mhurhangee/ep-ind-claims huggingface dataset:
A knee prosthesis, comprising: a tibial plateau; a femoral condyle component, provided above the tibial plateau, wherein the femoral condyle component comprises a medial condyle articular surface and a lateral condyle articular surface; and a spacer component between the tibial plateau and the femoral condyle component, wherein the spacer component comprises a medial spacer cooperating with the medial condyle articular surface and a lateral spacer cooperating with the lateral condyle articular surface, an upper surface of the tibial plateau is provided with a first spherical convex surface at a position corresponding to the lateral spacer, the lateral spacer is movably arranged on the tibial plateau, and a lower surface of the lateral spacer is provided with a first spherical concave surface cooperating with the first spherical convex surface; characterized in that, the tibial plateau comprises a plateau body, a peripheral side wall arranged on a circumferential edge of the plateau body, as well as a first medial wall and a second medial wall that are arranged inside the peripheral side wall, the lateral spacer is arranged inside a first space surrounded by the first medial wall and the peripheral side wall, the medial spacer is arranged inside a second space surrounded by the second medial wall and the peripheral side wall, wherein there is a height difference between the medial condyle articular surface and the lateral condyle articular surface. a tibial plateau; a femoral condyle component, provided above the tibial plateau, wherein the femoral condyle component comprises a medial condyle articular surface and a lateral condyle articular surface; and a spacer component between the tibial plateau and the femoral condyle component, wherein the spacer component comprises a medial spacer cooperating with the medial condyle articular surface and a lateral spacer cooperating with the lateral condyle articular surface, an upper surface of the tibial plateau is provided with a first spherical convex surface at a position corresponding to the lateral spacer, the lateral spacer is movably arranged on the tibial plateau, and a lower surface of the lateral spacer is provided with a first spherical concave surface cooperating with the first spherical convex surface; characterized in that, the tibial plateau comprises a plateau body, a peripheral side wall arranged on a circumferential edge of the plateau body, as well as a first medial wall and a second medial wall that are arranged inside the peripheral side wall, the lateral spacer is arranged inside a first space surrounded by the first medial wall and the peripheral side wall, the medial spacer is arranged inside a second space surrounded by the second medial wall and the peripheral side wall, wherein there is a height difference between the medial condyle articular surface and the lateral condyle articular surface.
A termination unit for a superconductive cable, the cable comprising at least one superconductive phase conductor (3A,3B,3C), the termination unit comprising - an internal electrically insulating envelope containing the at least one phase conductor (3A,3B,3C) of the cable in a cryogenic fluid, the internal envelope comprising, for each phase conductor (3A,3B,3C), one first electrical connector (6A,6B,6C) connected to the corresponding phase conductor (3A,3B,3C) and protruding from the internal envelope to the outside, - the termination unit further comprises an electrically conductive, casing surrounding the internal envelope and the first electrical connectors (6A,6B,6C) with a distance to the internal envelope, - the casing comprising one bushing (8A,8B,8C) for each one of the first electrical connectors (6A,6B,6C), each bushing (8A,8B,8C) being connected to one of the first electrical connectors (6A,6B,6C) by a second electrical connector (9A,9B,9C), and being adapted to transmit voltage and current from its associated phase conductor (3A,3B,3C), - the casing surrounds the internal envelope with such a distance that the respective first electrical connectors (6A,6B,6C) are covered by the casing, - the bushings (8A,8B,8C) pass through the wall of the casing and protrude from the same to the outside, characterized in that - the casing is an electrically conductive grounded casing, - the termination unit is grounded in its entirety by electrically connecting the grounded casing to a cryogenic envelope of the cable and - each bushing (8A,8B,8C) comprises an electrical field management component (11A,11B,11C). - an internal electrically insulating envelope containing the at least one phase conductor (3A,3B,3C) of the cable in a cryogenic fluid, the internal envelope comprising, for each phase conductor (3A,3B,3C), one first electrical connector (6A,6B,6C) connected to the corresponding phase conductor (3A,3B,3C) and protruding from the internal envelope to the outside, - the termination unit further comprises an electrically conductive, casing surrounding the internal envelope and the first electrical connectors (6A,6B,6C) with a distance to the internal envelope, - the casing comprising one bushing (8A,8B,8C) for each one of the first electrical connectors (6A,6B,6C), each bushing (8A,8B,8C) being connected to one of the first electrical connectors (6A,6B,6C) by a second electrical connector (9A,9B,9C), and being adapted to transmit voltage and current from its associated phase conductor (3A,3B,3C), - the casing surrounds the internal envelope with such a distance that the respective first electrical connectors (6A,6B,6C) are covered by the casing, - the bushings (8A,8B,8C) pass through the wall of the casing and protrude from the same to the outside, characterized in that - the casing is an electrically conductive grounded casing, - the termination unit is grounded in its entirety by electrically connecting the grounded casing to a cryogenic envelope of the cable and - each bushing (8A,8B,8C) comprises an electrical field management component (11A,11B,11C).
A power control method, comprising: obtaining(101,202) radio resource control RRC signaling, wherein the RRC signaling comprises a path loss compensation factor; and obtaining a target power parameter value for a power control parameter for a sounding reference signal, SRS, based on a preamble initial received target power value and a power adjustment value; obtaining downlink control information, DCI; obtaining a closed-loop power control parameter value for the SRS based on the DCI; determining transmit power for the SRS on a first carrier based on the target power parameter value for the SRS, the path loss compensation factor, and the closed-loop power control parameter for the SRS; wherein the first carrier is a carrier on which no physical uplink shared channel, PUSCH is sent; wherein the obtaining the closed-loop power control parameter value for the SRS based on the DCI comprises: obtaining transmission power control, TPC, information, wherein the TPC information is information scrambled with a first radio network temporary identifier, RNTI; and wherein the first RNTI is TPC-SRS-RNTI; parsing out the closed-loop power control parameter value for the SRS from the TPC information based on the first RNTI. obtaining transmission power control, TPC, information, wherein the TPC information is information scrambled with a first radio network temporary identifier, RNTI; and wherein the first RNTI is TPC-SRS-RNTI; parsing out the closed-loop power control parameter value for the SRS from the TPC information based on the first RNTI.
An image forming apparatus to which a cartridge is mountable and which is operable to form images at a first image formation speed and a second image forming speed, said image forming apparatus comprising: a control unit for setting an image forming condition so as to provide substantially the same line width of a horizontal line image formed using said cartridges irrespective of the image forming speed, the control unit being further configured to read a usage amount of the cartridge from a memory of the cartridge, and to set image forming conditions based on the usage amount of the cartridge and the set first or second image formation speed, wherein when said image forming apparatus operates at the first image formation speed set by the control unit, said control unit being further configured to set first image forming conditions on the basis of the usage amount of the cartridge, and when said image forming apparatus operates at the second image formation speed set by the control unit, said control unit being further configured to set second image forming conditions different from the first image forming conditions on the basis of the usage amount of the cartridge. a control unit for setting an image forming condition so as to provide substantially the same line width of a horizontal line image formed using said cartridges irrespective of the image forming speed, the control unit being further configured to read a usage amount of the cartridge from a memory of the cartridge, and to set image forming conditions based on the usage amount of the cartridge and the set first or second image formation speed, wherein when said image forming apparatus operates at the first image formation speed set by the control unit, said control unit being further configured to set first image forming conditions on the basis of the usage amount of the cartridge, and when said image forming apparatus operates at the second image formation speed set by the control unit, said control unit being further configured to set second image forming conditions different from the first image forming conditions on the basis of the usage amount of the cartridge.
Coiling furnace, in particular a coiling furnace for Steckel rolling mills, in which a hot-rolled strip can be coiled and uncoiled and, optionally, heated while being transported both forwards and backwards in a reversible manner on a furnace drum in the furnace interior, further comprising - a housing of the coiling furnace with a furnace opening for the strip to be coiled, - a first displaceable furnace door for at least partially closing the furnace opening, - a roller which can be displaced to or away from the furnace drum in order to secure the coiled strip end, characterised in that the first furnace door is designed to be rigid and to be rotatable about a first axis of rotation and the rotatable roller forms a second furnace door in conjunction with its suspension, which second furnace door is designed to be rigid and to be displaceable about a second axis of rotation and the furnace opening can be fully closed by means of the first and second furnace doors. - a housing of the coiling furnace with a furnace opening for the strip to be coiled, - a first displaceable furnace door for at least partially closing the furnace opening, - a roller which can be displaced to or away from the furnace drum in order to secure the coiled strip end, characterised in that the first furnace door is designed to be rigid and to be rotatable about a first axis of rotation and the rotatable roller forms a second furnace door in conjunction with its suspension, which second furnace door is designed to be rigid and to be displaceable about a second axis of rotation and the furnace opening can be fully closed by means of the first and second furnace doors.
Reactor component adapted to be used in fission reactors, comprising a core consisting of a first material and a layer consisting of a second material, wherein the layer at least partly encloses the core, wherein the reactor component comprises an intermediate layer between the core and the layer, characterized in that the layer consists of at least a substance chosen from the group of Ti, Zr, Al, Fe, Cr, Ni, SiC, SiN, ZrO 2, Al 2 O 3, and mixture thereof, and possible balance, and that the intermediate layer is arranged to provide a gradual transition of the properties from the first material to the second material and has a material gradient that comprises a decrease of the concentration of the first material from the core to the layer and an increase of the concentration of the second material from the core to the layer.
Method for operating a mobile, self-driving device, in particular a floor cleaning device for the autonomous treatment of floor areas such as a vacuuming and/or sweeping and/or mopping robot, comprising the following method steps: - performing an exploration journey of the mobile, self-driving device in an intended floor treatment region, - detecting bottlenecks by means of a detection facility and creating an environment map of the floor treatment region, - ascertaining obstacles that cause the bottlenecks, and representing the bottlenecks and/or obstacles in the environment map, characterised by displaying measures for eliminating the bottlenecks, wherein the measures include a placement aid for obstacles, in particular items of furniture and/or furnishings. - performing an exploration journey of the mobile, self-driving device in an intended floor treatment region, - detecting bottlenecks by means of a detection facility and creating an environment map of the floor treatment region, - ascertaining obstacles that cause the bottlenecks, and representing the bottlenecks and/or obstacles in the environment map,
A luminescent material doped with metal nano particles represented by the chemical formula of A 5-x (PO 4) 2 SiO 4:xRE@M y; wherein @ denotes coating, M is inner core, M is at least one of metal nanoparticles selected from Ag, Au, Pt, Pd and Cu; RE is one or two ions selected from Eu, Gd, Tb, Tm, Sm, Ce, Dy and Mn; A is one or two elements selected from Ca, Sr, Ba, Mg, Li, Na and K; x is stoichiometric number in a range of 0<x≤1; y is molar ratio of M to Si, 0<y≤0.01.
Method for computer-implemented configuration of a controlled drive application of a logistics system, wherein the logistics system comprises a plurality of parallel-running conveyor sections (10, 20, 30) for piece goods that each lead to a combining unit in the conveying direction, each of the conveyor sections (10, 20, 30) consisting of a plurality of conveyor subsections (11-13, 21-23, 31-33) that are accelerated or decelerated by a respectively associated drive (11A-13A, 21A-23A, 31A-33A) under the control of a computing unit in order to render the combining unit able to combine the piece goods onto a single output conveyor section at defined intervals, comprising the steps of: - determining a system model of the logistics system on the basis of operating data of the logistics system, the operating data being available for a multiplicity of times in the operation of the logistics system and comprising, for each time, measured values from sensors (18S-28S) of the logistics system and manipulated variable changes; - determining a control function of the logistics system, which control function comprises at least configuration data for the drives (11A-13A, 21A-23A, 31A-33A), on the basis of the system model by specifying one or more performance features to be attained in order to perform at least one control operation in the system model, involving simulating the operating data for a multiplicity of time steps, wherein a reward quantity is ascertained for each time step, wherein the control operation is used as the control function, involving a predefined fitness function that aggregates the reward quantities for a multiplicity of time steps satisfying a predetermined criterion. - determining a system model of the logistics system on the basis of operating data of the logistics system, the operating data being available for a multiplicity of times in the operation of the logistics system and comprising, for each time, measured values from sensors (18S-28S) of the logistics system and manipulated variable changes; - determining a control function of the logistics system, which control function comprises at least configuration data for the drives (11A-13A, 21A-23A, 31A-33A), on the basis of the system model by specifying one or more performance features to be attained in order to perform at least one control operation in the system model, involving simulating the operating data for a multiplicity of time steps, wherein a reward quantity is ascertained for each time step, wherein the control operation is used as the control function, involving a predefined fitness function that aggregates the reward quantities for a multiplicity of time steps satisfying a predetermined criterion.
An information transmission method, comprising: reporting, by a user equipment, UE, a channel quality indicator, CQI, value to an evolved NodeB, eNB, wherein the CQI value is for the eNB to determine a modulation and coding scheme, MCS, value; receiving, by the UE, the MCS value from the eNB; and receiving, by the UE, physical downlink shared channel, PDSCH, data according to the MCS value, wherein the CQI value is determined according to a second set of tables, and the MCS value is determined according to the second set of tables, wherein a modulation scheme that can be supported by the second set of tables is higher than 64QAM, the second set of tables includes a CQI table and a MCS table, and the CQI table includes 3 values corresponding to quadrature phase shift keying, QPSK, 3 values corresponding to 16 QAM, 5 values corresponding to 64QAM, and 4 values corresponding to 256QAM reporting, by a user equipment, UE, a channel quality indicator, CQI, value to an evolved NodeB, eNB, wherein the CQI value is for the eNB to determine a modulation and coding scheme, MCS, value; receiving, by the UE, the MCS value from the eNB; and receiving, by the UE, physical downlink shared channel, PDSCH, data according to the MCS value, wherein the CQI value is determined according to a second set of tables, and the MCS value is determined according to the second set of tables, wherein a modulation scheme that can be supported by the second set of tables is higher than 64QAM, the second set of tables includes a CQI table and a MCS table, and the CQI table includes 3 values corresponding to quadrature phase shift keying, QPSK, 3 values corresponding to 16 QAM, 5 values corresponding to 64QAM, and 4 values corresponding to 256QAM
A method, executed by a processor, of reducing waypoints representing a path defined along a route between two endpoints (S,D), the route including a set of critical points, the critical points including the endpoints (S, D) and any decision points (19, 20) of the route intermediate the two endpoints (S, D), wherein the decision points are located at each intersection or junction where the user must make a turn or take one of two or more possible roads, the method comprising: eliminating one or more waypoints of the path that are distal each critical point, while retaining waypoints that are proximal each critical point, by: identifying a respective proximal segment of the path associated with each critical point of the route; identifying a set of distal waypoints comprising any waypoints lying outside of the identified proximal segments of the path; and processing the set of distal waypoints. eliminating one or more waypoints of the path that are distal each critical point, while retaining waypoints that are proximal each critical point, by: identifying a respective proximal segment of the path associated with each critical point of the route; identifying a set of distal waypoints comprising any waypoints lying outside of the identified proximal segments of the path; and processing the set of distal waypoints.
A droplet separator for separating droplets from a vapor-droplet mixture in motion, comprising: a plurality of curved fins (201, 202, 203) made of a material; wherein each of the fins is curved in accordance with a radius of curvature, wherein the radius of curvature is between 1 cm and 10 cm, and wherein each fin of the plurality of fins forms a complete ring; and a holder for holding the curved fins at a distance to one another, wherein the fins (201, 202, 203) and the holder are configured such that direct passage through the droplet separator is concealed such that drops, due to a flight path of the drops, in a vapor-droplet mixture do not pass the droplet separator but impinge on a fin, wherein the droplet separator comprises a central region having a circular shape having a rotational symmetry around an axis, and wherein the fins (201, 202, 203) are curved towards the axis of the central region of the droplet separator both at a top end and a bottom end of a respective fin. a plurality of curved fins (201, 202, 203) made of a material; wherein each of the fins is curved in accordance with a radius of curvature, wherein the radius of curvature is between 1 cm and 10 cm, and wherein each fin of the plurality of fins forms a complete ring; and a holder for holding the curved fins at a distance to one another,
An avalanche photodiode (100, 200) comprising: a first region (110, 210) associated with a first terminal (112, 212); a second region (120, 220) associated with a second terminal (122, 222) and separated from the first region (110, 210) by a multiplication region (130, 230); an absorption region (132, 232) disposed on the multiplication region (130, 230) and associated with a third terminal (134, 234), the absorption region (132, 232) is configured to absorb photons and generate electrical carriers, and the multiplication region (130, 230) is configured to avalanche multiply the generated carriers and to sweep the carriers to the first region (110, 210) and/or the second region (120, 220), wherein: a multiplication region electric field is independently controllable with respect to an absorption region electric field, based on the first terminal, the second terminal, and the third terminal; the second region is separated from the first region by a separation distance; a second portion of the multiplication region is disposed on a first portion of the multiplication region; and the absorption region is disposed on the second portion of the multiplication region; characterized in that the multiplication region has a stepped geometry including a wider portion of the second portion of the multiplication region and a narrower portion of the second portion of the multiplication region, wherein the wider portion overlaps with the first region and/or the second region beyond the separation distance, while the narrower portion of the second portion of the multiplication region does not overlap. a first region (110, 210) associated with a first terminal (112, 212); a second region (120, 220) associated with a second terminal (122, 222) and separated from the first region (110, 210) by a multiplication region (130, 230); an absorption region (132, 232) disposed on the multiplication region (130, 230) and associated with a third terminal (134, 234), the absorption region (132, 232) is configured to absorb photons and generate electrical carriers, and the multiplication region (130, 230) is configured to avalanche multiply the generated carriers and to sweep the carriers to the first region (110, 210) and/or the second region (120, 220), a multiplication region electric field is independently controllable with respect to an absorption region electric field, based on the first terminal, the second terminal, and the third terminal; the second region is separated from the first region by a separation distance; a second portion of the multiplication region is disposed on a first portion of the multiplication region; and the absorption region is disposed on the second portion of the multiplication region; characterized in that the multiplication region has a stepped geometry including a wider portion of the second portion of the multiplication region and a narrower portion of the second portion of the multiplication region, wherein the wider portion overlaps with the first region and/or the second region beyond the separation distance, while the narrower portion of the second portion of the multiplication region does not overlap.