mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a user equipment, UE, comprising: receiving sidelink control information, SCI associated with a remote vehicle; identifying a threat metric associated with the remote vehicle and previously determined and stored by the UE, the threat metric based at least in part on one or more characteristics of the remote vehicle, wherein the one or more characteristics are determined based at least in part on vehicle information received in one or more transport blocks corresponding to prior SCI associated with the remote vehicle and received prior to the SCI; and processing the SCI based at least in part on the threat metric; characterised in that the SCI and the prior SCI both include a same vehicle identifier that identifies the remote vehicle, wherein the threat metric is identified based at least in part on a stored indication of an association between the vehicle identifier and the threat metric and wherein indication of the association is stored based at least in part on analyzing the vehicle information received in the one or more transport blocks corresponding to the prior SCI. receiving sidelink control information, SCI associated with a remote vehicle; identifying a threat metric associated with the remote vehicle and previously determined and stored by the UE, the threat metric based at least in part on one or more characteristics of the remote vehicle, wherein the one or more characteristics are determined based at least in part on vehicle information received in one or more transport blocks corresponding to prior SCI associated with the remote vehicle and received prior to the SCI; and processing the SCI based at least in part on the threat metric; characterised in that the SCI and the prior SCI both include a same vehicle identifier that identifies the remote vehicle, wherein the threat metric is identified based at least in part on a stored indication of an association between the vehicle identifier and the threat metric and wherein indication of the association is stored based at least in part on analyzing the vehicle information received in the one or more transport blocks corresponding to the prior SCI.
A method of preparing a substituted chimeric, humanized or human anti-CD20 antibody or antigen binding fragment thereof, wherein the substituted chimeric, humanized or human anti-CD20 antibody or antigen binding fragment thereof has, compared to an unsubstituted anti-CD20 antibody, at least one improved characteristic selected from the group consisting of a slower off-rate, slower antigen dissociation rate and higher CDC activity, and wherein the CDR sequences of the unsubstituted antibody comprise the light chain CDR sequences CDRL1 (RASSSVSYIH), CDRL2 (ATSNLAS) and CDRL3 (QQWTSNPPT) and heavy chain CDR sequences CDRHI (SYNMH), CDRH2 (AIYPGNGDTSYNQKFKG) and CDRH3 (STYYGGDWYFNV), the light chain variable region comprises an amino acid sequence and the heavy chain variable region comprises an amino acid sequence of wherein the method comprises making at least one amino acid substitution in the third complementarity determining region sequence of the heavy chain of the unsubstituted chimeric, humanized or human anti-CD20 antibody or antigen binding fragment thereof to make the substituted antibody or antigen binding fragment thereof, wherein the substitution is at Kabat position 101 of the heavy chain CDR3 (CDRH3) of the antibody.
A control device for a hybrid vehicle for outputting motive power to a drive shaft with an internal combustion engine and a motor generator serving as a driving source, said hybrid vehicle including a first motor generator capable of generating electric power with the motive power received from said internal combustion engine, a power split device configured to mechanically distribute the motive power from said internal combustion engine between said first motor generator and said drive shaft, a second motor generator having a rotation shaft coupled to said drive shaft, and a power storage device capable of supplying and receiving electric power to and from said first and second motor generators (140A, 140B), said internal combustion engine including an exhaust gas recirculation device (500, 502) for recirculating part of exhaust gas to an intake pipe of said internal combustion engine again through a recirculation valve, characterized in that said control device (1030, 1000) comprises: a during-abnormality travel control unit for causing said hybrid vehicle to travel in limp-home mode with said internal combustion engine serving as a driving source when abnormality of said second motor generator is detected; and a during-abnormality operation limitation unit for limiting operation of said internal combustion engine in accordance with a torque transmitted from said internal combustion engine to said drive shaft when said internal combustion engine operates during travel in said limp-home mode, said during-abnormality operation limitation unit prohibiting operation for recirculating the exhaust gas by said exhaust gas recirculation device (500, 502) during travel in said limp-home mode. a during-abnormality travel control unit for causing said hybrid vehicle to travel in limp-home mode with said internal combustion engine serving as a driving source when abnormality of said second motor generator is detected; and a during-abnormality operation limitation unit for limiting operation of said internal combustion engine in accordance with a torque transmitted from said internal combustion engine to said drive shaft when said internal combustion engine operates during travel in said limp-home mode, said during-abnormality operation limitation unit prohibiting operation for recirculating the exhaust gas by said exhaust gas recirculation device (500, 502) during travel in said limp-home mode.
A temporary-bonding adhesive, wherein the temporary-bonding adhesive is a polyimide copolymer having at least an acid dianhydride residue and a diamine residue, the diamine residue includes both of a polysiloxane-based diamine residue represented by a general formula in which n is a natural number of 1 to 15, and a polysiloxane-based diamine residue represented by a general formula in which n is a natural number of 16 to 100, and the diamine residue contains 40 to 99.99 mol% of the residue and 0.01 to 60 mol% of the residue: in which n is a natural number, R 1 and R 2 may be the same or different and represent an alkylene group having 1 to 30 carbon atoms or a phenylene group, and R 3 to R 6 may be the same or different and represent an alkyl group having 1 to 30 carbon atoms, a phenyl group, or a phenoxy group.
Image projection system (200; 600), configured to implement a colour projection, characterised in that it comprises: - a first emissive matrix display device (210; 510; 610), configured to emit first and second chromatic components (211A, 211B) of a colour image, and comprising a first pixel matrix in which each pixel is composed of a light emitting diode adapted to emit at wavelengths associated with said first chromatic component and at wavelengths associated with said second chromatic component; and - a second emissive matrix display device (220; 620), configured to emit a third chromatic component of the colour image. - a first emissive matrix display device (210; 510; 610), configured to emit first and second chromatic components (211A, 211B) of a colour image, and comprising a first pixel matrix in which each pixel is composed of a light emitting diode adapted to emit at wavelengths associated with said first chromatic component and at wavelengths associated with said second chromatic component; and - a second emissive matrix display device (220; 620), configured to emit a third chromatic component of the colour image.
Method for making a vehicle tyre comprising a tyre carcass, tyre beads with cores, a tyre breaker belt and a tread rubber, with the following steps: a) producing a tyre carcass on a carcass drum, no tyre-building parts in the form of sidewalls (2, 3) being placed on the carcass drum, the sidewalls (2, 3) being prefabricated on a separate sidewall drum, further tyre-building parts, apart from the sidewall (2, 3), being applied to the separate sidewall drum, b) removing the tyre carcass from the carcass drum by a carcass transfer unit, the prefabricated sidewalls (2, 3) being wound up on the shaping drum as a first tyre-building part, c) moving the carcass transfer unit with the tyre carcass over a shaping drum, in this step, the tyre-building parts in the form of sidewalls (2, 3) already being arranged on the shaping drum, d) carrying out core clamping with segments of the shaping drum, this core clamping having the effect that the sidewalls (2, 3) lying in place on the shaping drum are connected to the tyre carcass, with the tyre carcass coaxially positioned, in the region of the tyre bead, e) moving the carcass transfer unit away from the shaping drum, f) shaping the tyre carcass with the sidewalls (2, 3) attached on both sides, the sidewalls (2, 3) being turned up by a turning-up means to the sides of the tyre carcass and the tyre carcass being brought together as one with the coaxially arranged belt-tread assembly, g) completing the tyre blank using a conventional production method. a) producing a tyre carcass on a carcass drum, no tyre-building parts in the form of sidewalls (2, 3) being placed on the carcass drum, the sidewalls (2, 3) being prefabricated on a separate sidewall drum, further tyre-building parts, apart from the sidewall (2, 3), being applied to the separate sidewall drum, b) removing the tyre carcass from the carcass drum by a carcass transfer unit, the prefabricated sidewalls (2, 3) being wound up on the shaping drum as a first tyre-building part, c) moving the carcass transfer unit with the tyre carcass over a shaping drum, in this step, the tyre-building parts in the form of sidewalls (2, 3) already being arranged on the shaping drum, d) carrying out core clamping with segments of the shaping drum, this core clamping having the effect that the sidewalls (2, 3) lying in place on the shaping drum are connected to the tyre carcass, with the tyre carcass coaxially positioned, in the region of the tyre bead, e) moving the carcass transfer unit away from the shaping drum, f) shaping the tyre carcass with the sidewalls (2, 3) attached on both sides, the sidewalls (2, 3) being turned up by a turning-up means to the sides of the tyre carcass and the tyre carcass being brought together as one with the coaxially arranged belt-tread assembly, g) completing the tyre blank using a conventional production method.
A disposable wearing article having a longitudinal direction and a lateral direction, the article comprising a chassis including a body facing surface, a non-body facing surface, a first waist region which is one of front and rear waist regions (11,12), a second waist region which is another of the front and rear waist regions and a crotch region extending between the first and second waist regions, an absorbent panel disposed on a side of the body facing surface of the chassis, and side seams respectively coupling both side edges of the first waist region and both side edges of the second waist region, respectively, wherein: the absorbent panel includes an absorbent core extending to the front and rear waist regions (11,12) centering on the crotch region, and a pair of outer flaps extending longitudinally along both side edges of the absorbent core, at least the first waist region of the first and second waist regions includes a waist elastic area which is elastically contractible in the lateral direction, and a pair of elastic strips which are elastically contractible in the lateral direction, each of the pair of elastic strips has an inner fixing end fixed to the outer flap of the absorbent panel and an outer fixing end fixed to the body facing surface of the chassis, and the absorbent panel includes a pair of barrier cuffs, and the barrier cuffs are each positioned more inside in the lateral direction than the inner fixing end of the elastic strip. the absorbent panel includes an absorbent core extending to the front and rear waist regions (11,12) centering on the crotch region, and a pair of outer flaps extending longitudinally along both side edges of the absorbent core, at least the first waist region of the first and second waist regions includes a waist elastic area which is elastically contractible in the lateral direction, and a pair of elastic strips which are elastically contractible in the lateral direction, each of the pair of elastic strips has an inner fixing end fixed to the outer flap of the absorbent panel and an outer fixing end fixed to the body facing surface of the chassis, and the absorbent panel includes a pair of barrier cuffs, and the barrier cuffs are each positioned more inside in the lateral direction than the inner fixing end of the elastic strip.
An image processing device comprising: an image data input unit for inputting image data; an image data storage unit for storing the image data input through the image data input unit; an image data processing unit for processing the image data stored in the image data storage unit; and an image data invalidation unit for invalidating the image data stored in the image data storage unit by formatting the data storage unit or erasing or overwriting the image data stored therein with at least one predefined data pattern; characterized in that in case that there is input of a new image data through said image data input unit while said image data invalidation unit is performing invalidation of a preceding image data stored in said image data storage unit, said image data invalidation unit comprises a function to interrupt the invalidation of said preceding image data stored in said image data storage unit so as to invalidate said preceding image data with said new image data being input to said device and continue the invalidation by a change from using predetermined data pattern to using the new image data for overwriting preceding image data. an image data input unit for inputting image data; an image data storage unit for storing the image data input through the image data input unit; an image data processing unit for processing the image data stored in the image data storage unit; and an image data invalidation unit for invalidating the image data stored in the image data storage unit by formatting the data storage unit or erasing or overwriting the image data stored therein with at least one predefined data pattern; characterized in that in case that there is input of a new image data through said image data input unit while said image data invalidation unit is performing invalidation of a preceding image data stored in said image data storage unit, said image data invalidation unit comprises a function to interrupt the invalidation of said preceding image data stored in said image data storage unit so as to invalidate said preceding image data with said new image data being input to said device and continue the invalidation by a change from using predetermined data pattern to using the new image data for overwriting preceding image data.
A radiation detection device comprising a plurality of layers extending over a substrate comprising at least a portion of a matrix area said matrix area having a plurality of N rows divided into a plurality of M columns of cells, each cell comprising a plurality of diode segments, each connected in series through an avalanche quenching resistor to a drive voltage so as to operate in avalanche multiplication Geiger mode, the radiation detection device comprising: a metal layer providing a first set of connections from said drive voltage to respective cells of said matrix area; and each diode segment comprising: a first doped layer of a first semiconductor type formed on said metal layer; a mixed phase semiconductor layer composed of alternate regions (44,45) of amorphous semiconductor and crystal semiconductor formed on said first doped layer; a second doped layer of semiconductor material formed on said mixed phase semiconductor layer; each of said diode segments within a cell being separated from one another with a dielectric material; and at least one conductive transparent layer formed on said second layer and providing a second set of connections from an electronic switching device to respective cells of said matrix area. a metal layer providing a first set of connections from said drive voltage to respective cells of said matrix area; and each diode segment comprising: a first doped layer of a first semiconductor type formed on said metal layer; a mixed phase semiconductor layer composed of alternate regions (44,45) of amorphous semiconductor and crystal semiconductor formed on said first doped layer; a second doped layer of semiconductor material formed on said mixed phase semiconductor layer; each of said diode segments within a cell being separated from one another with a dielectric material; and at least one conductive transparent layer formed on said second layer and providing a second set of connections from an electronic switching device to respective cells of said matrix area. a first doped layer of a first semiconductor type formed on said metal layer; a mixed phase semiconductor layer composed of alternate regions (44,45) of amorphous semiconductor and crystal semiconductor formed on said first doped layer; a second doped layer of semiconductor material formed on said mixed phase semiconductor layer; each of said diode segments within a cell being separated from one another with a dielectric material; and at least one conductive transparent layer formed on said second layer and providing a second set of connections from an electronic switching device to respective cells of said matrix area.
A cartridge for a bond testing machine, the cartridge comprising: a plurality of different test tool assemblies, each test tool assembly comprising a tool and a load cell for measuring a force applied during a test; a rotary mechanism, wherein each of the plurality of different test tool assemblies are mounted to the rotary mechanism and are angularly spaced from one another; a drive unit coupled to the rotary mechanism, the drive unit configured to rotate the rotary mechanism to move each of the plurality of different test tool assemblies to and from a use position; and an air interface for receiving compressed air from a corresponding air interface on the moving assembly of the bond testing machine wherein the cartridge is configured to be removably coupled to a moving assembly of the bond testing machine. a plurality of different test tool assemblies, each test tool assembly comprising a tool and a load cell for measuring a force applied during a test; a rotary mechanism, wherein each of the plurality of different test tool assemblies are mounted to the rotary mechanism and are angularly spaced from one another; a drive unit coupled to the rotary mechanism, the drive unit configured to rotate the rotary mechanism to move each of the plurality of different test tool assemblies to and from a use position; and an air interface for receiving compressed air from a corresponding air interface on the moving assembly of the bond testing machine
A radiation therapy system, comprising: an accelerator that accelerates particles in a beam; a nozzle that receives the beam of particles downstream of the accelerator, the nozzle configured to create a first beam that delivers a first dose with a first Spread Out Bragg Peak, SOBP, along a first target line segment in a target volume and to create a second beam that delivers a second dose with a second SOBP along a second target line segment in the target volume, wherein the second target line segment is displaced from the first target line segment, wherein the nozzle further comprises a range modulator; and wherein the range modulator comprises a plurality of arms extending from a hub, the arms having non-uniform thicknesses, and wherein the system includes mechanisms configured to adjust the position of the range modulator transversely to the path of the beam and to rotate the range modulator about the hub allowing the beam to pass through different thicknesses of material of the arms and also through different amounts of space between adjacent arms to vary the extent of spread of the SOBP. an accelerator that accelerates particles in a beam; a nozzle that receives the beam of particles downstream of the accelerator, the nozzle configured to create a first beam that delivers a first dose with a first Spread Out Bragg Peak, SOBP, along a first target line segment in a target volume and to create a second beam that delivers a second dose with a second SOBP along a second target line segment in the target volume, wherein the second target line segment is displaced from the first target line segment, wherein the nozzle further comprises a range modulator; and wherein the range modulator comprises a plurality of arms extending from a hub, the arms having non-uniform thicknesses, and wherein the system includes mechanisms configured to adjust the position of the range modulator transversely to the path of the beam and to rotate the range modulator about the hub allowing the beam to pass through different thicknesses of material of the arms and also through different amounts of space between adjacent arms to vary the extent of spread of the SOBP.
Weapon housing for a self-loading firearm, which housing is produced by means of extrusion or extrusion moulding, comprising a barrel receptacle which is formed as an inner component of the one-piece weapon housing, characterised in that the barrel receptacle has a front face for contact with a stop of a barrel or a locking bush fastened to the barrel and a rear face for contact with a barrel nut so that the barrel or the locking bush fastened to the barrel can be fixed in the barrel receptacle by means of a thread via a counter thread provided in the barrel nut, such that the barrel nut braces the barrel or the locking bush fastened to the barrel against the barrel receptacle.