mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaning station for a liquid electrophotographic printer comprising: a first cleaning member; a second cleaning member; and a biasing member , wherein the cleaning station is configured to move between a first position and a second position with respect to a photo imaging member of the printer, wherein: in the first position, the first cleaning member is arranged to remove particles from the photo imaging member of the printer and the second cleaning member is arranged to apply a force to a layer of liquid applied to the photo imaging member; and in the second position, the biasing member is configured to cause the second cleaning member to contact the first cleaning member to clean the second cleaning member. a first cleaning member; a second cleaning member; and a biasing member , wherein the cleaning station is configured to move between a first position and a second position with respect to a photo imaging member of the printer, wherein: in the first position, the first cleaning member is arranged to remove particles from the photo imaging member of the printer and the second cleaning member is arranged to apply a force to a layer of liquid applied to the photo imaging member; and in the second position, the biasing member is configured to cause the second cleaning member to contact the first cleaning member to clean the second cleaning member. in the first position, the first cleaning member is arranged to remove particles from the photo imaging member of the printer and the second cleaning member is arranged to apply a force to a layer of liquid applied to the photo imaging member; and in the second position, the biasing member is configured to cause the second cleaning member to contact the first cleaning member to clean the second cleaning member.
A method of mapping obstruction zones of a work area on a workplace map and providing augmented control of a power machine (100; 200; 300; 900; 1000; 1200; 1300; 1400), the method comprising: identifying an obstruction zone for an obstruction in the work area using a first portable positioning device (980; 1080) to tag a position of the ob struction; identifying a position of a power machine at a first location in the work area using the first portable positioning device; identifying a position of the power machine at the first location in the work area using a second positioning device (1056; 1256); identifying position information of the power machine at a second location in the work area using the first portable positioning device; identifying a position of the power machine at the second location in the work area using the second positioning device; Characterised in that the method generates an error correction factor based upon the positions of the power machine at the first location in the work area identified using the portable positioning device and the second positioning device, and based upon the positions of the power machine at the second location in the work area identified using the portable positioning device and the second positioning device; recalculates the identified obstruction zone in the work area using the error correction factor to obtain a recalculated obstruction zone; and uses a controller (370; 970; 1070; 1270; 1470) configured with the recalculated obstruction zone to control travel of the power machine in the work area to avoid contact with the obstruction. identifying an obstruction zone for an obstruction in the work area using a first portable positioning device (980; 1080) to tag a position of the ob struction; identifying a position of a power machine at a first location in the work area using the first portable positioning device; identifying a position of the power machine at the first location in the work area using a second positioning device (1056; 1256); identifying position information of the power machine at a second location in the work area using the first portable positioning device; identifying a position of the power machine at the second location in the work area using the second positioning device; Characterised in that the method generates an error correction factor based upon the positions of the power machine at the first location in the work area identified using the portable positioning device and the second positioning device, and based upon the positions of the power machine at the second location in the work area identified using the portable positioning device and the second positioning device; recalculates the identified obstruction zone in the work area using the error correction factor to obtain a recalculated obstruction zone; and uses a controller (370; 970; 1070; 1270; 1470) configured with the recalculated obstruction zone to control travel of the power machine in the work area to avoid contact with the obstruction.
Rear-view device for a vehicle comprising a support arm adapted to be securely mounted with said vehicle, a casing rotatably mounted with said support arm , wherein said rear-view device comprises a mirror securely mounted with said casing , characterised in that it comprises a first electric motor securely mounted with said support arm , said first electric motor comprises a spindle adapted to rotate around a first geometric axis (R) with respect to said support arm , a support frame , which is securely mounted with said spindle , said support frame rotates around said first geometric axis (R) switching from at least a first angular position to at least a second angular position, an actuator , which is mounted with said support frame , said actuator is securely mounted with said casing , said actuator is adapted to rotate around a second geometric axis (S) and a third geometric axis (T), wherein said second geometric axis (S) is perpendicular to said third geometric axis (T), said casing rotates around said first geometric axis (R), to said second geometric axis (S) and to said third geometric axis (T) switching from a plurality of angular positions with respect to said support arm . a first electric motor securely mounted with said support arm , said first electric motor comprises a spindle adapted to rotate around a first geometric axis (R) with respect to said support arm , a support frame , which is securely mounted with said spindle , said support frame rotates around said first geometric axis (R) switching from at least a first angular position to at least a second angular position, an actuator , which is mounted with said support frame , said actuator is securely mounted with said casing , said actuator is adapted to rotate around a second geometric axis (S) and a third geometric axis (T), wherein said second geometric axis (S) is perpendicular to said third geometric axis (T), said casing rotates around said first geometric axis (R), to said second geometric axis (S) and to said third geometric axis (T) switching from a plurality of angular positions with respect to said support arm .
A program generating apparatus for generating a numerical control program for controlling a wire electrical discharge machine , comprising: a machining order acquisition unit configured to acquire order of machining of a plurality of machining paths (R), the order being determined based on a predetermined rule; whereby the plurality of machining paths includes machining paths including a fixing process for fixing a core, which is produced during machining of a workpiece, to the workpiece by depositing a component of a wire electrode and machining paths including an uncut process for leaving part of the core uncut and a cut-off process of cutting off the uncut portion and removing the separate core; a program generating unit configured to automatically change the order acquired by the machining order acquisition unit, so as to perform the machining paths including a fixing process prior to performing the machining paths including an uncut process and a cut-off process and generate a numerical control program configured to machine the machining paths in the changed order. a machining order acquisition unit configured to acquire order of machining of a plurality of machining paths (R), the order being determined based on a predetermined rule; whereby the plurality of machining paths includes machining paths including a fixing process for fixing a core, which is produced during machining of a workpiece, to the workpiece by depositing a component of a wire electrode and machining paths including an uncut process for leaving part of the core uncut and a cut-off process of cutting off the uncut portion and removing the separate core; a program generating unit configured to automatically change the order acquired by the machining order acquisition unit, so as to perform the machining paths including a fixing process prior to performing the machining paths including an uncut process and a cut-off process and generate a numerical control program configured to machine the machining paths in the changed order.
A method for determining resources, comprising: multiplexing (S202) a plurality of Hybrid Automatic Repeat reQuest Acknowledgement, HARQ-ACK, codebooks having different priorities and corresponding to different Physical Uplink Control Channels, PUCCHs, in a designated PUCCH resource; wherein the designated PUCCH resource is: a PUCCH resource determined according to a PUCCH resource indicator, PRI, in last Downlink Control Information, DCI, of DCI corresponding to a Downlink Physical Shared Channel, PDSCH, corresponding to a HARQ-ACK codebook having a highest priority in the plurality of HARQ-ACK codebooks having different priorities; wherein the determination of the designated PUCCH resource further comprises: determining a PUCCH set according to a number of bits of HARQ-ACK information of a new HARQ-ACK codebook into which the plurality of HARQ-ACK codebooks having different priorities are multiplexed; and selecting the designated PUCCH resource from the PUCCH set according to the PRI in the last DCI of the DCI corresponding to the PDSCH corresponding to the HARQ-ACK codebook having the highest priority. multiplexing (S202) a plurality of Hybrid Automatic Repeat reQuest Acknowledgement, HARQ-ACK, codebooks having different priorities and corresponding to different Physical Uplink Control Channels, PUCCHs, in a designated PUCCH resource; wherein the designated PUCCH resource is: a PUCCH resource determined according to a PUCCH resource indicator, PRI, in last Downlink Control Information, DCI, of DCI corresponding to a Downlink Physical Shared Channel, PDSCH, corresponding to a HARQ-ACK codebook having a highest priority in the plurality of HARQ-ACK codebooks having different priorities; wherein the determination of the designated PUCCH resource further comprises: determining a PUCCH set according to a number of bits of HARQ-ACK information of a new HARQ-ACK codebook into which the plurality of HARQ-ACK codebooks having different priorities are multiplexed; and selecting the designated PUCCH resource from the PUCCH set according to the PRI in the last DCI of the DCI corresponding to the PDSCH corresponding to the HARQ-ACK codebook having the highest priority. determining a PUCCH set according to a number of bits of HARQ-ACK information of a new HARQ-ACK codebook into which the plurality of HARQ-ACK codebooks having different priorities are multiplexed; and selecting the designated PUCCH resource from the PUCCH set according to the PRI in the last DCI of the DCI corresponding to the PDSCH corresponding to the HARQ-ACK codebook having the highest priority.
A method of increasing ion throughput within an accumulator held at a first electrical potential, an energy lift and a pulsed ion source held at a second electrical potential, wherein the first and second potentials differ by at least 1 kV, operated in that order upon a batch of ions, comprising the steps of: loading a batch of ions into the accumulator ; changing the electrical potential of the energy lift to raise the energy of the batch of ions contained therein; ejecting the batch of ions from the pulsed ion source ; wherein: the energy lift is a separate device from the accumulator and the pulsed ion source , and whilst changing the electrical potential in step : a fresh batch of ions is loaded into the accumulator and a previous batch of ions is prepared for ejection in the pulsed ion source . loading a batch of ions into the accumulator ; changing the electrical potential of the energy lift to raise the energy of the batch of ions contained therein; ejecting the batch of ions from the pulsed ion source ; wherein: the energy lift is a separate device from the accumulator and the pulsed ion source , and whilst changing the electrical potential in step : a fresh batch of ions is loaded into the accumulator and a previous batch of ions is prepared for ejection in the pulsed ion source .
A portable power-driven system for advancing a rope , the rope extending in a first main direction , the power-driven system comprising: a motor comprising a drive shaft; a rope grab connected to the drive shaft, the rope grab comprises a rope engaging face adapted to, when in an operational state, engage the rope along a first section of a circumference of the rope grab , a main body for mounting the motor and further comprising an anchoring point adapted to receive an anchoring force, the anchoring force extending in a second direction being essentially opposite to the first main direction , a rope securing arrangement, characterised by the securing arrangement comprising an elongated lever at a first end having a hinged connection to the main body and at a second end configured to receive a first roller adapted to, when in the operational state, engage with the rope , and the rope securing arrangement is adapted to, by means of a second roller comprised with the elongated lever , exert a pressure to the rope for forcing the rope towards the rope grab at a portion of the first section where the rope , when in the operational state, is engaging the rope grab , and a stopping arrangement configured to, when in the operational state, locking the elongated lever to the main body to minimizing a movement of the elongated lever in a direction parallel to the drive shaft. a motor comprising a drive shaft; a rope grab connected to the drive shaft, the rope grab comprises a rope engaging face adapted to, when in an operational state, engage the rope along a first section of a circumference of the rope grab , a main body for mounting the motor and further comprising an anchoring point adapted to receive an anchoring force, the anchoring force extending in a second direction being essentially opposite to the first main direction , a rope securing arrangement, characterised by the securing arrangement comprising an elongated lever at a first end having a hinged connection to the main body and at a second end configured to receive a first roller adapted to, when in the operational state, engage with the rope , and the rope securing arrangement is adapted to, by means of a second roller comprised with the elongated lever , exert a pressure to the rope for forcing the rope towards the rope grab at a portion of the first section where the rope , when in the operational state, is engaging the rope grab , and a stopping arrangement configured to, when in the operational state, locking the elongated lever to the main body to minimizing a movement of the elongated lever in a direction parallel to the drive shaft.
An avionics module assembly, comprising: a first circuit board including a first component of at least one high density connector a second circuit board including a second component of the at least one high density connector; a heatsink positioned between the first circuit board and the second circuit board; and a circuit board separation mechanism, comprising: a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component. a first circuit board including a first component of at least one high density connector a second circuit board including a second component of the at least one high density connector; a heatsink positioned between the first circuit board and the second circuit board; and a circuit board separation mechanism, comprising: a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component. a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component.
A method of forming a cushion package , the method comprising: feeding a cushion material from a supply of the cushion material , the cushion material having two longitudinal edges ; folding the cushion material , as the cushion material is being fed, until the cushion material is formed into a tube of the cushion material and the two longitudinal edges are in an overlapping position; forming a first transverse seal in the tube of the cushion material after folding the cushion material , wherein the first transverse seal forms a first end of the cushion package ; and forming a second transverse seal in the tube of the cushion material longitudinally spaced away from the first transverse seal , wherein the second transverse seal forms a second end of the cushion package ; wherein each of the first transverse seal and the second transverse seal seals the cushion material with the two longitudinal edges in the overlapping position; cushion package characterized in that the two longitudinal edges of the cushion material are uncoupled between the first and second transverse seals . feeding a cushion material from a supply of the cushion material , the cushion material having two longitudinal edges ; folding the cushion material , as the cushion material is being fed, until the cushion material is formed into a tube of the cushion material and the two longitudinal edges are in an overlapping position; forming a first transverse seal in the tube of the cushion material after folding the cushion material , wherein the first transverse seal forms a first end of the cushion package ; and forming a second transverse seal in the tube of the cushion material longitudinally spaced away from the first transverse seal , wherein the second transverse seal forms a second end of the cushion package ; wherein each of the first transverse seal and the second transverse seal seals the cushion material with the two longitudinal edges in the overlapping position; cushion package characterized in that the two longitudinal edges of the cushion material are uncoupled between the first and second transverse seals .
A scrubbing sponge , comprising a base of sponge material and a scourer deposited on the base , the scourer is comprised of grains of material having a hardness greater than the sponge material and less than 4.5 on the Mohs' scale, the base having a surface with open cells provided with rims and the scourer being deposited on the rims of the cells characterized in that the scourer is deposited on the rims of the cells so that the cells are not filled with the scourer .
A kit comprising: (a) a first primary antibody specific for PD-L1; (b) a second primary antibody specific for at least one immune cell marker; (c) a first set of detection reagents comprising: (c1) a first enzyme; (c2) a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and (c3) a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and (d) a second set of detection reagents comprising: (d1) a second enzyme; (d2) a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and (d3) a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme; wherein the first dye is tetramethylrhodamine (DISCOVERY Purple) and the second dye is 4-(dimethylamino) azobenzene-4'-sulfonamide (DABSYL), or wherein the first dye is 4-(dimethylamino) azobenzene-4'-sulfonamide (DABSYL) and the second dye is tetramethylrhodamine (DISCOVERY Purple). (a) a first primary antibody specific for PD-L1; (b) a second primary antibody specific for at least one immune cell marker; (c) a first set of detection reagents comprising: (c1) a first enzyme; (c2) a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and (c3) a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and (c1) a first enzyme; (c2) a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and (c3) a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and (d) a second set of detection reagents comprising: (d1) a second enzyme; (d2) a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and (d3) a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme; (d1) a second enzyme; (d2) a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and (d3) a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme;