mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device comprising: a first semiconductor layer comprising one or more synaptic cores, each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; a second semiconductor layer stacked on the first semiconductor layer and comprising an interconnect forming a physical transfer path between synaptic cores; a third semiconductor layer stacked on the second semiconductor layer and comprising one or more synaptic cores each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; and one or more through electrodes, through which information is transferred between the first through third semiconductor layers, wherein a first synaptic core in the first semiconductor layer is configured to transfer information including a result of neuromorphic computation to a second synaptic core in the third semiconductor layer via the one or more through electrodes and the interconnect of the second semiconductor layer 212), wherein the second semiconductor layer further comprises a router for determining an information transfer path between the synaptic cores. a first semiconductor layer comprising one or more synaptic cores, each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; a second semiconductor layer stacked on the first semiconductor layer and comprising an interconnect forming a physical transfer path between synaptic cores; a third semiconductor layer stacked on the second semiconductor layer and comprising one or more synaptic cores each synaptic core comprising neural circuits and a memory array storing synapse information to perform neuromorphic computation; and one or more through electrodes, through which information is transferred between the first through third semiconductor layers, wherein a first synaptic core in the first semiconductor layer is configured to transfer information including a result of neuromorphic computation to a second synaptic core in the third semiconductor layer via the one or more through electrodes and the interconnect of the second semiconductor layer 212), wherein the second semiconductor layer further comprises a router for determining an information transfer path between the synaptic cores.
A crash barrier beam (10; 10c; 10m; 10f), suitable for temporary or permanent use on a road, the beam comprising: a housing which in profile has a laterally extending base for contact with the road; and a narrower central wall and a top section, wherein the wall extends upwardly from the base and tapers from the base toward the top section, the wall having a length defined by a first end and a second end (17c;17m; 17f), at least one of said first and second ends (17c; 17m; 17f) comprising formations for engagement with corresponding respective formations on an end of another beam for interlocking the beams to one another to facilitate self-alignment of the beams, wherein the exterior of the housing provides a continuous impact surface to an oncoming vehicle; characterised in that the beam (10; 10c; 10m; 10f) comprises formations at one end (17c;17m; 17f) thereof only and the other end (17c;17m; 17f) is provided with a jointing assembly (12c; 20c; 20m; 20f) directly securable to a jointing assembly (12c; 20c; 20m; 20f) of another beam (10; 10c; 10m; 10f), wherein one or more gussets are provided at the respective jointing assemblies, said gussets providing a flow path for distributing force from an impact up and/or down the length of the beam in the event of an impact thereon. a housing which in profile has a laterally extending base for contact with the road; and a narrower central wall and a top section, wherein the wall extends upwardly from the base and tapers from the base toward the top section, the wall having a length defined by a first end and a second end (17c;17m; 17f), at least one of said first and second ends (17c; 17m; 17f) comprising formations for engagement with corresponding respective formations on an end of another beam for interlocking the beams to one another to facilitate self-alignment of the beams, wherein the exterior of the housing provides a continuous impact surface to an oncoming vehicle; characterised in that the beam (10; 10c; 10m; 10f) comprises formations at one end (17c;17m; 17f) thereof only and the other end (17c;17m; 17f) is provided with a jointing assembly (12c; 20c; 20m; 20f) directly securable to a jointing assembly (12c; 20c; 20m; 20f) of another beam (10; 10c; 10m; 10f), wherein one or more gussets are provided at the respective jointing assemblies, said gussets providing a flow path for distributing force from an impact up and/or down the length of the beam in the event of an impact thereon.
A molecule comprising an antigen binding fragment that immunospecifically binds to BTN1A1, wherein said antigen binding fragment comprises: (a) a heavy chain variable (V H) region comprising: a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or (b) a light chain variable (V L) region comprising: a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30. (a) a heavy chain variable (V H) region comprising: a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or a V H CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 7, 10, 13 and 16; a V H CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 8, 11, 14 and 17; and a V H CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 9, 12, 15 and 18; or (b) a light chain variable (V L) region comprising: a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30. a V L CDR1 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 19, 22, 25 and 28; a V L CDR2 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 20, 23, 26 and 29; and a V L CDR3 having an amino acid sequence selected from the group consisting of SEQ ID NOS: 21, 24, 27 and 30.
An orthopedic plate, comprising: a body with a first end, a second end, and a central portion extending between the first endand the second end; a first pair of lobes (18, 20) at the first end; a second pair of lobes at the second end; and a securing mechanism extending away from a bottom surfaceof the central portion, said orthopedic plate being characterized in that the securing mechanism comprises: a base portion; at least two opposing extension members projecting from the base portion; at least two retaining members positioned along a side of each of the two opposing extension members, wherein at least one first retaining member protrudes from at least one of the at least two opposing extension members in a proximal direction and at least one second retaining member protrudes from at least one of the at least two opposing extension members in a distal direction. a body with a first end, a second end, and a central portion extending between the first endand the second end; a first pair of lobes (18, 20) at the first end; a second pair of lobes at the second end; and a securing mechanism extending away from a bottom surfaceof the central portion, said orthopedic plate being characterized in that the securing mechanism comprises: a base portion; at least two opposing extension members projecting from the base portion; at least two retaining members positioned along a side of each of the two opposing extension members, wherein at least one first retaining member protrudes from at least one of the at least two opposing extension members in a proximal direction and at least one second retaining member protrudes from at least one of the at least two opposing extension members in a distal direction. a base portion; at least two opposing extension members projecting from the base portion; at least two retaining members positioned along a side of each of the two opposing extension members, wherein at least one first retaining member protrudes from at least one of the at least two opposing extension members in a proximal direction and at least one second retaining member protrudes from at least one of the at least two opposing extension members in a distal direction.
A turning method for a workpiece rotatable about a rotation axis, the turning method comprising: driving a first movement apparatus for moving a turning tool in a radial direction of the rotation axis to locate a cutting edge of the turning tool at a first radial position in the radial direction; driving a second movement apparatus for moving the turning tool in parallel with the rotation axis, performing turning on the workpiece, and then moving the turning tool in a reverse direction to retract the turning tool from the workpiece; measuring a processed dimension of the workpiece, and calculating an error between the processed dimension that has been measured and a target dimension; characterised in that the turning method further comprises: driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis, and performing turning on the workpiece. driving a first movement apparatus for moving a turning tool in a radial direction of the rotation axis to locate a cutting edge of the turning tool at a first radial position in the radial direction; driving a second movement apparatus for moving the turning tool in parallel with the rotation axis, performing turning on the workpiece, and then moving the turning tool in a reverse direction to retract the turning tool from the workpiece; measuring a processed dimension of the workpiece, and calculating an error between the processed dimension that has been measured and a target dimension; characterised in that the turning method further comprises: driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis, and performing turning on the workpiece. driving a third movement apparatus for moving the turning tool relative to the first movement apparatus in the radial direction of the rotation axis to locate the cutting edge of the turning tool at a second radial position so as to correct the error; and driving the second movement apparatus to move the turning tool in parallel with the rotation axis, and performing turning on the workpiece.
A pressing roll device, in which a unit cell is passed between an upper roll and a lower roll, the pressing roll device comprising: the lower roll; the upper roll; a lower mount on which the lower roll is mounted and which is fixed in movement; an upper mount on which the upper roll is mounted and which is restricted by a bracket so as to ascend and descend by the bracket; and a stopper disposed between the lower mount and the upper mount so that the lower roll and the upper roll are spaced apart from each other, characterized in that the upper mount comprises a head part protruding from a top surface of the upper mount, the head part comprises a body portion protruding vertically from the top surface of the upper mount and an expansion portion of which a diameter increases at an upper end of the body portion, and the head part is coupled so that separation of the expansion portion is restricted by a clamping portion of the bracket, wherein, in a state in which the bracket is fixed, the upper mount ascends and descends in the state in which the head part is restricted within a range in which a bottom surface of the clamping portion contacts the top surface of the upper mount, or a top surface of the clamping portion contacts the expansion portion. the lower roll; the upper roll; a lower mount on which the lower roll is mounted and which is fixed in movement; an upper mount on which the upper roll is mounted and which is restricted by a bracket so as to ascend and descend by the bracket; and a stopper disposed between the lower mount and the upper mount so that the lower roll and the upper roll are spaced apart from each other, characterized in that the upper mount comprises a head part protruding from a top surface of the upper mount, the head part comprises a body portion protruding vertically from the top surface of the upper mount and an expansion portion of which a diameter increases at an upper end of the body portion, and the head part is coupled so that separation of the expansion portion is restricted by a clamping portion of the bracket, wherein, in a state in which the bracket is fixed, the upper mount ascends and descends in the state in which the head part is restricted within a range in which a bottom surface of the clamping portion contacts the top surface of the upper mount, or a top surface of the clamping portion contacts the expansion portion.
A method of selecting user equipments (4a - 4d) for co-scheduling in a wireless network, the wireless network including a receiver station including a plurality of antennas and a plurality of user equipments (4a - 4d), each user equipment including one antenna, the method comprising: a) determining a feature for each transmission from a user equipment to the receiver; b) comparing the transmission feature of each user equipment with the transmission feature of another user equipment to determine an orthogonality factor of the features; said method characterized by: c) selecting a pair of user equipments with the lowest orthogonality factor for simultaneous transmission; and d) co-scheduling the pair of user equipments only if the orthogonality factor is below a threshold. a) determining a feature for each transmission from a user equipment to the receiver; b) comparing the transmission feature of each user equipment with the transmission feature of another user equipment to determine an orthogonality factor of the features; said method characterized by: c) selecting a pair of user equipments with the lowest orthogonality factor for simultaneous transmission; and d) co-scheduling the pair of user equipments only if the orthogonality factor is below a threshold.
An information processing apparatus (1, 11) comprising: a first forwarding control unit configured to, when a virtual switch connected to a virtual machine receives a packet addressed to the virtual machine, make the virtual switch forward the packet; characterized in that the information processing apparatus further comprises: a storing control unit (3, 32) configured to make the virtual switch store the received packet, the packet being related to an uncompleted transaction, in association with the uncompleted transaction in the first storing unit; a stop control unit (4, 32) configured to make the virtual switch stop forwarding of the packet to the virtual machine, in response to an instruction for restoring the virtual machine; and a transmission control unit (5, 32) configured to make the virtual switch transmit one or a plurality of packets stored in the first storing unit in association with the uncompleted transaction to the virtual machine, in response to completion of restoring of the virtual machine, upon receiving an instruction to resume the forwarding. a storing control unit (3, 32) configured to make the virtual switch store the received packet, the packet being related to an uncompleted transaction, in association with the uncompleted transaction in the first storing unit; a stop control unit (4, 32) configured to make the virtual switch stop forwarding of the packet to the virtual machine, in response to an instruction for restoring the virtual machine; and a transmission control unit (5, 32) configured to make the virtual switch transmit one or a plurality of packets stored in the first storing unit in association with the uncompleted transaction to the virtual machine, in response to completion of restoring of the virtual machine, upon receiving an instruction to resume the forwarding.
A system for stabilizing a two-wheeled vehicle, the system comprising: a rotatable mass (162, 250) mounted with respect to a steerable front wheel (130, 240) for the vehicle that has a characteristic precession so that the front wheel (130, 240) is urged in a direction of an unintentional bank to provide recovery in the form of steering from the bank, the front wheel rotatably mounted on an inner hub on an axle shaft mountable on a steerable fork operatively connected to handle bars, the axle shaft supporting the inner hub on bearings, characterised in that the rotatable mass (162, 250) rotates freely with respect to both the steerable front wheel and the steerable fork and includes a drive hub, wherein the drive hub is located adjacent to the inner hub and includes an interface adapted to cause the rotatable mass to freely spin at a desired time interval about the inner hub, wherein the drive hub engages a drive mechanism configured to impart rotational motion to the rotatable mass while the front wheel (130, 240) is stationary, and wherein the drive mechanism is a spin-up mechanism. a rotatable mass (162, 250) mounted with respect to a steerable front wheel (130, 240) for the vehicle that has a characteristic precession so that the front wheel (130, 240) is urged in a direction of an unintentional bank to provide recovery in the form of steering from the bank, the front wheel rotatably mounted on an inner hub on an axle shaft mountable on a steerable fork operatively connected to handle bars, the axle shaft supporting the inner hub on bearings, characterised in that the rotatable mass (162, 250) rotates freely with respect to both the steerable front wheel and the steerable fork and includes a drive hub, wherein the drive hub is located adjacent to the inner hub and includes an interface adapted to cause the rotatable mass to freely spin at a desired time interval about the inner hub, wherein the drive hub engages a drive mechanism configured to impart rotational motion to the rotatable mass while the front wheel (130, 240) is stationary, and wherein the drive mechanism is a spin-up mechanism.
A system for generating instructions to a robot to perform work on a workpiece comprising: a 3D model or models of a robot scene (2a, 2b) providing robot scene data, the robot scene data comprising an image of the robot scene or a CAD of the scene; data of one or both hands of a gesture that is made with said one or both hands (2c-2j) and is associated with a plurality of instructions comprising a start instruction for the robot and a stop instruction for the robot, the gesture data comprising an image of said one or both hands pointing to a location in the robot scene, and hand and finger orientation and location information of said one or both hands; and a computation device having program code configured to process: said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, to generate an instruction for operating said robot to perform work on said workpiece, said instruction including a robot target, the computation device being suitable for calculating the robot target by intersecting the finger direction with the robot scene data, to generate instructions for the robot based on the context, said operation comprising generating a start instruction for the robot if said gesture is used for a first time or to generate a stop instruction for the robot if said gesture is used for a second time. a 3D model or models of a robot scene (2a, 2b) providing robot scene data, the robot scene data comprising an image of the robot scene or a CAD of the scene; data of one or both hands of a gesture that is made with said one or both hands (2c-2j) and is associated with a plurality of instructions comprising a start instruction for the robot and a stop instruction for the robot, the gesture data comprising an image of said one or both hands pointing to a location in the robot scene, and hand and finger orientation and location information of said one or both hands; and a computation device having program code configured to process: said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, said robot scene data, said gesture data, and context in which the gesture is used, wherein processing the context comprises recognizing a previous occurrence of said gesture data, to generate an instruction for operating said robot to perform work on said workpiece, said instruction including a robot target, the computation device being suitable for calculating the robot target by intersecting the finger direction with the robot scene data, to generate instructions for the robot based on the context, said operation comprising generating a start instruction for the robot if said gesture is used for a first time or to generate a stop instruction for the robot if said gesture is used for a second time.
An integrated primary nozzle (210; 410), comprising: a forward cowl; an integrated panel (242; 442) concentric to the forward cowl and extending longitudinally beyond an aft end of the forward cowl, wherein the integrated panel (242; 442) is an integrally formed combination of a primary nozzle outer wall (230; 430), an acoustic treatment (220; 420), and an aft cowl (130; 330); and an annular vent (240; 440) formed between an outer surface of the integrated panel (242; 442) and an inner surface of the forward cowl; and wherein the acoustic treatment is an acoustic liner that includes a honeycomb core sandwiched between a perforated front sheet and a solid back sheet. a forward cowl; an integrated panel (242; 442) concentric to the forward cowl and extending longitudinally beyond an aft end of the forward cowl, wherein the integrated panel (242; 442) is an integrally formed combination of a primary nozzle outer wall (230; 430), an acoustic treatment (220; 420), and an aft cowl (130; 330); and an annular vent (240; 440) formed between an outer surface of the integrated panel (242; 442) and an inner surface of the forward cowl; and wherein the acoustic treatment is an acoustic liner that includes a honeycomb core sandwiched between a perforated front sheet and a solid back sheet.