mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a user equipment, UE, for determining a Listen Before Talk, LBT, type for a Physical Uplink Shared Channel, PUSCH, transmission, which is scheduled by an uplink, UL, grant Downlink Control Information, DCI, comprising: obtaining a first indication about the LBT type; obtaining a second indication about a starting location T cot_s_1 of a first Base Station Channel Occupancy Time, BS COT, and an ending location T_cot_e_1 of the first BS COT; characterized by obtaining a third indication about a starting location T_pusch_s of a scheduled PUSCH resource and an ending location T_pusch_e of the scheduled PUSCH resource; determining the LBT type for the PUSCH transmission, based on the first, second and third indications, comprising: when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type. obtaining a first indication about the LBT type; obtaining a second indication about a starting location T cot_s_1 of a first Base Station Channel Occupancy Time, BS COT, and an ending location T_cot_e_1 of the first BS COT; characterized by obtaining a third indication about a starting location T_pusch_s of a scheduled PUSCH resource and an ending location T_pusch_e of the scheduled PUSCH resource; determining the LBT type for the PUSCH transmission, based on the first, second and third indications, comprising: when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type. when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type.
A test specimen, in particular composed of a polymer material, for studying the properties of a material for component design, comprising a hollow body, which has been sealed on one side by a curved base, and which, on the side opposite to the curved base, is sealable by a cover or by a second test specimen (1.2), and which also comprises a connection, which is connectable to a pressure line and/or fluid line, wherein the hollow body is of essentially cylindrical structure and has a flattened area on one side, where the flattened area comprises a flat region, and all of the transitions to the flattened area have been formed with a rounded area, and do not have sharp edges.
A collapsible medical device, comprising a braided metal fabric having an expanded preset configuration, the ends of the wire strands of the braid being secured in order to prevent the braid from unravelling, wherein said medical device is shaped to create an occlusion of an abnormal opening in a cardiac septal wall, whereby said expanded preset configuration is deformable to a lesser cross-sectional dimension for delivery through a channel in a patient's body, the braided metal fabric having a memory property such that the medical device tends to return to said expanded preset configuration when unconstrained, the expanded preset configuration comprising first and second expanded diameter portions (122, 124) respectively at distal and proximal ends of the device and a reduced diameter portion disposed between the two expanded diameter portions, said reduced diameter portion having a length dimension which approximates a thickness of the septal wall at the abnormal opening, in which at least one of said first and second expanded diameter portions (122, 124) is cupped towards the other of the first and second expanded diameter portions causing, in use, the perimeter edge of the cupped expanded diameter portion to fully engage the sidewall of the septum, characterised in that the collapsible medical device further comprises a recessed means for securing said strands adapted to be releasably coupled to a delivery device and said braided metal fabric has a recess receiving said means for securing in the expanded diameter portion at the proximal end of the device.
An integrated diode comprising: a silicon substrate; a silicon Schottky cell on the substrate; a heterojunction cell on the substrate, wherein the Schottky cell is adjacent to the heterojunction cell on the substrate; a common anode contact for both the Schottky cell and the heterojunction cell; a common cathode contact for both the Schottky cell and the heterojunction cell, and a guard collar at the periphery of the heterojunction cell arranged to terminate the heterojunction cell so as to protect the boundary between the heterojunction cell and the Schottky cell from leakage current; wherein the heterojunction cell comprises a pn junction defined by a layer of p-doped silicon germanium and a layer of n-doped silicon germanium. a silicon substrate; a silicon Schottky cell on the substrate; a heterojunction cell on the substrate, wherein the Schottky cell is adjacent to the heterojunction cell on the substrate; a common anode contact for both the Schottky cell and the heterojunction cell; a common cathode contact for both the Schottky cell and the heterojunction cell, and a guard collar at the periphery of the heterojunction cell arranged to terminate the heterojunction cell so as to protect the boundary between the heterojunction cell and the Schottky cell from leakage current; wherein the heterojunction cell comprises a pn junction defined by a layer of p-doped silicon germanium and a layer of n-doped silicon germanium.
Process for the preparation of an aqueous composition of zirconium carbonate and an alkali metal salt, characterized in that it comprises a stage consisting of reacting, in the aqueous phase, a zirconium compound and an alkali metal bicarbonate with a bicarbonate to zirconium molar ratio equal to or greater than 4:1, wherein the zirconium compound is chosen from basic zirconium carbonate, zirconium oxychloride (ZrOCI2) and basic zirconium sulphate.
A method of providing key information from a sender to one or more implementations of a white-box function, the method comprising: obtaining initial key information comprising a plurality of units that assume respective values; forming encoded key information from the initial key information, wherein the encoded key information comprises a plurality of encoded units that correspond to respective units of the initial key information, wherein said forming comprises, for each unit of the initial key information, selecting an encoding from a plurality of invertible encodings associated with said unit that are a secret shared between the sender and said one or more implementations of the white-box function and encoding said value assumed by said unit with said selected encoding to form the corresponding encoded unit; providing the encoded key information to said one or more implementations of the white-box function; and identifying the selected encodings to each implementation of the white-box function. obtaining initial key information comprising a plurality of units that assume respective values; forming encoded key information from the initial key information, wherein the encoded key information comprises a plurality of encoded units that correspond to respective units of the initial key information, wherein said forming comprises, for each unit of the initial key information, selecting an encoding from a plurality of invertible encodings associated with said unit that are a secret shared between the sender and said one or more implementations of the white-box function and encoding said value assumed by said unit with said selected encoding to form the corresponding encoded unit; providing the encoded key information to said one or more implementations of the white-box function; and identifying the selected encodings to each implementation of the white-box function.
A cataract surgical system, comprising: a laser source, configured to generate a first set of laser pulses; a guiding optic, coupled to the laser source, configured to guide the first set of laser pulses to a cataract target region in an eye; a laser controller, configured to generate an electronic representation of a target scan pattern, and to control the guiding optic (211. 212) to scan the first set of laser pulses according to a portion of the target scan pattern to create a first photo-disrupted region in the cataract target region; and a Swept-Source Optical Coherence Tomographic (SS-OCT) imaging system, configured to generate repeated images that include a portion of the first photo-disrupted region with an image resolution in the range of 0.5-10 million image points per image and a frame-rate in the range of 20-500 frames/sec; wherein the laser controller is configured to generate an electronic representation of a modified scan pattern in relation to the images generated by the SS-OCT imaging system, and to control the guiding optic to scan a second set of laser pulses according the modified scan pattern to create a second photo-disrupted region. a laser source, configured to generate a first set of laser pulses; a guiding optic, coupled to the laser source, configured to guide the first set of laser pulses to a cataract target region in an eye; a laser controller, configured to generate an electronic representation of a target scan pattern, and to control the guiding optic (211. 212) to scan the first set of laser pulses according to a portion of the target scan pattern to create a first photo-disrupted region in the cataract target region; and a Swept-Source Optical Coherence Tomographic (SS-OCT) imaging system, configured to generate repeated images that include a portion of the first photo-disrupted region with an image resolution in the range of 0.5-10 million image points per image and a frame-rate in the range of 20-500 frames/sec; wherein the laser controller is configured to generate an electronic representation of a modified scan pattern in relation to the images generated by the SS-OCT imaging system, and to control the guiding optic to scan a second set of laser pulses according the modified scan pattern to create a second photo-disrupted region.
Installation for producing a tyre component from raw rubber, comprising at least a drum for manufacture of the component and a device for handling the component, the drum comprising a helicoidal external wall and means for adjusting a diameter of the wall, the device comprising a supporting structure and arms extending opposite one another parallel to a main axis of the device and mounted with the ability to move in a direction radial to the axis so as to be able to move only while remaining equidistant from the axis.
A hand maneuverable laser welding gun for joining one or more metal pieces with a weld of predetermined strength, comprising: a laser source (16, 126) emitting a beam of light; a displaceable arm provided with an interior which forms a tunnel configured to guide the light towards a welding zone so as to produce the weld joining the workpieces; a stationary L-shaped arm provided with an inner channel in which a negative pressure may be created to remove welding debris accumulated during the welding operation and/or which is provided with a removable bottom allowing an operator to manually clean accumulated debris; a light trap located in a component of the stationary arm on the back side of the welding zone; a light sensor coupled to the trap and operative to detect light, which propagates through the welding zone, and output a signal upon detecting the light; and a controller operable to: receive and compare the detected light to a reference, and output a control signal coupled into the laser source (16, 126) so as to adjust the power of the beam to produce the weld of the predetermined strength. a laser source (16, 126) emitting a beam of light; a displaceable arm provided with an interior which forms a tunnel configured to guide the light towards a welding zone so as to produce the weld joining the workpieces; a stationary L-shaped arm provided with an inner channel in which a negative pressure may be created to remove welding debris accumulated during the welding operation and/or which is provided with a removable bottom allowing an operator to manually clean accumulated debris; a light trap located in a component of the stationary arm on the back side of the welding zone; a light sensor coupled to the trap and operative to detect light, which propagates through the welding zone, and output a signal upon detecting the light; and a controller operable to: receive and compare the detected light to a reference, and output a control signal coupled into the laser source (16, 126) so as to adjust the power of the beam to produce the weld of the predetermined strength. receive and compare the detected light to a reference, and output a control signal coupled into the laser source (16, 126) so as to adjust the power of the beam to produce the weld of the predetermined strength.
A cell culture comprising: T cells; B cells; and antigen-primed dendritic cells prepared by pulsing with antigen in vitro, wherein the T cells and B cells are present in a ratio of approximately 1:1. T cells; B cells; and antigen-primed dendritic cells prepared by pulsing with antigen in vitro, wherein the T cells and B cells are present in a ratio of approximately 1:1.
Crystalline Form I rosuvastatin zinc (2:1) salt of the Formula I having an X-ray powder diffractogram containing the specific diffraction angles of 6,621; 19,089; and 22,466 degrees 2Θ measured by using the Cu Kα radiation.
A dispensing device comprising: (a) an oral care composition, wherein the composition comprises fluoride, peroxide, a metal ion, or combinations thereof, (b) a body; (c) a rotating portion; (d) a dosing indicator, the dosing indicator comprising only: (i) a first dosing indicator symbol on the body, and (ii) a second dosing indicator symbol on the rotating portion, wherein a full rotation of the rotating portion is indicated by the first dosing indicator symbol and the second dosing indicator symbol start aligned, and after the rotation of the rotating portion in a single direction, the first dosing indicator symbol and second dosing indicator symbol end aligned, wherein a full rotation of the rotating portion releases from about 0.05g to about 0.25g of the composition. (a) an oral care composition, wherein the composition comprises fluoride, peroxide, a metal ion, or combinations thereof, (b) a body; (c) a rotating portion; (d) a dosing indicator, the dosing indicator comprising only: (i) a first dosing indicator symbol on the body, and (ii) a second dosing indicator symbol on the rotating portion, (i) a first dosing indicator symbol on the body, and (ii) a second dosing indicator symbol on the rotating portion,
A WIM system for detecting loads of vehicles on a roadway segment during crossing of a wheel of a vehicle over a WIM sensor; which WIM sensor is arranged in the roadway segment in the road surface flush with the roadway surface; which WIM sensor is more or less formed as an elongated profile along a longitudinal axis (XX') having at least one space (21, 22); in which space (21, 22) is arranged at least one force sensor; said force sensor generating a force sensor signal; which force sensor signal corresponds to a dynamic ground reaction force to the crossing wheel; wherein at least one acceleration sensor detects an acceleration of the road surface of the roadway segment in which the WIM sensor is arranged in at least one spatial direction which it provides as the acceleration sensor signal; characterized in that said WIM system comprises a microprocessor and at least one non-volatile memory element; that an algorithm is stored in said non-volatile memory element which can be loaded into the microprocessor; said algorithm uses a digital acceleration sensor signal from the acceleration sensor and calculates the deflection of the road surface, said deflection being defined by deflection parameters; and in that the algorithm uses the deflection parameters and a digital force sensor signal from the force sensor and calculates and provides a corrected force sensor signal.
An electrolyte solution comprising at least one solvent as component A, at least one electrolyte as component B and from 0.1 to 20% by weight, based on the total electrolyte solution, of at least one compound of the general formula, as component C, where X 1, X 2, X 3, R 2 and m have the following meanings: X 1 is N, X 2 is CH, X 3 is 0 or S, m is an integer from 0 to 4, where at least two of X 1, X 2 and X 3 are heteroatoms selected from among N, 0 and S, the radicals R 2 are selected independently from the group consisting of linear or branched, substituted or unsubstituted C 1 -C 12 -alkyl optionally interrupted by at least one heteroatom, substituted or unsubstituted C 3 -C 12 -cycloalkyl optionally interrupted by at least one heteroatom, substituted or unsubstituted C 5 -C 20 -aryl, substituted or unsubstituted C 5 -C 20 -heteroaryl, halides and functional groups having electron-pulling character. X 1 is N, X 2 is CH, X 3 is 0 or S, m is an integer from 0 to 4,
A mobile communication system having a mobile station and a plurality of radio network controllers (101_0, 101_1) that are provided in a mobile communication network, communicate with the mobile station via base stations (102_0,..., 102_5) and include a first and a second radio network controller (101_0, 101_1), wherein: the mobile station is configured to receive data from a host network that is delivered through a first transmission path from the first radio network controller (101_0) to the second radio network controller (101_1), the first radio network controller (101_0) is configured to request the second radio network controller (101_1) to reserve a second transmission path from the host network to the second radio network controller (101_1), the second radio network controller (101_1) is configured to, in accordance with the request from the first radio network controller, reserve the second transmission path, receive data destined for the mobile station from the first radio network controller (101_0) through the first transmission path and receive another data destined for the mobile station from the host network through the second transmission path and send both data to the mobile station via a base station (102_5); and the mobile station is configured to receive from the second radio network controller (101_1) via the base station (102_5) said data that is delivered to the second radio network controller (101_1) through the first and second transmission paths (PT1, P1). the mobile station is configured to receive data from a host network that is delivered through a first transmission path from the first radio network controller (101_0) to the second radio network controller (101_1), the first radio network controller (101_0) is configured to request the second radio network controller (101_1) to reserve a second transmission path from the host network to the second radio network controller (101_1), the second radio network controller (101_1) is configured to, in accordance with the request from the first radio network controller, reserve the second transmission path, receive data destined for the mobile station from the first radio network controller (101_0) through the first transmission path and receive another data destined for the mobile station from the host network through the second transmission path and send both data to the mobile station via a base station (102_5); and the mobile station is configured to receive from the second radio network controller (101_1) via the base station (102_5) said data that is delivered to the second radio network controller (101_1) through the first and second transmission paths (PT1, P1).
Halogen-free fire-retardant thermoplastic composition characterized in that it consists of: - 50% to 75% by weight of fire-retardant fillers, - 15% to 40% by weight of a copolymer of ethylene and of an ethylenic monomer bearing a polar function, - 5% to 15% by weight of a non-functionalized polyethylene consisting of a very low density polyethylene (VLDPE) having a density of between 0.85 and 0.91, - and 1.5% to 6% by weight of a copolymer of ethylene and of an ethylenic monomer bearing a polar function having an MFI of greater than 60 g.10 min -1 at 190°C under 2.16 kg or of a copolymer of ethylene and of an ethylenic monomer bearing a polar function and comprising a plurality of maleic anhydride grafts, - from 2% to 15% by weight of a coupling agent comprising, preferably consisting of, a maleic anhydride-grafted polyolefin and/or an ethylene/acrylate/maleic anhydride terpolymer, - optionally, up to 5% by weight of functional additives, characterized in that the fire-retardant fillers are natural hydrated mineral fillers chosen from gibbsite (aluminium hydroxide), hydromagnesite, dawsonite, brucite (magnesium hydroxide), magnesium carbonate subhydrate, boehmite, calcium hydroxide or huntite or a mixture of these compounds. - 50% to 75% by weight of fire-retardant fillers, - 15% to 40% by weight of a copolymer of ethylene and of an ethylenic monomer bearing a polar function, - 5% to 15% by weight of a non-functionalized polyethylene consisting of a very low density polyethylene (VLDPE) having a density of between 0.85 and 0.91, - and 1.5% to 6% by weight of a copolymer of ethylene and of an ethylenic monomer bearing a polar function having an MFI of greater than 60 g.10 min -1 at 190°C under 2.16 kg or of a copolymer of ethylene and of an ethylenic monomer bearing a polar function and comprising a plurality of maleic anhydride grafts, - from 2% to 15% by weight of a coupling agent comprising, preferably consisting of, a maleic anhydride-grafted polyolefin and/or an ethylene/acrylate/maleic anhydride terpolymer, - optionally, up to 5% by weight of functional additives,