes configured for deployment to a water column along the cable; and a coupling apparatus configured to drive the cable, characterised in that the coupling apparatus comprises a cable buffering system (200, 506, 508) configured to reduce an attachment speed of one or more selected positions along the cable when adjacent to the coupling apparatus for attachment of the one or more nodes, without changing a deployment speed at which the cable is deployed to the water column.
A method of operating an optical lidar device for detection of at least one gas, the method comprising: tuning a first emission wavelength of a first output radiation of a semiconductor laser device continuously within a first wavelength spectrum by modulating a drive current thereof with a first drive current modulation having a frequency of at least 100 kHz to scan the first wavelength spectrum at a rate of at least 1 μm per second, the first wavelength spectrum comprising a first spectral feature associated with at least part of a gas absorption spectrum of the at least one gas; outputting, by the laser device, the tuned first output radiation; modulating the tuned first output radiation output from the laser device with a first output modulation to allow matching of received scattered radiation with corresponding transmitted radiation, the first output modulation comprising a first plurality of binary pulses; projecting the modulated first output radiation towards a first target area; receiving scattered radiation from the first target area; and processing the received scattered radiation and fitting the processed data to one or more measured absorption spectra to detect the presence or concentration of the gas to be detected. tuning a first emission wavelength of a first output radiation of a semiconductor laser device continuously within a first wavelength spectrum by modulating a drive current thereof with a first drive current modulation having a frequency of at least 100 kHz to scan the first wavelength spectrum at a rate of at least 1 μm per second, the first wavelength spectrum comprising a first spectral feature associated with at least part of a gas absorption spectrum of the at least one gas; outputting, by the laser device, the tuned first output radiation; modulating the tuned first output radiation output from the laser device with a first output modulation to allow matching of received scattered radiation with corresponding transmitted radiation, the first output modulation comprising a first plurality of binary pulses; projecting the modulated first output radiation towards a first target area; receiving scattered radiation from the first target area; and processing the received scattered radiation and fitting the processed data to one or more measured absorption spectra to detect the presence or concentration of the gas to be detected.
A polypeptide consisting of the amino acid sequences SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, and SEQ ID NO: 5, wherein SEQ ID NO: 2 and 4 are joined by a disulfide bond at amino acid positions 57 and 111 with reference to SEQ ID NO: 1, and SEQ ID NO: 3 and 5 are joined by (a) a disulfide bond at amino acid positions 82 and 142 with reference to SEQ ID NO: 1, and (b) a disulfide bond at amino acid positions 86 and 144 with reference to SEQ ID NO: 1.
Turbomachine having a housing, which has a housing duct for the inflow or outflow of working medium, and having a rotor, which is arranged so as to be rotatable about an axis of rotation and has a multiplicity of rotor blades, which form rotor blade ducts, wherein the rotor blade ducts communicate with the housing duct via guide blade ducts (42, 242"), which are fixed in relation to the housing and have a guide blade duct opening on the rotor side and a guide blade duct opening (48, 248") on the housing duct side, characterized in that the guide blade ducts (42, 242) have a constriction (50, 250) and have a divergent cross section between the constriction (50, 250) and the guide blade duct opening on the rotor side and a convergent cross section between the constriction and the guide blade duct opening on the housing duct side.
A protective strip (1; 100) for an edge of a plate (3; 30) intended to be assembled on a support surface with at least one other plate, the plates being arranged side by side, said strip (1; 100) including a housing (5; 105) for receiving said edge, said strip (1; 100) comprising a flat main body (20; 120) provided, on at least one part (60 to 63; 160 to 163), with at least one housing (50 to 53; 150 to 153) for receiving at least one part, with a complementary shape, of an edge of a plate (3; 30), on the one hand, and at least one receiving housing (8; 18, 18') for a lug for securing said plate (3; 30) on a support surface, said body (20; 120) of the strip further being provided with at least one housing (17, 17'; 117) for receiving a part (18, 18'; 12) of another strip (1; 100) for protecting an edge of another plate (3; 30), when the two plates are arranged side by side, in the assembled configuration, on the support surface, said strips (1; 100) having complementary shapes, on the other hand, characterized in that the body (20; 20) of strip (1; 100) comprises at least two notches (50 to 53; 150 to 153) arranged in two parts (60 to 63; 160 to 163) connected by a strip of material (191, 191'; 291), the notches (50 to 53; 150 to 153) forming a housing for receiving two parts of a discontinuous edge of a plate.
An information sending method performed by a first access network device, wherein the method comprises: determining a first timing adjustment amount, wherein the first timing adjustment amount is an adjustment amount between a first timing at which the first access network device sends a first downlink signal to a first terminal device on a first frequency band and a second timing at which the first access network device sends a second downlink signal to the first terminal device on a second frequency band, and the first frequency band and the second frequency band are paired frequency bands; and sending first indication information to the first terminal device, wherein the first indication information indicates the first timing adjustment amount. determining a first timing adjustment amount, wherein the first timing adjustment amount is an adjustment amount between a first timing at which the first access network device sends a first downlink signal to a first terminal device on a first frequency band and a second timing at which the first access network device sends a second downlink signal to the first terminal device on a second frequency band, and the first frequency band and the second frequency band are paired frequency bands; and sending first indication information to the first terminal device, wherein the first indication information indicates the first timing adjustment amount.
An eccentricity calculating method for determining eccentricity information of a center line of a scale with respect to a rotational axis line, in a rotary encoder, wherein the rotary encoder has the scale in which a pattern is arranged, and has a pair of sensor units (7, 17) that read the pattern of the scale, wherein the scale moves, relatively to the pair of sensor units (7, 17), around the rotational axis line, and the pair of sensor units (7, 17) are arranged so as to be opposite to each other sandwiching the rotational axis line therebetween, the eccentricity calculating method comprising: acquiring an output signal from each of the pair of sensor units (7, 17), in a plurality of rotation angles by which the scale has been moved relatively to the pair of sensor units (7, 17), determining first phase information based on the output signal that has been obtained from one of the pair of sensor units (7, 17), and second phase information based on the output signal that has been obtained from the other one of the pair of sensor units (7, 17), characterized by determining a differential value between a first value and a second value, wherein the first value is any one of the first phase information and the second phase information, and the second value is an average value of the first phase information and the second phase information, and determining the eccentricity information, based on the differential value. the scale moves, relatively to the pair of sensor units (7, 17), around the rotational axis line, and the pair of sensor units (7, 17) are arranged so as to be opposite to each other sandwiching the rotational axis line therebetween, acquiring an output signal from each of the pair of sensor units (7, 17), in a plurality of rotation angles by which the scale has been moved relatively to the pair of sensor units (7, 17), determining first phase information based on the output signal that has been obtained from one of the pair of sensor units (7, 17), and second phase information based on the output signal that has been obtained from the other one of the pair of sensor units (7, 17), characterized by determining a differential value between a first value and a second value, wherein the first value is any one of the first phase information and the second phase information, and the second value is an average value of the first phase information and the second phase information, and determining the eccentricity information, based on the differential value.
An apparatus for performing nucleic acid amplification reactions, comprising: a receptacle holder comprised of a heat conducting material, said receptacle holder having a front surface and a back surface, the front surface comprising a row of receptacle wells, wherein an outer surface of each of the receptacle wells has a frustoconical shape, wherein an inner surface of each of the receptacle wells is defined to receive a receptacle, and wherein each of the receptacle wells has a through-hole extending between the inner and outer surfaces thereof; one or more thermal elements positioned proximal to the receptacle holder for altering a temperature or temperatures of the receptacle holder; and a plurality of optical fibers, each optical fiber having a first end and a second end, wherein the first end of the optical fiber is in optical communication with one of the receptacle wells, and wherein the second end of the optical fiber is in optical communication with at least one of an excitation signal source and an emission signal detector, the first end of each of the optical fibers being disposed outside, within, or extending through a corresponding through-hole in each receptacle well. a receptacle holder comprised of a heat conducting material, said receptacle holder having a front surface and a back surface, the front surface comprising a row of receptacle wells, wherein an outer surface of each of the receptacle wells has a frustoconical shape, wherein an inner surface of each of the receptacle wells is defined to receive a receptacle, and wherein each of the receptacle wells has a through-hole extending between the inner and outer surfaces thereof; one or more thermal elements positioned proximal to the receptacle holder for altering a temperature or temperatures of the receptacle holder; and a plurality of optical fibers, each optical fiber having a first end and a second end, wherein the first end of the optical fiber is in optical communication with one of the receptacle wells, and wherein the second end of the optical fiber is in optical communication with at least one of an excitation signal source and an emission signal detector, the first end of each of the optical fibers being disposed outside, within, or extending through a corresponding through-hole in each receptacle well.