mhurhangee/patent-ind-claim-en huggingface dataset:
An adjustable headrest comprising: a guide configured to be coupled to a seat; a head support coupled to the guide and configured to be movable along an adjustment path relative to the seat; a slider having a surface defining a recess receiving the guide such that the surface of the slider contacts a surface of the guide ; and a retainer positioned to urge the surface of the slider against the surface of the guide , thereby maintaining friction between the surface of the slider and the surface of the guide and resisting unintended movement of the slider with respect to the guide along the adjustment path, wherein the slider includes two block sections , each having an inner surface that defines a recess or aperture , and a friction section interposed between the two block sections , wherein a transversal gap is disposed between the friction section and each block section , wherein the retainer extends along an outer surface of the friction section , wherein an inner surface of the friction section defines a recess that contacts, when the friction section is urged by the retainer , an outer surface of the guide to produce an amount of friction and wherein the guide or the slider is attached to the head support and is moveable with the head support along the adjustment path, wherein the recesses or apertures of the two block sections and the recess of the friction section define the recess of the slider . a guide configured to be coupled to a seat; a head support coupled to the guide and configured to be movable along an adjustment path relative to the seat; a slider having a surface defining a recess receiving the guide such that the surface of the slider contacts a surface of the guide ; and a retainer positioned to urge the surface of the slider against the surface of the guide , thereby maintaining friction between the surface of the slider and the surface of the guide and resisting unintended movement of the slider with respect to the guide along the adjustment path,
Method for determining a load shift potential of an electrical load, wherein the electrical load is set up for heat generation and/or cold generation in one or more heating and/or cooling circuits, comprising the steps: detecting (S11) an electrical energy consumption of the electrical load as a reference energy consumption of the electrical load; determining (S12) a load shift potential of the electrical load as a function of the detected reference energy consumption of the electrical load, characterized in that the load shift potential is a measure of the extent to which an adaptation of an electrical load of the electrical load is possible with regard to a time of an energy consumption of the electrical load. detecting (S11) an electrical energy consumption of the electrical load as a reference energy consumption of the electrical load; determining (S12) a load shift potential of the electrical load as a function of the detected reference energy consumption of the electrical load, characterized in that the load shift potential is a measure of the extent to which an adaptation of an electrical load of the electrical load is possible with regard to a time of an energy consumption of the electrical load.
A cell dwelling method, performed by a terminal comprising: searching (S101, S201) for frequency points of pre-stored cells, and determining first-type cells from the pre-stored cells, wherein the pre-stored cells and the first-type cells are preset anchor cells configured to access a first network, and the first-type cells are the preset anchor cells determined by performing a frequency-scanning process for the pre-stored cells; performing (S102) another frequency-scanning process, obtaining frequency-scanning cells, and adding (S206) the frequency-scanning cells to a list of candidate cells, and sorting the frequency-scanning cells in the list of the candidate cells based on a preset sorting rule; wherein the frequency-scanning cells comprises the first-type cells; and increasing (S103, 207) priorities of the first-type cells in the list of the candidate cells, selecting a target cell of the first-type cells from the list of the candidate cells based on the priorities, and dwelling on the target cell. searching (S101, S201) for frequency points of pre-stored cells, and determining first-type cells from the pre-stored cells, wherein the pre-stored cells and the first-type cells are preset anchor cells configured to access a first network, and the first-type cells are the preset anchor cells determined by performing a frequency-scanning process for the pre-stored cells; performing (S102) another frequency-scanning process, obtaining frequency-scanning cells, and adding (S206) the frequency-scanning cells to a list of candidate cells, and sorting the frequency-scanning cells in the list of the candidate cells based on a preset sorting rule; wherein the frequency-scanning cells comprises the first-type cells; and increasing (S103, 207) priorities of the first-type cells in the list of the candidate cells, selecting a target cell of the first-type cells from the list of the candidate cells based on the priorities, and dwelling on the target cell.
A vibration actuator comprising: a movable body including a magnet ; and a fixing body configured to house the movable body , and including a coil surrounding an outer periphery of the magnet and an outer yoke surrounding an outer periphery of the coil , the fixing body being configured to support the movable body so as to allow the movable body to vibrate back and forth in a vibration direction orthogonal to a radial direction of the coil , wherein the outer yoke is a cylindrical body and includes a plurality of openings , which keep a balance of a magnetic path configured together with the magnet and the coil in a circumferential direction of the outer yoke , and which are provided at even intervals in the circumferential direction and at the same position in the vibration direction, characterized in that the plurality of openings are formed ina rectangular shape in a cylindrical portion of the cylindrical body, one of the openings is used as a wiring port for connecting an external device and the coil . a movable body including a magnet ; and a fixing body configured to house the movable body , and including a coil surrounding an outer periphery of the magnet and an outer yoke surrounding an outer periphery of the coil , the fixing body being configured to support the movable body so as to allow the movable body to vibrate back and forth in a vibration direction orthogonal to a radial direction of the coil , wherein the outer yoke is a cylindrical body and includes a plurality of openings , which keep a balance of a magnetic path configured together with the magnet and the coil in a circumferential direction of the outer yoke , and which are provided at even intervals in the circumferential direction and at the same position in the vibration direction, characterized in that the plurality of openings are formed ina rectangular shape in a cylindrical portion of the cylindrical body, one of the openings is used as a wiring port for connecting an external device and the coil .
Arrangement (1, 1", 1′′′) for a passage system having at least one door post and having a barrier device , having at least one post and having horizontal bars , wherein the arrangement has a light barrier , wherein a plurality of transceiver units of the light barrier are provided on a first bar and wherein furthermore a plurality of reflector strips of the light barrier are arranged on an opposing second bar and reflect the light emitted by the transceiver units , characterized in that a further opposing second bar is provided, which is arranged below the opposing second bar , wherein both second bars are provided to accommodate the plurality of reflector strips .
An apparatus for helping to protect a rear seat occupant of a vehicle , the apparatus comprising: an air bag having a stored condition in a housing mounted to or within a seatback of a vehicle seat positioned in front of the rear seat occupant , the air bag comprising one or more panels of material interconnected to define an inflatable volume and having a substantially U-shaped configuration when viewed from the side, the U-shaped air bag comprising a first portion that forms one leg of the U-shaped air bag, a second portion that forms another leg of the U-shaped air bag, and a third portion that interconnects the first and second portions , wherein the air bag is configured to have a deployed condition in which the first portion is configured to be positioned adjacent the seatback and the second portion is configured to be positioned between the first portion and the rear seat occupant ; wherein the second portion includes a front panel or surface presented towards the occupant , characterized in a deployment tether having a first end connected to the first portion of the air bag and an opposite second end connected to the second portion of the air bag, the deployment tether being configured to restrict initial deployment of the second portion of the air bag , the deployment tether comprising a rupturable portion configured to release the second portion of the air bag after the first and third portions reach a predetermined stage of deployment and the air bag reaches a predetermined degree of pressurization. an air bag having a stored condition in a housing mounted to or within a seatback of a vehicle seat positioned in front of the rear seat occupant , the air bag comprising one or more panels of material interconnected to define an inflatable volume and having a substantially U-shaped configuration when viewed from the side, the U-shaped air bag comprising a first portion that forms one leg of the U-shaped air bag, a second portion that forms another leg of the U-shaped air bag, and a third portion that interconnects the first and second portions , wherein the air bag is configured to have a deployed condition in which the first portion is configured to be positioned adjacent the seatback and the second portion is configured to be positioned between the first portion and the rear seat occupant ; wherein the second portion includes a front panel or surface presented towards the occupant , characterized in a deployment tether having a first end connected to the first portion of the air bag and an opposite second end connected to the second portion of the air bag, the deployment tether being configured to restrict initial deployment of the second portion of the air bag , the deployment tether comprising a rupturable portion configured to release the second portion of the air bag after the first and third portions reach a predetermined stage of deployment and the air bag reaches a predetermined degree of pressurization.
An anti-α4β7 humanized antibody for use in a method for the therapeutic treatment of inflammatory bowel disease, wherein the anti-α4β7 humanized antibody is to be administered to a patient suffering from inflammatory bowel disease, wherein the anti-α4β7 humanized antibody is administered to the patient according to the following dosing regimen: a. an initial dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion; b. followed by a second subsequent dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion at two weeks after the initial dose; c. followed by a third subsequent dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion at six weeks after the initial dose; d. followed by a fourth and subsequent doses of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion every four weeks or every eight weeks after the third subsequent dose of the humanized antibody as needed; wherein the dosing regimen induces a clinical response and clinical remission in the inflammatory bowel disease of the patient; wherein the anti-α4β7 humanized antibody is vedolizumab, and further wherein the inflammatory bowel disease is moderately to severely active ulcerative colitis or moderately to severely active Crohn's Disease. a. an initial dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion; b. followed by a second subsequent dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion at two weeks after the initial dose; c. followed by a third subsequent dose of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion at six weeks after the initial dose; d. followed by a fourth and subsequent doses of 300 mg of the anti-α4β7 humanized antibody as an intravenous infusion every four weeks or every eight weeks after the third subsequent dose of the humanized antibody as needed; wherein the dosing regimen induces a clinical response and clinical remission in the inflammatory bowel disease of the patient; wherein the anti-α4β7 humanized antibody is vedolizumab, and further wherein the inflammatory bowel disease is moderately to severely active ulcerative colitis or moderately to severely active Crohn's Disease. wherein the dosing regimen induces a clinical response and clinical remission in the inflammatory bowel disease of the patient; wherein the anti-α4β7 humanized antibody is vedolizumab, and further wherein the inflammatory bowel disease is moderately to severely active ulcerative colitis or moderately to severely active Crohn's Disease.
A method for detecting neuroendocrine prostate cancer (NEPC) in a patient afflicted with prostate cancer comprising (a) performing a direct analysis comprising immunofluorescent staining and morphological characterization of nucleated cells in a blood sample obtained from the patient to detect circulating tumor cells (CTC), wherein the direct analysis means the detection of CTCs in the context of all surrounding nucleated cells present in the sample as opposed to after enrichment of the sample for CTCs prior to detection; and (b) determining presence or absence of a CTC subpopulation associated with NEPC comprising detecting a measurable feature of each biomarker characterizing the CTC subpopulation associated with NEPC in a panel of morphological and protein biomarkers, wherein the presence of the CTC subpopulation associated with NEPC is indicative of NEPC, wherein the biomarkers comprise small size, absence of Androgen Receptor (AR-), absence of cytokeratin (CK-) expression, and presence of nucleoli (nucleoli+), wherein the small size is a cell size that is smaller than that of traditional CTCs, and wherein the traditional CTCs are characterized by DAPI+CK+CD45- and are morphologically distinct from surrounding white blood cells (WBCs). (a) performing a direct analysis comprising immunofluorescent staining and morphological characterization of nucleated cells in a blood sample obtained from the patient to detect circulating tumor cells (CTC), wherein the direct analysis means the detection of CTCs in the context of all surrounding nucleated cells present in the sample as opposed to after enrichment of the sample for CTCs prior to detection; and (b) determining presence or absence of a CTC subpopulation associated with NEPC comprising detecting a measurable feature of each biomarker characterizing the CTC subpopulation associated with NEPC in a panel of morphological and protein biomarkers,
A method for transmitting data from within a wellbore to a surface location, comprising: running a downhole tool into the wellbore , wherein the downhole tool comprises a perforating gun , a sensor , a processor , and a transmitter ; firing the perforating gun , thereby generating a pressure response; measuring the pressure response in the wellbore with the sensor ; generating, using the processor , a measured pressure response curve based upon the pressure response; characterized by : determining, using the processor , one or more functions that approximate the measured pressure response curve; generating, using the processor , an approximate curve based at least partially upon the one or more functions, wherein at least one of the functions is selected from a group consisting of: a polynomial function, an exponential function, a sinusoidal function, a logarithmic function, and a combination thereof; and wirelessly transmitting the approximate curve from the transmitter to the surface location. running a downhole tool into the wellbore , wherein the downhole tool comprises a perforating gun , a sensor , a processor , and a transmitter ; firing the perforating gun , thereby generating a pressure response; measuring the pressure response in the wellbore with the sensor ; generating, using the processor , a measured pressure response curve based upon the pressure response; characterized by : determining, using the processor , one or more functions that approximate the measured pressure response curve; generating, using the processor , an approximate curve based at least partially upon the one or more functions, wherein at least one of the functions is selected from a group consisting of: a polynomial function, an exponential function, a sinusoidal function, a logarithmic function, and a combination thereof; and wirelessly transmitting the approximate curve from the transmitter to the surface location.
A shovel comprising: an internal combustion engine whose fuel injection is controlled so that a revolution speed is constantly controlled to be a first target revolution speed; a hydraulic pump connected to the internal combustion engine ; a generator connected to the internal combustion engine; and a control unit for controlling the generator , wherein the control unit is configured to cause the generator to perform an electrical power generating operation in a case where a revolution speed is maintained to be a preset target revolution speed (R1) because a load on the hydraulic pump increases, characterised in that the control unit causes the generator to start performing the electrical power generating operation when the load on the hydraulic pump is equal to or greater than a predetermined value. an internal combustion engine whose fuel injection is controlled so that a revolution speed is constantly controlled to be a first target revolution speed; a hydraulic pump connected to the internal combustion engine ; a generator connected to the internal combustion engine; and a control unit for controlling the generator , wherein the control unit is configured to cause the generator to perform an electrical power generating operation in a case where a revolution speed is maintained to be a preset target revolution speed (R1) because a load on the hydraulic pump increases, characterised in that the control unit causes the generator to start performing the electrical power generating operation when the load on the hydraulic pump is equal to or greater than a predetermined value.
A temperature probe for measuring a fluid temperature, comprising: an instrument housing forming an interior volume and having a distal end ; a first temperature sensor positioned at or extending from the distal end of the instrument housing ; a second temperature sensor positioned in the interior volume of said instrument housing ; a thermal barrier thermally positioned between said first temperature sensor and said instrument housing to thermally isolate the first temperature sensor from the instrument thermal mass; wherein said thermal barrier comprises an insulation layer positioned between said first temperature sensor and said second temperature sensor , thereby thermally isolating said second temperature sensor from said first temperature sensor ; and said first temperature sensor is part of a sensor platform having a distal end for sensing a fluid temperature and a proximal end connected to the instrument housing , wherein said insulation layer at least partially surrounds said proximal end of said sensor platform . an instrument housing forming an interior volume and having a distal end ; a first temperature sensor positioned at or extending from the distal end of the instrument housing ; a second temperature sensor positioned in the interior volume of said instrument housing ; a thermal barrier thermally positioned between said first temperature sensor and said instrument housing to thermally isolate the first temperature sensor from the instrument thermal mass; wherein said thermal barrier comprises an insulation layer positioned between said first temperature sensor and said second temperature sensor , thereby thermally isolating said second temperature sensor from said first temperature sensor ; and said first temperature sensor is part of a sensor platform having a distal end for sensing a fluid temperature and a proximal end connected to the instrument housing , wherein said insulation layer at least partially surrounds said proximal end of said sensor platform .
A molecular assembly production method for producing molecular assemblies of an amphiphilic block polymer, comprising: applying a polymer solution in a layered shape on a planar base member, wherein the base member is a flexible film, the polymer solution containing an amphiphilic block polymer and a solvent, the amphiphilic block polymer having a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; forming a polymer film on the base member by removing the solvent from the coated layer of the polymer solution; and obtaining molecular assemblies by immersing the base member in a water-based liquid. applying a polymer solution in a layered shape on a planar base member, wherein the base member is a flexible film, the polymer solution containing an amphiphilic block polymer and a solvent, the amphiphilic block polymer having a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; forming a polymer film on the base member by removing the solvent from the coated layer of the polymer solution; and obtaining molecular assemblies by immersing the base member in a water-based liquid.