mhurhangee/ep-ind-claims huggingface dataset:
An end effector for a surgical instrument, the end effector comprising: an elongate channel configured to removably support a cartridge therein; a firing member operably supported relative to the elongate channel for movement between a starting and ending position; a drive arrangement; an implement drive shaft in operable engagement with the firing member for moving the firing member between the starting and ending positions upon applications of actuation motions thereto from the drive arrangement, characterized by the implement drive shaft being moveable from an inoperable position wherein the implement drive shaft is out of operable engagement with the drive arrangement to an operable position wherein the implement drive shaft is in operable engagement with the drive arrangement; and by an alignment member movably supported for contact with the implement drive shaft to move the implement drive shaft from the inoperable position to the operable position upon installation of a cartridge in the elongate channel. an elongate channel configured to removably support a cartridge therein; a firing member operably supported relative to the elongate channel for movement between a starting and ending position; a drive arrangement; an implement drive shaft in operable engagement with the firing member for moving the firing member between the starting and ending positions upon applications of actuation motions thereto from the drive arrangement, characterized by the implement drive shaft being moveable from an inoperable position wherein the implement drive shaft is out of operable engagement with the drive arrangement to an operable position wherein the implement drive shaft is in operable engagement with the drive arrangement; and by an alignment member movably supported for contact with the implement drive shaft to move the implement drive shaft from the inoperable position to the operable position upon installation of a cartridge in the elongate channel.
A terminal apparatus configured to communicate with a base station apparatus in a serving cell, the terminal apparatus comprising: a Radio Resource Control, RRC, layer processing unit configured to configure in the serving cell a set of one or more downlink, DL, bandwidth parts given by a first RRC signaling; and a radio transmission and/or reception unit configured to monitor a first PDCCH with a first DCI format in an active DL bandwidth part where a first DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, the first DCI format being used for scheduling a PDSCH in the active DL bandwidth part where a second DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, and configured to monitor a second PDCCH with a second DCI format in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, the second DCI format being used for scheduling a PDSCH in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, wherein a first size of a first resource assignment information field in the first DCI format is given based on the first RRC signaling, and a second size of a second resource assignment information field in the second DCI format is given based on a second RRC signaling which includes a master information block, MIB, the second RRC signaling being different from the first RRC signaling. a Radio Resource Control, RRC, layer processing unit configured to configure in the serving cell a set of one or more downlink, DL, bandwidth parts given by a first RRC signaling; and a radio transmission and/or reception unit configured to monitor a first PDCCH with a first DCI format in an active DL bandwidth part where a first DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, the first DCI format being used for scheduling a PDSCH in the active DL bandwidth part where a second DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, and configured to monitor a second PDCCH with a second DCI format in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, the second DCI format being used for scheduling a PDSCH in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, wherein a first size of a first resource assignment information field in the first DCI format is given based on the first RRC signaling, and a second size of a second resource assignment information field in the second DCI format is given based on a second RRC signaling which includes a master information block, MIB, the second RRC signaling being different from the first RRC signaling.
A method for transporting a fiber contour cut out from a planar fiber fabric for producing a single-layer or multi-layer preform as a preliminary step for producing fiber-reinforced plastic molded parts with a suction gripper, characterized by the following method steps: 1.1. a fiber contour is cut out from the planar fiber fabric on a cutting table by means of a cutting apparatus by forming a severing cut; 1.2. a suction gripper travels over the fiber contour and brings a flat side of a transport plate into contact with the cut-out fiber contour and a holding-down plate into contact with the planar fiber fabric, 1.3. the fiber contour is fixed to the transport plate and lifted from the cutting table by means of suction apparatuses arranged on the second flat side of the transport plate and through-holes in the transport plate which correspond to the suction apparatuses, while the holding-down plate fixes the fiber fabric on the cutting table, 1.4. after the lifting of the transport plate the suction gripper and/or the holding-down plate is lifted from the cutting table and the fiber contour is conveyed by the suction gripper. 1.1. a fiber contour is cut out from the planar fiber fabric on a cutting table by means of a cutting apparatus by forming a severing cut; 1.2. a suction gripper travels over the fiber contour and brings a flat side of a transport plate into contact with the cut-out fiber contour and a holding-down plate into contact with the planar fiber fabric, 1.3. the fiber contour is fixed to the transport plate and lifted from the cutting table by means of suction apparatuses arranged on the second flat side of the transport plate and through-holes in the transport plate which correspond to the suction apparatuses, while the holding-down plate fixes the fiber fabric on the cutting table, 1.4. after the lifting of the transport plate the suction gripper and/or the holding-down plate is lifted from the cutting table and the fiber contour is conveyed by the suction gripper.
Method for providing an acoustic signal with extended bandwidth, comprising: providing an upper extension signal for extending a received acoustic signal at upper frequencies, wherein providing the upper extension signal comprises shifting the received acoustic signal at least above a predetermined lower frequency value and/or below a predetermined upper frequency value by a predetermined shifting frequency value to obtain a shifted signal, wherein the step of shifting comprises performing a cosine modulation of the received acoustic signal, combining the received acoustic signal and the upper extension signal by providing a weighted sum of the received acoustic signal and the upper extension signal, wherein the upper extension signal is weighted with a first factor, wherein the first factor is a function of an estimated signal-to-noise ratio of the received acoustic signal. providing an upper extension signal for extending a received acoustic signal at upper frequencies, wherein providing the upper extension signal comprises shifting the received acoustic signal at least above a predetermined lower frequency value and/or below a predetermined upper frequency value by a predetermined shifting frequency value to obtain a shifted signal, wherein the step of shifting comprises performing a cosine modulation of the received acoustic signal, combining the received acoustic signal and the upper extension signal by providing a weighted sum of the received acoustic signal and the upper extension signal, wherein the upper extension signal is weighted with a first factor, wherein the first factor is a function of an estimated signal-to-noise ratio of the received acoustic signal.
A test method for testing a device under test, the test method comprising: acquiring, by a processor, a sequence of at least two signals of the device under test; determining, by the processor, characteristic parameters for each signal in the acquired sequence, wherein determining characteristic parameters in the acquired sequence comprises detecting predetermined patterns; storing the determined characteristic parameters in a measurement memory, wherein the characteristic parameters are stored in form of an array, a table or a spread sheet with one dimension for the number of signal sequences and a further dimension for the characteristic parameters; storing specifications of the device under test in a specification memory; and comparing, by the processor, the characteristic parameters of the acquired sequence and corresponding specifications of the device under test in order to determine whether or not the characteristic parameters of the acquired sequence are within the corresponding specifications of the device under test. acquiring, by a processor, a sequence of at least two signals of the device under test; determining, by the processor, characteristic parameters for each signal in the acquired sequence, wherein determining characteristic parameters in the acquired sequence comprises detecting predetermined patterns; storing the determined characteristic parameters in a measurement memory, wherein the characteristic parameters are stored in form of an array, a table or a spread sheet with one dimension for the number of signal sequences and a further dimension for the characteristic parameters; storing specifications of the device under test in a specification memory; and comparing, by the processor, the characteristic parameters of the acquired sequence and corresponding specifications of the device under test in order to determine whether or not the characteristic parameters of the acquired sequence are within the corresponding specifications of the device under test.
A negative electrode slurry composition, comprising: a negative electrode active material; a hydrophobically modified alkali-swellable emulsion; and a solvent. a negative electrode active material; a hydrophobically modified alkali-swellable emulsion; and a solvent.
A fluid gear pump comprising: a first gear constructed and arranged to rotate about a first axis, the first gear including a concentrically disposed first hub portion and a plurality of first teeth radially projecting and circumferentially spaced about the first hub portion; a second gear operably coupled to the first gear for rotation about a second axis, the second gear including a concentrically disposed second hub portion and a plurality of second teeth radially projecting and circumferentially spaced about the second hub portion, wherein at a time in operation the plurality of first teeth and the plurality of second teeth contact at first contact point and a second contact point to create a backlash volume interposed between the first contact point and the second contact point; a first bearing abutting and coaxial to the first hub portion; a second bearing abutting and coaxial to the second hub portion; and characterized by a bridgeland connecting the first bearing to the second bearing, the bridgeland being configured to separate a low pressure side of the fluid gear pump from a high pressure side of the fluid gear pump and periodically seal fluid within the backlash volume in a direction parallel with the first axis; wherein the bridgeland is configured to temporarily enclose the backlash volume between the first contact point, the second contact point, and the bridgeland, such that the backlash volume closes to the high pressure side and opens to the low pressure side when a rate of change of a volume measurement of the backlash volume is decreasing or about equal to zero. a first gear constructed and arranged to rotate about a first axis, the first gear including a concentrically disposed first hub portion and a plurality of first teeth radially projecting and circumferentially spaced about the first hub portion; a second gear operably coupled to the first gear for rotation about a second axis, the second gear including a concentrically disposed second hub portion and a plurality of second teeth radially projecting and circumferentially spaced about the second hub portion, wherein at a time in operation the plurality of first teeth and the plurality of second teeth contact at first contact point and a second contact point to create a backlash volume interposed between the first contact point and the second contact point; a first bearing abutting and coaxial to the first hub portion; a second bearing abutting and coaxial to the second hub portion; and characterized by a bridgeland connecting the first bearing to the second bearing, the bridgeland being configured to separate a low pressure side of the fluid gear pump from a high pressure side of the fluid gear pump and periodically seal fluid within the backlash volume in a direction parallel with the first axis; wherein the bridgeland is configured to temporarily enclose the backlash volume between the first contact point, the second contact point, and the bridgeland, such that the backlash volume closes to the high pressure side and opens to the low pressure side when a rate of change of a volume measurement of the backlash volume is decreasing or about equal to zero.
A plug connector (1, 1'), comprising an insulating body (2, 2'), a contact support (3, 3'), a shielding device (4, 4'), and a plurality of socket or pin contacts (5, 5') which are intended to be arranged in the contact support (3, 3'), characterized in that the shielding device (4, 4') is pivotably held at the insulating body (2, 2'), the shielding device (4, 4') including first guide means which are operatively connected to second guide means of the contact support (3, 3'), so that the contact support (3, 3') can be inserted into the insulating body (2, 2') or joined to the insulating body (2, 2') by a pivoting movement of the shielding device (4, 4').
An x-ray apparatus comprising - a goniometer with a detector circle which is rotatable about a goniometer axis, in particular wherein the goniometer axis extends in the horizontal direction, - an actuator, which is coupled to the detector circle, for the motor-driven rotation of the detector circle, - a source arrangement which comprises an x-ray source, - a detector arrangement which is fastened to the detector circle, wherein the detector arrangement comprises an x-ray detector, - a sample position for a sample to be examined, wherein the source arrangement and the detector arrangement are aligned with the sample position, in particular wherein the sample position lies on the goniometer axis, - and a compensation apparatus, by means of which a torque in respect of the goniometer axis acting on the detector circle that is produced by the weight of the detector arrangement is at least substantially compensated, characterized in that the compensation apparatus comprises - a compensation motor, which likewise is coupled to the detector circle, for applying a torque in respect of the goniometer axis to the detector circle and - a control device for the compensation motor, said control device being embodied to actuate the compensation motor depending on a current position of the detector arrangement in such a way that the torque applied by the compensation motor is at least substantially equal and opposite to a torque in respect of the goniometer axis that is produced by the weight of the detector circle including the detector arrangement. - a goniometer with a detector circle which is rotatable about a goniometer axis, in particular wherein the goniometer axis extends in the horizontal direction, - an actuator, which is coupled to the detector circle, for the motor-driven rotation of the detector circle, - a source arrangement which comprises an x-ray source, - a detector arrangement which is fastened to the detector circle, wherein the detector arrangement comprises an x-ray detector, - a sample position for a sample to be examined, wherein the source arrangement and the detector arrangement are aligned with the sample position, in particular wherein the sample position lies on the goniometer axis, - and a compensation apparatus, by means of which a torque in respect of the goniometer axis acting on the detector circle that is produced by the weight of the detector arrangement is at least substantially compensated, - a compensation motor, which likewise is coupled to the detector circle, for applying a torque in respect of the goniometer axis to the detector circle and - a control device for the compensation motor, said control device being embodied to actuate the compensation motor depending on a current position of the detector arrangement in such a way that the torque applied by the compensation motor is at least substantially equal and opposite to a torque in respect of the goniometer axis that is produced by the weight of the detector circle including the detector arrangement.
A printed circuit board (700, 200) comprising: a ground plane (702, 202) comprising a pattern of an electrically conductive material; and a circuit trace (704, 204) disposed adjacent to the ground plane (702, 202) and separated from ground plane (702, 202) via a dielectric layer, where one or more characteristics of one or more of the pattern of the electrically conductive material in the ground plane (702, 202) and the circuit trace (704, 204) vary based upon a directional change of the circuit trace (704, 204) in the plane of the printed circuit board characterised in that a curved region of the circuit trace (704, 204) is formed by a conductive material different from a material included in uncurved regions of the circuit trace (704, 204). a ground plane (702, 202) comprising a pattern of an electrically conductive material; and a circuit trace (704, 204) disposed adjacent to the ground plane (702, 202) and separated from ground plane (702, 202) via a dielectric layer, where one or more characteristics of one or more of the pattern of the electrically conductive material in the ground plane (702, 202) and the circuit trace (704, 204) vary based upon a directional change of the circuit trace (704, 204) in the plane of the printed circuit board
An adjunct system for a surgical stapler, the system comprising: a first adjunct configured to be releasably retained on a first staple cartridge, the first adjunct formed of a first plurality of repeating interconnected unit cells such that the first adjunct, while under an applied stress in a range of 30 kPa to 90 kPa, undergoes a strain in a first range; wherein at least one value of stress between 30 kPa and 90 kPa gives rise to a strain in the first range and wherein whenever the strain is in the first range the applied stress is between 30 kPa and 90 kPa; and a second adjunct that is different than the first adjunct and configured to be releasably retained on a second staple cartridge, the second adjunct formed of a second plurality of repeating interconnected unit cells such that the second adjunct while under an applied stress in a range of 30 kPa to 90 kPa, undergoes a strain in a second range; wherein at least one value of stress between 30 kPa and 90 kPa gives rise to a strain in the second range and wherein whenever the strain is in the second range the applied stress is between 30 kPa and 90 kPa; wherein at least a portion of the first range overlaps with the second range, and wherein a combined range of the first and second ranges is from 0.1 to at most 0.7. a first adjunct configured to be releasably retained on a first staple cartridge, the first adjunct formed of a first plurality of repeating interconnected unit cells such that the first adjunct, while under an applied stress in a range of 30 kPa to 90 kPa, undergoes a strain in a first range; wherein at least one value of stress between 30 kPa and 90 kPa gives rise to a strain in the first range and wherein whenever the strain is in the first range the applied stress is between 30 kPa and 90 kPa; and a second adjunct that is different than the first adjunct and configured to be releasably retained on a second staple cartridge, the second adjunct formed of a second plurality of repeating interconnected unit cells such that the second adjunct while under an applied stress in a range of 30 kPa to 90 kPa, undergoes a strain in a second range; wherein at least one value of stress between 30 kPa and 90 kPa gives rise to a strain in the second range and wherein whenever the strain is in the second range the applied stress is between 30 kPa and 90 kPa; wherein at least a portion of the first range overlaps with the second range, and wherein a combined range of the first and second ranges is from 0.1 to at most 0.7.
A resin composition for a brake pad friction material comprising a resin binder cured from a composition containing a phthalonitrile compound, reinforcing fiber, a filler, an abrasive, and a lubricant, wherein the resin binder is formed by curing of the composition containing a phthalonitrile compound by one or more curing agents including a compound represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number that is equal to or greater than 1, wherein the filler comprises one or more selected from the group consisting of barium sulfate and calcium carbonate, the abrasive comprises one or more selected from the group consisting of zirconia, alumina, zirconium silicate, and silicon carbide, and the lubricant comprises one or more selected from the group consisting of graphite, cokes, antimony oxide, hexagonal boron nitride, graphene, carbon nanotubes, and metal sulfide. M is a tetravalent radical derived from an aliphatic, alicyclic, or aromatic compound, each of X 1 and X 2 is independently an alkylene group, an alkylidene group, or a divalent radical derived from an aromatic compound, and n is a number that is equal to or greater than 1, wherein the filler comprises one or more selected from the group consisting of barium sulfate and calcium carbonate, the abrasive comprises one or more selected from the group consisting of zirconia, alumina, zirconium silicate, and silicon carbide, and the lubricant comprises one or more selected from the group consisting of graphite, cokes, antimony oxide, hexagonal boron nitride, graphene, carbon nanotubes, and metal sulfide.