mhurhangee/ep-ind-claims huggingface dataset:
A method of performing, by a user equipment, UE, a sidelink transmission in a sidelink transmission mode 3 in a wireless communication system, the method comprising: receiving, from a base station, BS, uplink-downlink configuration for a time division duplex, TDD, operation; receiving, from the BS, a sidelink grant to be used for scheduling of the sidelink transmission based on the uplink-downlink configuration for the TDD operation on a first carrier, wherein the sidelink grant includes control information indicating an offset of a specific subframe associated with the sidelink grant; determining the specific subframe on a second carrier based on an offset value indicated by the control information and a value of a fixed offset corresponding to each subframe set to downlink subframe or special subframe by the uplink-downlink configuration for the TDD; and performing the sidelink transmission in the specific subframe on the second carrier, wherein the value of the fixed offset corresponds to '4', '5' or '6' according to the each subframe, wherein a size of the control information is 2 bits, and wherein, based on the control information being set to '00', '01', '10', or '11', the value indicated by the control information is '0', '1', '2', or '3', respectively. receiving, from a base station, BS, uplink-downlink configuration for a time division duplex, TDD, operation; receiving, from the BS, a sidelink grant to be used for scheduling of the sidelink transmission based on the uplink-downlink configuration for the TDD operation on a first carrier, wherein the sidelink grant includes control information indicating an offset of a specific subframe associated with the sidelink grant; determining the specific subframe on a second carrier based on an offset value indicated by the control information and a value of a fixed offset corresponding to each subframe set to downlink subframe or special subframe by the uplink-downlink configuration for the TDD; and performing the sidelink transmission in the specific subframe on the second carrier, wherein the value of the fixed offset corresponds to '4', '5' or '6' according to the each subframe, wherein a size of the control information is 2 bits, and wherein, based on the control information being set to '00', '01', '10', or '11', the value indicated by the control information is '0', '1', '2', or '3', respectively.
A transmission apparatus configured to produce, generate and/or transmit a unipolar signal representative of an original bipolar signal comprising one or more data frames, wherein: the transmission apparatus is configured to convert each of the one or more frames of the original bipolar signal into, and transmit each of the one or more frames of the original bipolar signal as, a plurality of unipolar portions, frames (50a, 50b, 50a', 50b', 50a", 50b") or frame portions of one or more information stream; and the transmission apparatus is configured to concurrently transmit the one or more information stream and at least one other information stream, wherein the transmission apparatus is configured to configure the at least one other information stream such that symmetry and/or content of the portions, frames or frame portions of the at least one other information stream are such that the interference due to the at least one other information stream on the one or more information stream does not adversely affect, and/or does not prohibit the reading and/or recovery of, the information carried in the one or more information stream; by configuring the at least one other information stream such that the symmetry and/or content of the portions, frames or frame portions of the at least one other information stream are such that the interference due to the at least one other information stream is orthogonal to the one or more information stream. the transmission apparatus is configured to convert each of the one or more frames of the original bipolar signal into, and transmit each of the one or more frames of the original bipolar signal as, a plurality of unipolar portions, frames (50a, 50b, 50a', 50b', 50a", 50b") or frame portions of one or more information stream; and the transmission apparatus is configured to concurrently transmit the one or more information stream and at least one other information stream, wherein the transmission apparatus is configured to configure the at least one other information stream such that symmetry and/or content of the portions, frames or frame portions of the at least one other information stream are such that the interference due to the at least one other information stream on the one or more information stream does not adversely affect, and/or does not prohibit the reading and/or recovery of, the information carried in the one or more information stream; by configuring the at least one other information stream such that the symmetry and/or content of the portions, frames or frame portions of the at least one other information stream are such that the interference due to the at least one other information stream is orthogonal to the one or more information stream.
Multilayer material comprising n base units with n a natural, non-zero integer, a base unit B consisting of a laminate comprising, in order: - a cross-linked silicone resin layer comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, - an impregnated silica or alumina fabric or knit layer, the fabric or knit being provided with gaps, all impregnated with a cross-linked silicone resin, comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, wherein: - the number n of base units is between 1 and 5 inclusive, - the n th base unit being covered with another cross-linked silicone resin layer, also comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, so as to form a laminate formed of an alternating resin layer and a fabric or knit layer. - a cross-linked silicone resin layer comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, - an impregnated silica or alumina fabric or knit layer, the fabric or knit being provided with gaps, all impregnated with a cross-linked silicone resin, comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, - the number n of base units is between 1 and 5 inclusive, - the n th base unit being covered with another cross-linked silicone resin layer, also comprising graphite particles expandable from a temperature greater than a cross-linking temperature of said resin, so as to form a laminate formed of an alternating resin layer and a fabric or knit layer.
A connecting clip (20, 20") for a wire back panel shelving system (10; 10', 10") with at least a first clip-in snap element (24, 24") for clipping onto a wire back panel portion (12; 12', 12") of the wire back panel shelving system (10; 10', 10") and with at least one suspension hook (22, 22") for suspending from a load-bearing shelf element or a column of the wire back panel shelving system (10; 10'; 10"), wherein an additional clip-in snap element (28, 28") is provided which is arranged perpendicularly to the first clip-in snap element (24, 24"), wherein the suspension hook (22") is designed as a double suspension hook with two suspension hook openings (32") which face away from each other, and wherein in addition to the first additional clip-in snap element (28") a further second additional clip-in snap element (36") is provided which is arranged perpendicularly to the first clip-in snap element (24") and the opening of which faces the opening of the first additional clip-in snap element (28"), characterised in that the first additional clip-in snap element (28") has an opening cross-section which is flush with a suspension hook opening (32") of the suspension hook (22").
An engineered transaminase polypeptide capable of converting a racemic mixture of compound to compound in at least a 2:1 diastereomeric ratio relative to compound under suitable reaction conditions, the transaminase polypeptide comprising an amino acid sequence having at least 80% sequence identity to the reference polypeptide of SEQ ID NO: 6 and one or more amino acid residue differences as compared to SEQ ID NO: 6 selected from the following: X124I; X124V; X124L; X124F; X124R; X215F; and X215Y.
Power supply device for supplying power from the mains to an actuator for manoeuvring a mobile home automation screen and comprising an electric motor, command reception means and an energy storage means making it possible to supply power to the command reception means in a standby mode of the actuator, characterized in that no current is absorbed from the mains during the standby mode, and in that it comprises a series coupling means for recharging the storage means when a current is absorbed from the mains through this coupling means and a mains detection means able to trigger the charging of the storage means when the mains voltage first appears on the power supply device.
Surgical cutter intended in particular for the plasty or prosthetic replacement of a knee ligament and comprising: - a blade-holder tube provided with a handle at one of the ends thereof, - a blade of generally rectangular shape mounted pivotably, at the other end of said blade-holder tube, about a rotation axis perpendicular to the longitudinal axis thereof between a "retracted" position wherein it does not protrude from the body of said blade-holder, and a "deployed" position, and - locking means suitable for locking said blade in the "retracted" position or "deployed" position, said cutter being characterised in that the blade rotates freely when it is not locked by the locking means and in that it extends on either side of said blade-holder tube when it is in the "deployed" position. - a blade-holder tube provided with a handle at one of the ends thereof, - a blade of generally rectangular shape mounted pivotably, at the other end of said blade-holder tube, about a rotation axis perpendicular to the longitudinal axis thereof between a "retracted" position wherein it does not protrude from the body of said blade-holder, and a "deployed" position, and - locking means suitable for locking said blade in the "retracted" position or "deployed" position,
A composition comprising a silicate as the active ingredient for use in a method of healing a wound, wherein the composition has a pH in the range of 6.0-8.0.
A method for producing a semiconducting single-walled carbon nanotube dispersion, comprising: a step A of preparing a to-be-separated single-walled carbon nanotube dispersion that includes single-walled carbon nanotubes comprising a semiconducting single-walled carbon nanotube and a metallic single-walled carbon nanotube, an aqueous medium, and a polymer including a structural unit A derived from a monomer represented by the following formula; and a step B of centrifuging the to-be-separated single-walled carbon nanotube dispersion and subsequently collecting a supernatant including the semiconducting single-walled carbon nanotube from the centrifuged to-be-separated single-walled carbon nanotube dispersion, wherein a weight-average molecular weight of the polymer is 1,000 or more and 100,000 or less: CH 2 =CH-COOM where M represents any one of a hydrogen atom, a metal atom, or a group having a structure represented by the following Formula: where R 1, R 2, R 3, and R 4 independently represent a hydrogen atom or an alkyl group having 1 to 2 carbon atoms that optionally has a hydroxyl group; wherein a content of the structural unit A is 50mol% or more in all structural units contained in the polymer. a step A of preparing a to-be-separated single-walled carbon nanotube dispersion that includes single-walled carbon nanotubes comprising a semiconducting single-walled carbon nanotube and a metallic single-walled carbon nanotube, an aqueous medium, and a polymer including a structural unit A derived from a monomer represented by the following formula; and a step B of centrifuging the to-be-separated single-walled carbon nanotube dispersion and subsequently collecting a supernatant including the semiconducting single-walled carbon nanotube from the centrifuged to-be-separated single-walled carbon nanotube dispersion, wherein a weight-average molecular weight of the polymer is 1,000 or more and 100,000 or less: CH 2 =CH-COOM where M represents any one of a hydrogen atom, a metal atom, or a group having a structure represented by the following Formula: where R 1, R 2, R 3, and R 4 independently represent a hydrogen atom or an alkyl group having 1 to 2 carbon atoms that optionally has a hydroxyl group; wherein a content of the structural unit A is 50mol% or more in all structural units contained in the polymer.
A surgically implantable device (300, 400, 600) for securing first and second portions of a surgically implantable band, the device comprising: a surgically implantable plate (318, 418, 618) including a first aperture (332, 432, 632) extending therethrough and a retaining member (352, 452, 653) extending radially into the first aperture, the retaining member at least partially defining a second aperture (352, 452, 653) in communication with the first aperture, the first and second portions of the band extending through the first aperture radially outside of the second aperture; wherein the device (300, 400, 600) further comprises a surgically implantable cam member (316, 416, 616) received in the first aperture between the first and second portions and engaging threads (352, 452, 653) of the second aperture for rotation relative thereto between an unlocked state and a locked state, the cam member and the plate defining a gap in which the implantable band is received, the gap having a width that is reduced in the locked state compared to the unlocked state, so that in the unlocked state at least one of the first and second portions is allowed to move relative to the plate and in the locked state the reduced width gap restricts movement of the at least one of the first and second portions relative to the plate. a surgically implantable plate (318, 418, 618) including a first aperture (332, 432, 632) extending therethrough and a retaining member (352, 452, 653) extending radially into the first aperture, the retaining member at least partially defining a second aperture (352, 452, 653) in communication with the first aperture, the first and second portions of the band extending through the first aperture radially outside of the second aperture; wherein the device (300, 400, 600) further comprises a surgically implantable cam member (316, 416, 616) received in the first aperture between the first and second portions and engaging threads (352, 452, 653) of the second aperture for rotation relative thereto between an unlocked state and a locked state, the cam member and the plate defining a gap in which the implantable band is received, the gap having a width that is reduced in the locked state compared to the unlocked state, so that in the unlocked state at least one of the first and second portions is allowed to move relative to the plate and in the locked state the reduced width gap restricts movement of the at least one of the first and second portions relative to the plate.
A method, comprising: (a) using one or more accelerometers of a smartphone to generate a plurality of accelerometer output data sets, wherein each accelerometer output data set contains a plurality of accelerometer output data values for a different period of time; (b) determining from each accelerometer output data set a corresponding estimated heart rate, EHR, value, thereby determining a sequence of EHR values; (c) determining from each accelerometer output data set a corresponding estimated accuracy, EA, value, thereby determining a sequence of EA values; and characterised by (d) using the sequence of EA values determined in (c) to adjust the sequence of EHR values determined in (b) thereby generating a corresponding sequence of adjusted heart rate, AHR, values, wherein steps (a), (b), (c) and (d) are performed by the smartphone. (a) using one or more accelerometers of a smartphone to generate a plurality of accelerometer output data sets, wherein each accelerometer output data set contains a plurality of accelerometer output data values for a different period of time; (b) determining from each accelerometer output data set a corresponding estimated heart rate, EHR, value, thereby determining a sequence of EHR values; (c) determining from each accelerometer output data set a corresponding estimated accuracy, EA, value, thereby determining a sequence of EA values; and characterised by (d) using the sequence of EA values determined in (c) to adjust the sequence of EHR values determined in (b) thereby generating a corresponding sequence of adjusted heart rate, AHR, values, wherein steps (a), (b), (c) and (d) are performed by the smartphone.
Auxiliary drive for vehicles which are moved by external means, in particular decoupled trailers, comprising at least one drive unit (15, 16) which is mounted on the vehicle and which can be applied against a vehicle wheel and which has a motor-driven drive element, wherein the auxiliary drive has a support device with a bracket for the fastening of the one or more drive unit(s) (15, 16) to the vehicle, in particular to a vertical central web of the longitudinal member of said vehicle, characterized in that the bracket is formed as a profiled part and guides the drive element (15, 16) linearly.
A surface treatment method comprising the steps of: carrying a subject to be treated, which has an oxide on a surface thereof, into a treatment vessel; evacuating the treatment vessel to produce a vacuum; introducing gas containing N 2 and H 2 gases into a plasma generation section, generating plasma from the gas containing N 2 and H 2 gases, and activating the plasma to generate an activated gas species of N* and H* radicals; causing the activated gas species to flow from an opening of the plasma generation section toward the oxide on the surface of the subject and adding an NF 3 gas to the activated gas species which is flowing toward the subject to generate an activated gas of NF 3 gas, wherein the NF 3 gas is added to the flowing activated gas species in position (L 1) under the opening of the plasma generation section; cooling the subject to a predetermined temperature which falls within a range of 20°C to -20°C; reacting the activated gas of NF 3 gas with the oxide on the surface of the subject not higher than the predetermined temperature to form a reactive film by degenerating the oxide, stopping supply of the N2, H2 and NF3 gases into the treatment vessel, and heating the subject to sublimate the reactive film. carrying a subject to be treated, which has an oxide on a surface thereof, into a treatment vessel; evacuating the treatment vessel to produce a vacuum; introducing gas containing N 2 and H 2 gases into a plasma generation section, generating plasma from the gas containing N 2 and H 2 gases, and activating the plasma to generate an activated gas species of N* and H* radicals; causing the activated gas species to flow from an opening of the plasma generation section toward the oxide on the surface of the subject and adding an NF 3 gas to the activated gas species which is flowing toward the subject to generate an activated gas of NF 3 gas, wherein the NF 3 gas is added to the flowing activated gas species in position (L 1) under the opening of the plasma generation section; cooling the subject to a predetermined temperature which falls within a range of 20°C to -20°C; reacting the activated gas of NF 3 gas with the oxide on the surface of the subject not higher than the predetermined temperature to form a reactive film by degenerating the oxide, stopping supply of the N2, H2 and NF3 gases into the treatment vessel, and heating the subject to sublimate the reactive film.
A method of forming a polymer matrix array, the method comprising: treating a surface within a well of a well array with a surface compound including a surface reactive functional group and a radical-forming distal group; applying an aqueous solution including polymer precursors to the well of the well array; and activating the radical-forming distal group of the surface coupling compound with an initiator and atom transfer radical polymerization (ATRP) catalyst to initiate radical polymerization of the polymer precursors within the well of the well array to form the polymer matrix array; wherein the surface reactive functional group includes phosphonate. treating a surface within a well of a well array with a surface compound including a surface reactive functional group and a radical-forming distal group; applying an aqueous solution including polymer precursors to the well of the well array; and activating the radical-forming distal group of the surface coupling compound with an initiator and atom transfer radical polymerization (ATRP) catalyst to initiate radical polymerization of the polymer precursors within the well of the well array to form the polymer matrix array; wherein the surface reactive functional group includes phosphonate.
Reluctance machine having - a stator with a stator contour in a circumferential direction of the reluctance machine; - a rotor with a rotor contour in the circumferential direction of the reluctance machine; - wherein a gap is arranged between the stator and the rotor which is bounded by the stator contour and the rotor contour, wherein the stator contour is designed such that the gap in the circumferential direction of the reluctance machine varies in its width and has at least one minimum width and at least one maximum width, characterised in that the reluctance machine has grooves (21, 34, 35) in the stator, wherein adjacent grooves that belong to a phase (U, V) in each case form a groove group (22, 23), the grooves of which are occupied at the circumference with windings of a phase (U, V) and of a direction, the maximum width of the gap is arranged between a first groove of a first groove group, fed by a first electrical phase of the reluctance machine, and a second groove of a second groove group, fed by a second electrical phase of the reluctance machine, wherein the first groove and the second groove are arranged adjacent to one another in the circumferential direction, and the minimum width of the gap is arranged in a middle region of each groove group (22, 23). - a stator with a stator contour in a circumferential direction of the reluctance machine; - a rotor with a rotor contour in the circumferential direction of the reluctance machine; - wherein a gap is arranged between the stator and the rotor which is bounded by the stator contour and the rotor contour,