mhurhangee/ep-ind-claims huggingface dataset:
A apparatus comprising: a signal distortion generator circuit configured to pre-distort the RF modulation signal to or laser generator by generating distortion vectors in any of four distortion vector quadrants; characterized in that said circuit has independent control points (202, 204, 206, 208, 210, 212) for the positive real component of the distortion vectors, the negative real component of the distortion vectors, the positive imaginary component of the distortion vectors, and the negative imaginary component of the distortion vectors. a signal distortion generator circuit configured to pre-distort the RF modulation signal to or laser generator by generating distortion vectors in any of four distortion vector quadrants; characterized in that said circuit has independent control points (202, 204, 206, 208, 210, 212) for the positive real component of the distortion vectors, the negative real component of the distortion vectors, the positive imaginary component of the distortion vectors, and the negative imaginary component of the distortion vectors.
A deformable packing element for fitting between a glazing unit and a frame of a window assembly to support the glazing unit within the frame, the packing element comprising a base, and a plurality of elongate deformable fingers which project from the base and upon which the glazing unit is in use supported, the fingers being arranged in an array on the base and being adapted to, in use, bend, and wherein the height (h,h1,h2) of the fingers from the base varies over the array and the plurality of fingers are arranged in an array of rows and columns in which the height (h,h1,h2) of the fingers in a first row or column varies, characterised in that the height (h,h1,h2) of the fingers in a second row or column adjacent the first row also varies, and the height (h,h1,h2) of the fingers in the first row or column differs from the height (h,h1,h2) of the corresponding adjacent fingers in the second row or column.
A cutlery dispenser comprising: a) an actuator (44, 186, 238) for engagement by a user; b) a storage chute configured to hold a plurality of disposable cutlery pieces therein, wherein the plurality is not constrained by a cartridge when loaded into the cutlery dispenser, and wherein each piece comprises a solid handle; and c) a cutlery dispensing apparatus (86, 178, 180, 230), wherein the cutlery dispensing apparatus (86, 178, 180, 230) is engaged with the actuator (44, 186, 238), and wherein the cutlery dispensing apparatus (86, 178, 180, 230) is configured to reliably release a single cutlery piece from the plurality upon engagement of the actuator (44, 186, 238) by a user, and wherein the cutlery dispensing apparatus (86, 178, 180, 230) comprises at least one rocking cam (86; 178, 180) mounted on a rotatable shaft (88; 182); and d) an opening suitable for presenting the cutlery piece to the user; characterized in that the at least one rocking cam (86; 178, 180) comprises at least one cutlery positioning area (94; 192) suitable for positioning at least one cutlery piece for release to the user. a) an actuator (44, 186, 238) for engagement by a user; b) a storage chute configured to hold a plurality of disposable cutlery pieces therein, wherein the plurality is not constrained by a cartridge when loaded into the cutlery dispenser, and wherein each piece comprises a solid handle; and c) a cutlery dispensing apparatus (86, 178, 180, 230), wherein the cutlery dispensing apparatus (86, 178, 180, 230) is engaged with the actuator (44, 186, 238), and wherein the cutlery dispensing apparatus (86, 178, 180, 230) is configured to reliably release a single cutlery piece from the plurality upon engagement of the actuator (44, 186, 238) by a user, and wherein the cutlery dispensing apparatus (86, 178, 180, 230) comprises at least one rocking cam (86; 178, 180) mounted on a rotatable shaft (88; 182); and d) an opening suitable for presenting the cutlery piece to the user;
A composition comprising (a) an esterquat that is a quaternized reaction product of an alkanol amine and a fatty acid, wherein from at least 90 wt% to up to 100 wt% of the esterquat is comprised of triesterquat and from 0 wt% to up to 10 wt% of the esterquat is comprised of at least one of monoesterquat and diesterquat, and (b) a cationic surfactant, wherein the cationic surfactant is a quaternized cationic surfactant having a formula RNH 3 + X - where R is an alkyl group having from 10 to 22 carbon atoms and X - is a softener compatible anion.
A method for molding interior and exterior members of vehicles by using a mold having a cavity plate, the method comprising the steps of: creating a master model of the interior and exterior members; acquiring three-dimensional data of the created master model of the interior and exterior members; generating surface data which indicates a surface shape of the master model of the interior and exterior members from the acquired three-dimensional data; making the cavity plate of the mold based on the generated surface data; transferring the surface shape of the master model of the interior and exterior members to a resin sheet, attaching on the cavity plate of the mold the resin sheet to which the surface shape of the master model has been transferred; and molding the interior and exterior members by using the cavity plate on which the resin sheet is attached. creating a master model of the interior and exterior members; acquiring three-dimensional data of the created master model of the interior and exterior members; generating surface data which indicates a surface shape of the master model of the interior and exterior members from the acquired three-dimensional data; making the cavity plate of the mold based on the generated surface data; transferring the surface shape of the master model of the interior and exterior members to a resin sheet, attaching on the cavity plate of the mold the resin sheet to which the surface shape of the master model has been transferred; and molding the interior and exterior members by using the cavity plate on which the resin sheet is attached.
A forging heat resistant steel, consisting of: 0.05 to 0.2 mass% of C; 0.01 to 0.1 mass% of Si; 0.01 to 0.15 mass% of Mn; 0.05 to 1 mass% of Ni; 8 or more and less than 10 mass% of Cr; 0.05 to 1 mass% of Mo; 0.05 to 0.3 mass% of V; 1 to 5 mass% of Co; 1 to 2.2 mass% of W; 0.01 or more and less than 0.015 mass% of N; 0.01 to 0.15 mass% of Nb; 0.003 to 0.03 mass% of B; and the balance being Fe and unavoidable impurities, wherein a quantity of Nb(C, N) carbonitride having a diameter of 50 nm or less after aging treatment at a temperature of 625°C for 10000 hours is 50% or more of that before the aging treatment; and wherein the forging heat resistant steel is obtainable by the steps comprising of: melting raw materials required to obtain component elements of the forging heat resistant steel; pouring into a prescribed mold to form a steel ingot; carrying out a forging process; carrying out a quenching treatment at a temperature of 1040 to 1120°C; carrying out a first stage tempering treatment at a temperature of 540 to 600°C; and carrying out a second stage tempering treatment at a temperature of 650 to 750°C. 0.05 to 0.2 mass% of C; 0.01 to 0.1 mass% of Si; 0.01 to 0.15 mass% of Mn; 0.05 to 1 mass% of Ni; 8 or more and less than 10 mass% of Cr; 0.05 to 1 mass% of Mo; 0.05 to 0.3 mass% of V; 1 to 5 mass% of Co; 1 to 2.2 mass% of W; 0.01 or more and less than 0.015 mass% of N; 0.01 to 0.15 mass% of Nb; 0.003 to 0.03 mass% of B; and the balance being Fe and unavoidable impurities, wherein a quantity of Nb(C, N) carbonitride having a diameter of 50 nm or less after aging treatment at a temperature of 625°C for 10000 hours is 50% or more of that before the aging treatment; and wherein the forging heat resistant steel is obtainable by the steps comprising of: melting raw materials required to obtain component elements of the forging heat resistant steel; pouring into a prescribed mold to form a steel ingot; carrying out a forging process; carrying out a quenching treatment at a temperature of 1040 to 1120°C; carrying out a first stage tempering treatment at a temperature of 540 to 600°C; and carrying out a second stage tempering treatment at a temperature of 650 to 750°C. melting raw materials required to obtain component elements of the forging heat resistant steel; pouring into a prescribed mold to form a steel ingot; carrying out a forging process; carrying out a quenching treatment at a temperature of 1040 to 1120°C; carrying out a first stage tempering treatment at a temperature of 540 to 600°C; and carrying out a second stage tempering treatment at a temperature of 650 to 750°C.
A control lever for a heavy equipment, comprising a body; a printed circuit board assembly comprising a printed circuit board having thereon at least one sensor; a lever holder which has a central hole, through which a control arm is at least party engaged, wherein a control arm is rotatable about its longitudinal axis, and which has at least one cocking spring at each end, a magnetic member fastened to an end of said control lever and suitable to interact with the sensor provided on the printed circuit board, characterized in that the control lever further comprises: a C-shaped lever supporting member having an opened section facing to the printed circuit board and arranged to rotate about the longitudinal axis of the lever supporting member; and the control arm is arranged to engage in a slot provided at an upper section of the lever supporting member and at least one cocking spring is provided at each opposite lateral end of the lever supporting member wherein the control arm has a cylindrical connection hole immediately above the magnetic member for attaching the control arm to bushing holes of the lever holder and in that a bushing is engaged in the cylindrical connection hole and there are bushing connecting members on the right and left sides of the bushing wherein each bushing holes of the lever holder is arranged to receive respective bushing connecting member. a printed circuit board assembly comprising a printed circuit board having thereon at least one sensor; a lever holder which has a central hole, through which a control arm is at least party engaged, wherein a control arm is rotatable about its longitudinal axis, and which has at least one cocking spring at each end, a magnetic member fastened to an end of said control lever and suitable to interact with the sensor provided on the printed circuit board, a C-shaped lever supporting member having an opened section facing to the printed circuit board and arranged to rotate about the longitudinal axis of the lever supporting member; and the control arm is arranged to engage in a slot provided at an upper section of the lever supporting member and at least one cocking spring is provided at each opposite lateral end of the lever supporting member wherein the control arm has a cylindrical connection hole immediately above the magnetic member for attaching the control arm to bushing holes of the lever holder and in that a bushing is engaged in the cylindrical connection hole and there are bushing connecting members on the right and left sides of the bushing wherein each bushing holes of the lever holder is arranged to receive respective bushing connecting member.
Towed or semi-mounted agricultural machine with a chassis on which an axle device connecting two wheels (5, 5') to the said chassis is mounted, this axle device being provided with at least one movable part (6, 6') and one fixed part in such a way that the spacing between the wheels (5, 5') can be modified, at least one of the wheels (5, 5') being rigidly fastened to a movable part (6, 6') that is connected slidingly along a longitudinal axis (AL, AL') to the fixed part, which is rigidly fastened to the chassis, the or each movable part (6, 6') being additionally connected mechanically to the chassis by a respective link (8, 8'), which is articulated on the one hand with the movable part (6, 6') by a first articulation (12, 12) and on the other hand with the chassis by a second articulation (13, 13') agricultural machine characterized in that the or each second articulation (13, 13') is offset along the direction of advance relative to the respective first articulation (12, 12') regardless of the spacing between wheels (5, 5').
An upper vehicle body for an MPV or VAN, comprising: a front end module, a front module, two front quarter modules spaced apart from each other in a left-right direction, two rear quarter modules spaced apart from each other in the left-right direction, a front windshield upper crossmember module, a front top crossmember module, a support crossmember module, a rear top crossmember module, and a back module, and are shaped separately and independently; characterised in that: all of the modules are formed by aluminum alloy stamped sheets and aluminum alloy extruded profiles with cavities in combination; the front end module is screwed to the front quarter modules, the front module is riveted and welded to the front quarter modules, the front quarter modules are MIG welded to the rear quarter modules, the front windshield upper crossmember module is screwed to the front quarter modules, the front top crossmember module is screwed to the front quarter modules and to the rear quarter modules, the support crossmember module is screwed to the front quarter modules and to the rear quarter modules, the rear top crossmember module is screwed to the rear quarter module, and the back module is glued to the rear quarter modules with structural glue and riveted to the rear quarter modules.
A method performed by a User Equipment UE, operating in a wireless communication network, the method characterized by decoding a dynamic Physical Downlink Shared Channel PDSCH, that overlaps on a same Downlink Z DL, carrier with a configured PDSCH, if a starting time of the configured PDSCH and an ending time of a Physical Downlink Control Channel PDCCH, scheduling the dynamic PDSCH satisfy a timing relationship, and otherwise not decoding the dynamic PDSCH.
A photovoltaic cell, comprising: a substrate having a front surface and a rear surface opposite to each other, wherein the front surface of the substrate has a plurality of metal pattern regions; a plurality of first pyramid structures disposed in each of the plurality of metal pattern regions; a plurality of platform protrusion structures disposed on the rear surface of the substrate, wherein a height of each of the plurality of first pyramid structures is greater than a height of each of the plurality of platform protrusion structures, and a one-dimensional dimension of a bottom portion of each of the plurality of first pyramid structures is less than a one-dimensional dimension of a bottom portion of each of the plurality of the platform protrusion structures; a respective first tunneling layer and a respective first doped conductive layer stacked on a portion of the front surface of the substrate in each respective metal pattern region of the plurality of metal pattern regions in a direction away from the substrate, wherein the respective first tunneling layer and the respective first doped conductive layer are formed only in the respective metal pattern region, wherein a doping element type of the respective first doped conductive layer is the same as a doping element type of the substrate; and a second tunneling layer and a second doped conductive layer stacked on the rear surface of the substrate in a direction away from the substrate, wherein a doping element type of the second doped conductive layer is different from the doping element type of the first doped conductive layer. a substrate having a front surface and a rear surface opposite to each other, wherein the front surface of the substrate has a plurality of metal pattern regions; a plurality of first pyramid structures disposed in each of the plurality of metal pattern regions; a plurality of platform protrusion structures disposed on the rear surface of the substrate, wherein a height of each of the plurality of first pyramid structures is greater than a height of each of the plurality of platform protrusion structures, and a one-dimensional dimension of a bottom portion of each of the plurality of first pyramid structures is less than a one-dimensional dimension of a bottom portion of each of the plurality of the platform protrusion structures; a respective first tunneling layer and a respective first doped conductive layer stacked on a portion of the front surface of the substrate in each respective metal pattern region of the plurality of metal pattern regions in a direction away from the substrate, wherein the respective first tunneling layer and the respective first doped conductive layer are formed only in the respective metal pattern region, wherein a doping element type of the respective first doped conductive layer is the same as a doping element type of the substrate; and a second tunneling layer and a second doped conductive layer stacked on the rear surface of the substrate in a direction away from the substrate, wherein a doping element type of the second doped conductive layer is different from the doping element type of the first doped conductive layer.
A composition, which comprises an exosome comprising a fusion protein, wherein the fusion protein comprises a targeting protein and an exosomal transmembrane protein, the targeting protein comprises an anti-HLA-G protein, and the sequence of the anti-HLA-G protein comprises SEQ ID NO: 2.
An electrosurgical ablation probe comprising: a shaft having a proximal end and a distal end; an energy applicator disposed near the distal end of the shaft, wherein the applicator includes a thin, elastic dielectric wall having an interior surface and an exterior surface and surrounding at least a portion of an interior chamber; a gas flow passage within the shaft coupled, in use, to an electrically non-conductive gas source and configured, in use, to deliver the electrically non-conductive gas to the interior chamber of the dielectric wall of the applicator; a first electrode structure which is exposed to gas within the gas flow passage; and a second electrode structure on an exterior surface of the shaft; configured such that application of a radiofrequency voltage across the first and second electrodes will initiate a plasma in an electrically non-conductive gas in the flow passage and the interior chamber when the exterior surface of the dielectric wall engages tissue which also contacts the second electrode structure; and wherein the dielectric wall is arranged for capacitive coupling of current across the dielectric wall. a shaft having a proximal end and a distal end; an energy applicator disposed near the distal end of the shaft, wherein the applicator includes a thin, elastic dielectric wall having an interior surface and an exterior surface and surrounding at least a portion of an interior chamber; a gas flow passage within the shaft coupled, in use, to an electrically non-conductive gas source and configured, in use, to deliver the electrically non-conductive gas to the interior chamber of the dielectric wall of the applicator; a first electrode structure which is exposed to gas within the gas flow passage; and a second electrode structure on an exterior surface of the shaft; configured such that application of a radiofrequency voltage across the first and second electrodes will initiate a plasma in an electrically non-conductive gas in the flow passage and the interior chamber when the exterior surface of the dielectric wall engages tissue which also contacts the second electrode structure; and wherein the dielectric wall is arranged for capacitive coupling of current across the dielectric wall.
A method (600, 700, 800, 900) for an Orthogonal Frequency Division Multiplexing, OFDM, transmitter (1000, 1200) configured for OFDM signal transmissions, the method comprising: generating (802, 902) a first OFDM signal containing data associated with a Long Term Evolution, LTE, protocol, the LTE protocol defined to use a first system bandwidth that overlaps with a second system bandwidth associated with a 802.11a Wi-Fi protocol, and transmitting (804, 906) the first OFDM signal over a non-utilized portion (294 A, 294 B, 294 C) consisting of a lower edge (294 A) of the first system bandwidth and an upper edge of the first system bandwidth, wherein: - the first system bandwidth is 20.0000 MHz, - the second system bandwidth is 16.5625 MHz, - the lower edge and the upper edge each have a bandwidth of 1.71875 MHz, respectively - the non-utilized portion further consists of a middle portion (294 B), - the middle portion consists of a 312.5 kHz Wi-Fi DC null subcarrier being set to zero, - a power level of all LTE subcarriers in the the middle portion different from a LTE DC subcarrier is lowered relative to a power level of Wi-Fi subcarriers occupying the second system bandwidth, and - a power level of the LTE DC subcarrier is set to zero. generating (802, 902) a first OFDM signal containing data associated with a Long Term Evolution, LTE, protocol, the LTE protocol defined to use a first system bandwidth that overlaps with a second system bandwidth associated with a 802.11a Wi-Fi protocol, and transmitting (804, 906) the first OFDM signal over a non-utilized portion (294 A, 294 B, 294 C) consisting of a lower edge (294 A) of the first system bandwidth and an upper edge of the first system bandwidth, wherein: - the first system bandwidth is 20.0000 MHz, - the second system bandwidth is 16.5625 MHz, - the lower edge and the upper edge each have a bandwidth of 1.71875 MHz, respectively - the non-utilized portion further consists of a middle portion (294 B), - the middle portion consists of a 312.5 kHz Wi-Fi DC null subcarrier being set to zero, - a power level of all LTE subcarriers in the the middle portion different from a LTE DC subcarrier is lowered relative to a power level of Wi-Fi subcarriers occupying the second system bandwidth, and - a power level of the LTE DC subcarrier is set to zero. - the first system bandwidth is 20.0000 MHz, - the second system bandwidth is 16.5625 MHz, - the lower edge and the upper edge each have a bandwidth of 1.71875 MHz, respectively - the non-utilized portion further consists of a middle portion (294 B), - the middle portion consists of a 312.5 kHz Wi-Fi DC null subcarrier being set to zero, - a power level of all LTE subcarriers in the the middle portion different from a LTE DC subcarrier is lowered relative to a power level of Wi-Fi subcarriers occupying the second system bandwidth, and - a power level of the LTE DC subcarrier is set to zero.