mhurhangee/ep-ind-claims huggingface dataset:
A method of preventing an occurrence of a downlink transmission or reception, Tx/Rx, beam mismatch by a user equipment, UE, (130, 330, 501, 502, 505) in a beamforming system, the method comprising: receiving a downlink reference signal; selecting a downlink Tx/Rx beam based on the received downlink reference signal; determining that there is a possibility of the occurrence of the Tx/Rx beam mismatch based on determining that the selected downlink Tx/Rx beam having a capability equal to or larger than a first value is different from a previously selected downlink Tx/Rx beam having a capability equal to or smaller than a second value, or that a frequency with which the selected downlink Tx/Rx beam is changed per second is equal to or larger than a third value; and performing an operation to prevent the occurrence of the Tx/Rx beam mismatch in response to determining that there is the possibility of the occurrence of the Tx/Rx beam mismatch, wherein the operation comprises an operation of reducing a selection period of the downlink Tx/Rx beam. receiving a downlink reference signal; selecting a downlink Tx/Rx beam based on the received downlink reference signal; determining that there is a possibility of the occurrence of the Tx/Rx beam mismatch based on determining that the selected downlink Tx/Rx beam having a capability equal to or larger than a first value is different from a previously selected downlink Tx/Rx beam having a capability equal to or smaller than a second value, or that a frequency with which the selected downlink Tx/Rx beam is changed per second is equal to or larger than a third value; and performing an operation to prevent the occurrence of the Tx/Rx beam mismatch in response to determining that there is the possibility of the occurrence of the Tx/Rx beam mismatch, wherein the operation comprises an operation of reducing a selection period of the downlink Tx/Rx beam.
A method of regenerating a pre-purification vessel, comprising the steps of: (i) depressurizing a pre-purification vessel (20, 21, 40, 41) to a regeneration pressure, the pre-purification vessel having one or more layers of adsorbent (24, 25, 28) and/or layers of catalyst disposed therein; (ii) heating the one or more layers of adsorbent materials and/or one or more layers of catalyst materials disposed within the pre-purification vessel with a hot, oxygen-enriched purge gas to desorb the water and carbon dioxide from the one or more layers; (iii) cooling the one or more layers of adsorbent and/or layers of catalyst within the pre-purification vessel with a cold, oxygen-enriched purge gas to temperatures suitable for the pre-purification process; (iv) partially repressurizing the pre-purification vessel with an auxiliary purge gas to dilute the oxygen concentration of the gases contained in the pre-purification vessel after the cooling step; (v) fully repressurizing the pre-purification vessel to an operating pressure for prepurification of a feed gas, wherein the oxygen concentration of the gases in the repressurized pre-purification vessel is less than or equal to 30% by molar volume. (i) depressurizing a pre-purification vessel (20, 21, 40, 41) to a regeneration pressure, the pre-purification vessel having one or more layers of adsorbent (24, 25, 28) and/or layers of catalyst disposed therein; (ii) heating the one or more layers of adsorbent materials and/or one or more layers of catalyst materials disposed within the pre-purification vessel with a hot, oxygen-enriched purge gas to desorb the water and carbon dioxide from the one or more layers; (iii) cooling the one or more layers of adsorbent and/or layers of catalyst within the pre-purification vessel with a cold, oxygen-enriched purge gas to temperatures suitable for the pre-purification process; (iv) partially repressurizing the pre-purification vessel with an auxiliary purge gas to dilute the oxygen concentration of the gases contained in the pre-purification vessel after the cooling step; (v) fully repressurizing the pre-purification vessel to an operating pressure for prepurification of a feed gas, wherein the oxygen concentration of the gases in the repressurized pre-purification vessel is less than or equal to 30% by molar volume.
A method for monitoring a virtual document object model (VDOM), comprising: generating, via a first thread, a first VDOM node and sending the first VDOM node to a second thread; comparing, via the second thread, the first VDOM node to a second VDOM node to be updated so as to determine whether the first VDOM node is the same as the second VDOM node to be updated, and returning a comparison result to the first thread; and sending, via the first thread, the first VDOM node to a third thread when the comparison result received from the second thread indicates that the first VDOM node is different from the second VDOM node to be updated, wherein the third thread is configured to perform page rendering based on the first VDOM node. generating, via a first thread, a first VDOM node and sending the first VDOM node to a second thread; comparing, via the second thread, the first VDOM node to a second VDOM node to be updated so as to determine whether the first VDOM node is the same as the second VDOM node to be updated, and returning a comparison result to the first thread; and sending, via the first thread, the first VDOM node to a third thread when the comparison result received from the second thread indicates that the first VDOM node is different from the second VDOM node to be updated, wherein the third thread is configured to perform page rendering based on the first VDOM node.
A gimbal assembly, comprising: an enclosure configured to rotate about a first axis; a window coupled to the enclosure; a pivot assembly coupled to an interior portion of the enclosure, the pivot assembly configured to pivot within the enclosure about a second axis, the second axis being perpendicular to the first axis; the pivot assembly comprising: a base portion; a mirror coupled at an angle to the base portion and configured to reflect light received through the window; a payload receptacle configured to house a sensor for receiving the light reflected by the mirror; and the gimbal assembly further comprising one or more guide rails coupled within the enclosure to an interior portion of the enclosure to limit the maximum range of motion of the pivot assembly, wherein the base portion, mirror, and payload receptacle remain fixed relative to each other as pivot assembly pivots about second axis. an enclosure configured to rotate about a first axis; a window coupled to the enclosure; a pivot assembly coupled to an interior portion of the enclosure, the pivot assembly configured to pivot within the enclosure about a second axis, the second axis being perpendicular to the first axis; the pivot assembly comprising: a base portion; a mirror coupled at an angle to the base portion and configured to reflect light received through the window; a payload receptacle configured to house a sensor for receiving the light reflected by the mirror; and the gimbal assembly further comprising one or more guide rails coupled within the enclosure to an interior portion of the enclosure to limit the maximum range of motion of the pivot assembly, wherein the base portion, mirror, and payload receptacle remain fixed relative to each other as pivot assembly pivots about second axis. a base portion; a mirror coupled at an angle to the base portion and configured to reflect light received through the window; a payload receptacle configured to house a sensor for receiving the light reflected by the mirror; and the gimbal assembly further comprising one or more guide rails coupled within the enclosure to an interior portion of the enclosure to limit the maximum range of motion of the pivot assembly, wherein the base portion, mirror, and payload receptacle remain fixed relative to each other as pivot assembly pivots about second axis.
A T cell receptor with specificity for NY-ESO-1 comprising: (i) a T cell receptor α-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor α-chain of SEQ ID NO: 44, and (ii) a T cell receptor β-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor β-chain of SEQ ID NO: 45, wherein said hypervariable region comprises CDR1, CDR2 and CDR3 of a T cell receptor. (i) a T cell receptor α-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor α-chain of SEQ ID NO: 44, and (ii) a T cell receptor β-chain comprising a hypervariable region comprising at least the CDR3 sequence of the T cell receptor β-chain of SEQ ID NO: 45,
A capacitor comprising: a positive electrode of a valve metal, a dielectric of an anodized film formed on said valve metal, and a negative electrode including a composite material in contact with said anodized film, characterised in that said composite material includes a conductive polymer and an ionic liquid capable of repairing a defect in said and user film. a positive electrode of a valve metal, a dielectric of an anodized film formed on said valve metal, and a negative electrode including a composite material in contact with said anodized film,
A composition for forming a Mn-doped PZT-based piezoelectric film formed of Mn-doped composite metal oxides, the composition comprising: PZT-based precursors containing metal atoms configuring the composite metal oxides; a diol; and polyvinylpyrrolidone, wherein when a metal atom ratio in the composition is shown as Pb:Mn:Zr:Ti, the PZT-based precursors are contained so that Pb is satisfied to be from 1.05 to 1.15, Mn is satisfied to be from 0.02 to 0.042, Zr is satisfied to be from 0.45 to 0.55, Ti is satisfied to be from 0.45 to 0.55, and the total of Zr and Ti in a metal atom ratio is 1, a concentration of the PZT-based precursor in 100 mass% of the composition is from 17 mass% to 35 mass% in terms of an oxide concentration, a rate of diol in 100 mass% of the composition is from 16 mass% to 56 mass%, and a molar ratio of polyvinylpyrrolidone to 1 mole of the PZT-based precursor is 0.005 moles to 0.25 moles, in terms of monomers. PZT-based precursors containing metal atoms configuring the composite metal oxides; a diol; and polyvinylpyrrolidone, wherein when a metal atom ratio in the composition is shown as Pb:Mn:Zr:Ti, the PZT-based precursors are contained so that Pb is satisfied to be from 1.05 to 1.15, Mn is satisfied to be from 0.02 to 0.042, Zr is satisfied to be from 0.45 to 0.55, Ti is satisfied to be from 0.45 to 0.55, and the total of Zr and Ti in a metal atom ratio is 1, a concentration of the PZT-based precursor in 100 mass% of the composition is from 17 mass% to 35 mass% in terms of an oxide concentration, a rate of diol in 100 mass% of the composition is from 16 mass% to 56 mass%, and a molar ratio of polyvinylpyrrolidone to 1 mole of the PZT-based precursor is 0.005 moles to 0.25 moles, in terms of monomers.
A hermetic compressor comprising: a compressor shell; a terminal that is provided on the compressor shell; a terminal guard that is erected on the compressor shell and surrounds the terminal; and a terminal cover that is mounted to the terminal guard and covers the terminal; wherein a terminal chamber is defined by the compressor shell, the terminal guard, and the terminal cover, except for at least a body of the terminal, metal portions facing the terminal chamber are generally covered with an insulator (20, 50, 60) such that the metal portions are not exposed to the terminal chamber, the insulator (20, 50, 60) includes an insulating portion that covers an inner surface of the terminal guard, the insulator (20, 50, 60) includes an insulating sheet that covers an area of the compressor shell, the area facing the terminal chamber, a part of the insulating sheet is disposed between mounting members (11, 12) provided on the inner surface of the terminal guard and the terminal cover, and a gap between the insulating portion that covers the inner surface of the terminal guard and the insulating sheet is smaller than a diameter of a terminal rod of the terminal. a compressor shell; a terminal that is provided on the compressor shell; a terminal guard that is erected on the compressor shell and surrounds the terminal; and a terminal cover that is mounted to the terminal guard and covers the terminal; wherein a terminal chamber is defined by the compressor shell, the terminal guard, and the terminal cover, except for at least a body of the terminal, metal portions facing the terminal chamber are generally covered with an insulator (20, 50, 60) such that the metal portions are not exposed to the terminal chamber, the insulator (20, 50, 60) includes an insulating portion that covers an inner surface of the terminal guard, the insulator (20, 50, 60) includes an insulating sheet that covers an area of the compressor shell, the area facing the terminal chamber, a part of the insulating sheet is disposed between mounting members (11, 12) provided on the inner surface of the terminal guard and the terminal cover, and a gap between the insulating portion that covers the inner surface of the terminal guard and the insulating sheet is smaller than a diameter of a terminal rod of the terminal.
A frame for receiving and supporting one or more optical assemblies of an endoscope, the frame comprising: a first wall, a second wall, and a center wall, wherein the first wall is positioned substantially parallel to the second wall and wherein the center wall is attached substantially perpendicularly to the first wall, dividing said first wall into a left portion and right portion respectively, and is attached substantially perpendicularly to the second wall, dividing said second wall into a left portion and right portion respectively; a front optical assembly chamber, defined by said first wall and two forward-facing side walls attached substantially perpendicularly to a left edge and a right edge of the first wall, adapted to receive a front optical assembly; the frame characterised in that it further comprises: a first side optical assembly chamber, defined by the left portion of said first wall, the center wall, and the left portion of said second wall, adapted to receive a first side optical assembly; and, a second side optical assembly chamber, defined by the right portion of said first wall, the center wall, and the right portion of said second wall, adapted to receive a second side optical assembly. a first wall, a second wall, and a center wall, wherein the first wall is positioned substantially parallel to the second wall and wherein the center wall is attached substantially perpendicularly to the first wall, dividing said first wall into a left portion and right portion respectively, and is attached substantially perpendicularly to the second wall, dividing said second wall into a left portion and right portion respectively; a front optical assembly chamber, defined by said first wall and two forward-facing side walls attached substantially perpendicularly to a left edge and a right edge of the first wall, adapted to receive a front optical assembly; the frame characterised in that it further comprises: a first side optical assembly chamber, defined by the left portion of said first wall, the center wall, and the left portion of said second wall, adapted to receive a first side optical assembly; and, a second side optical assembly chamber, defined by the right portion of said first wall, the center wall, and the right portion of said second wall, adapted to receive a second side optical assembly. a first side optical assembly chamber, defined by the left portion of said first wall, the center wall, and the left portion of said second wall, adapted to receive a first side optical assembly; and, a second side optical assembly chamber, defined by the right portion of said first wall, the center wall, and the right portion of said second wall, adapted to receive a second side optical assembly.
A system comprising: a first bone fixation device; an instrument fixture; a shape sensor reference fixture; and a closed-chain sensor system including a first optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the first bone fixation device, the first optical fiber shape sensor configured to provide first shape data for determining a pose of the first bone fixation device relative to the shape sensor reference fixture; a second optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the instrument fixture coupled to a medical instrument, the second optical fiber shape sensor configured to provide second shape data for determining a first pose of the instrument fixture relative to the shape sensor reference fixture; a third optical fiber shape sensor device configured to couple between the first bone fixation device and the instrument fixture, the third optical fiber shape sensor configured to provide third shape data for determining a second pose of the instrument fixture relative to the shape sensor reference fixture; and a control system configured to combine the first pose and the second pose of the instrument fixture to determine a refined pose of the instrument fixture relative to the shape sensor reference fixture. a first bone fixation device; an instrument fixture; a shape sensor reference fixture; and a closed-chain sensor system including a first optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the first bone fixation device, the first optical fiber shape sensor configured to provide first shape data for determining a pose of the first bone fixation device relative to the shape sensor reference fixture; a second optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the instrument fixture coupled to a medical instrument, the second optical fiber shape sensor configured to provide second shape data for determining a first pose of the instrument fixture relative to the shape sensor reference fixture; a third optical fiber shape sensor device configured to couple between the first bone fixation device and the instrument fixture, the third optical fiber shape sensor configured to provide third shape data for determining a second pose of the instrument fixture relative to the shape sensor reference fixture; and a control system configured to combine the first pose and the second pose of the instrument fixture to determine a refined pose of the instrument fixture relative to the shape sensor reference fixture.
A rotary star screening plant, comprising at least one separation table for separating bulk goods into fine components passing through the separation table and into coarse components discharged at one end of the separation table, the separation table comprising a frame-shaped chassis and a plurality of parallel rotary shafts, each rotary shaft comprising a plurality of rotary stars spaced axially along the corresponding rotary shaft, each end of each rotary shaft being mounted on the chassis via a guide mechanism (13, 14) providing a pivot connection, the screening plant comprising a drive mechanism arranged along a longitudinal edge of the chassis and coupled to one end of each of the rotary shafts in order to drive the rotary shafts in a rotational movement (Ω), wherein each rotary shaft is subdivided at at least one of its ends into a first shaft portion coupled to the drive mechanism and a second shaft portion on which the rotary stars are mounted, the first shaft portion comprising a first coupling member and the second shaft portion comprising a second coupling member, the first and second coupling members (111c, 112c) being capable of occupying a coupling configuration in which the first and second coupling members (111c, 112c) are inter-engaged in such a way that the first shaft portion is rotatably coupled with the second shaft portion, each rotary shaft comprising a locking mechanism characterized in that each locking mechanism operates by radial clamping transversely to the axis of the rotary shaft and occupies a locking configuration in which the locking mechanism locks, under the effect of said radial clamping, the first and second coupling members (111c, 112c) in the coupling configuration.
A time-of-flight dimensioning system, comprising: a light source to generate light; an optical subassembly positioned in front of the light source and configured to project a light beam along an optical axis toward an item of interest; an adjustable aperture positioned along the optical axis between the optical subassembly and the item of interest, the adjustable aperture comprising a blocking region for blocking at least a portion of the light beam, the blocking region having a controllable size, shape, and position. an imager positioned and configured for capturing images of the item of interest; and a control subsystem communicatively coupled to the adjustable aperture and the imager, the control subsystem configured ( i) to determine from the captured images an illumination region corresponding to the item of interest's size, shape, and position and ( ii) to control the adjustable aperture's blocking region to limit illumination to the illumination region so that light from the light source substantially reaches the item of interest without first being reflected. a light source to generate light; an optical subassembly positioned in front of the light source and configured to project a light beam along an optical axis toward an item of interest; an adjustable aperture positioned along the optical axis between the optical subassembly and the item of interest, the adjustable aperture comprising a blocking region for blocking at least a portion of the light beam, the blocking region having a controllable size, shape, and position. an imager positioned and configured for capturing images of the item of interest; and a control subsystem communicatively coupled to the adjustable aperture and the imager, the control subsystem configured ( i) to determine from the captured images an illumination region corresponding to the item of interest's size, shape, and position and ( ii) to control the adjustable aperture's blocking region to limit illumination to the illumination region so that light from the light source substantially reaches the item of interest without first being reflected.