mhurhangee/patent-ind-claim-en huggingface dataset:
A wire preparation device comprising: a motor ; a device housing having a front end , the device housing coupled to the motor rearward of the front end ; and a wire spinner held by the device housing and mechanically connected to the motor via power coupling components , the wire spinner extending to a wire end , the wire spinner including a member defining a channel configured to receive an end of one or more wires of a cable therein through an opening at the wire end , wherein the wire spinner is configured to be rotated by the motor relative to the device housing to untwist the one or more wires of the cable that are releasably secured within the member , characterised in that the wire end protrudes from the front end of the device housing , the member is a collet sleeve and the wire spinner further includes an outer collar surrounding the collet sleeve and movable relative to the collet sleeve between a retracted position and an actuated position, the outer collar in the actuated position forcing the collet sleeve to contract radially inward to releasably secure the one or more wires within the channel , and wherein the wire spinner is configured to be rotated by the motor relative to the device housing to one or more of untwist or straighten the one or more wires of the cable that are releasably secured within the collet sleeve . a motor ; a device housing having a front end , the device housing coupled to the motor rearward of the front end ; and a wire spinner held by the device housing and mechanically connected to the motor via power coupling components , the wire spinner extending to a wire end , the wire spinner including a member defining a channel configured to receive an end of one or more wires of a cable therein through an opening at the wire end , wherein the wire spinner is configured to be rotated by the motor relative to the device housing to untwist the one or more wires of the cable that are releasably secured within the member , characterised in that the wire end protrudes from the front end of the device housing , the member is a collet sleeve and the wire spinner further includes an outer collar surrounding the collet sleeve and movable relative to the collet sleeve between a retracted position and an actuated position, the outer collar in the actuated position forcing the collet sleeve to contract radially inward to releasably secure the one or more wires within the channel , and wherein the wire spinner is configured to be rotated by the motor relative to the device housing to one or more of untwist or straighten the one or more wires of the cable that are releasably secured within the collet sleeve .
A control method for a fuel cell system including: an anode gas supply device (31 to 33) configured to supply an anode gas to a fuel cell ; an ejector configured to merge an anode discharged gas, discharged from the fuel cell , with the anode gas to be supplied to the fuel cell ; an actuator configured to supply the anode discharged gas to the ejector ; and a cathode gas supply device configured to supply a cathode gas to the fuel cell , the control method comprising: a cathode gas control step (S1) of controlling a pressure of the cathode gas to be supplied to the fuel cell according to a magnitude of a load that is required of the fuel cell ; and an anode gas control step (S2 to S4) of increasing a pressure increase amount of the anode discharge gas by the actuator so as to increase a differential pressure between the pressure of the cathode gas and a pressure of the anode gas by the anode gas supply device (31 to 33) in a low load range where the load is lower than a predetermined value, the predetermined value being determined based on a load point at which a lift of pressure by the ejector increases to a necessary lift of pressure of the anode discharged gas, the control method characterized in that the anode gas control step (S4) increases, in the low load range, the pressure of the anode gas compared to the pressure of the cathode gas in a predetermined load range where power of the actuator increases. a cathode gas control step (S1) of controlling a pressure of the cathode gas to be supplied to the fuel cell according to a magnitude of a load that is required of the fuel cell ; and an anode gas control step (S2 to S4) of increasing a pressure increase amount of the anode discharge gas by the actuator so as to increase a differential pressure between the pressure of the cathode gas and a pressure of the anode gas by the anode gas supply device (31 to 33) in a low load range where the load is lower than a predetermined value, the predetermined value being determined based on a load point at which a lift of pressure by the ejector increases to a necessary lift of pressure of the anode discharged gas, the control method characterized in that the anode gas control step (S4) increases, in the low load range, the pressure of the anode gas compared to the pressure of the cathode gas in a predetermined load range where power of the actuator increases.
A frame for an aerosol-generating device , the frame comprising: a base frame formed from an electrically conductive material; an electrical connector having a connector frame and a plurality of electrical contacts , the plurality of electrical contacts being arranged on the connector frame , and the connector frame being formed from an electrically insulating material, the electrical connector being secured to the base frame such that the base frame is electrically connected to at least one of the electrical contacts of the electrical connector ; and a support frame formed from an electrically insulating material, the base frame and electrical connector being at least partially embedded in the support frame . a base frame formed from an electrically conductive material; an electrical connector having a connector frame and a plurality of electrical contacts , the plurality of electrical contacts being arranged on the connector frame , and the connector frame being formed from an electrically insulating material, the electrical connector being secured to the base frame such that the base frame is electrically connected to at least one of the electrical contacts of the electrical connector ; and a support frame formed from an electrically insulating material, the base frame and electrical connector being at least partially embedded in the support frame .
A particle control method characterized in that in a clean zone through which unidirectional air flow flows from an upper side toward a lower side in a work chamber, an oscillation board, the surface thereof is disposed on one plane alone which is substantially in parallel with a flow direction of the unidirectional air flow is subjected to ultrasonic vibration so as to generate an acoustic flow by the ultrasonic wave in the perpendicular direction from the board surface and in a direction crossing the flow direction of the unidirectional air flow; and particles made to flow by the air in the unidirectional air flow and descending from the upper side toward the lower side are subjected to a pressing force by an acoustic radiation pressure so that its descent position is controlled in a direction away from the board surface of the oscillation board. in a clean zone through which unidirectional air flow flows from an upper side toward a lower side in a work chamber, an oscillation board, the surface thereof is disposed on one plane alone which is substantially in parallel with a flow direction of the unidirectional air flow is subjected to ultrasonic vibration so as to generate an acoustic flow by the ultrasonic wave in the perpendicular direction from the board surface and in a direction crossing the flow direction of the unidirectional air flow; and particles made to flow by the air in the unidirectional air flow and descending from the upper side toward the lower side are subjected to a pressing force by an acoustic radiation pressure so that its descent position is controlled in a direction away from the board surface of the oscillation board.
Method of operating a thin film deposition apparatus having a substrate support part being movable inside a chamber and supporting a substrate (W); and a gas supply device having at least one first supply channel for supplying source gas to the substrate (W), at least one second supply channel for supplying reactant gas and an activation channel being adjacent to the second supply channel , wherein the activation channel has a gas activation unit for activating the reactant gas, and wherein the activation channel has an opened lower portion and a sealed upper portion, the method comprises the steps of: supplying the source gas onto the substrate (W) through the first supply channel in such manner that the source gas is adsorbed on the substrate (W); exhausting the source gas which is not adsorbed on the substrate (W); supplying the reactant gas through the second supply channel ; introducing the reactant gas supplied from the second supply channel into the activation channel through the opened lower portion; activating the reactant gas introduced into the activation channel by the gas activation unit ; and supplying the reactant gas activated by the gas activation unit onto the substrate (W) through the activation channel . supplying the source gas onto the substrate (W) through the first supply channel in such manner that the source gas is adsorbed on the substrate (W); exhausting the source gas which is not adsorbed on the substrate (W); supplying the reactant gas through the second supply channel ; introducing the reactant gas supplied from the second supply channel into the activation channel through the opened lower portion; activating the reactant gas introduced into the activation channel by the gas activation unit ; and supplying the reactant gas activated by the gas activation unit onto the substrate (W) through the activation channel .
An anti-coupling sound structure for a refrigerator, comprising: a mounting panel configured to be connected to a refrigerator door body or a refrigerator body , the mounting panel being provided with several through holes ; and a sound body for emitting sound waves, which is provided on the back face side of the mounting panel and separated, by a gap , from the back face of the mounting panel , wherein the back face of the mounting panel is a surface of the mounting panel configured to face an interior of the refrigerator or of the refrigerator door body , characterized in that the gap is 7-10 millimetres to prevent both an electrostatic coupling between the mounting panel and the sound body of the anti-coupling sound structure , and an increase in the overall thickness of the anti-coupling sound structure . a mounting panel configured to be connected to a refrigerator door body or a refrigerator body , the mounting panel being provided with several through holes ; and a sound body for emitting sound waves, which is provided on the back face side of the mounting panel and separated, by a gap , from the back face of the mounting panel , wherein the back face of the mounting panel is a surface of the mounting panel configured to face an interior of the refrigerator or of the refrigerator door body , characterized in that the gap is 7-10 millimetres to prevent both an electrostatic coupling between the mounting panel and the sound body of the anti-coupling sound structure , and an increase in the overall thickness of the anti-coupling sound structure .
An optical laminate, comprising: an optical functional layer , a reddening-resistant layer formed on at least one side of the optical functional layer ; and an additional layer (30; 301) different from the optical functional layer and the reddening-resistant layer , wherein the reddening-resistant layer is between the additional layer (30; 301) and the optical functional layer , characterized in that the optical functional layer is a polarizing layer, and the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope, the method being as mentioned in the description. an optical functional layer , a reddening-resistant layer formed on at least one side of the optical functional layer ; and an additional layer (30; 301) different from the optical functional layer and the reddening-resistant layer , wherein the reddening-resistant layer is between the additional layer (30; 301) and the optical functional layer , characterized in that the optical functional layer is a polarizing layer, and the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope, the method being as mentioned in the description.
A method of making a progressive-power lens , the method comprising comprising: Designing an object-side refractive surface and an eye-side refractive surface , the object-side refractive surface being either spherical or rotationally symmetric aspherical, the eye-side refractive surface having a progressive-power surface including a distance portion having positive power and having power to view relatively distant objects, a near portion having power to view relatively near objects, and an intermediate portion having continuously varying power to view intermediate objects between the distant and near objects, wherein the eye-side refractive surface of the distance portion is concave, and at least part of the eye-side refractive surface of the near portion is a convex region where one or both of principal meridians of the surface are convex, characterized in that the ratio of the surface area of the convex region within a circle having a radius of 25 mm from the geometrical center of the progressive-power lens to the surface area of the circle is less than or equal to 30%, an aspherical surface that corrects the astigmatism increased by providing the convex region is further added in the eye-side refractive surface , manufacturing the thus designed progressive-power lens . Designing an object-side refractive surface and an eye-side refractive surface , the object-side refractive surface being either spherical or rotationally symmetric aspherical, the eye-side refractive surface having a progressive-power surface including a distance portion having positive power and having power to view relatively distant objects, a near portion having power to view relatively near objects, and an intermediate portion having continuously varying power to view intermediate objects between the distant and near objects, wherein the eye-side refractive surface of the distance portion is concave, and at least part of the eye-side refractive surface of the near portion is a convex region where one or both of principal meridians of the surface are convex, characterized in that the ratio of the surface area of the convex region within a circle having a radius of 25 mm from the geometrical center of the progressive-power lens to the surface area of the circle is less than or equal to 30%, an aspherical surface that corrects the astigmatism increased by providing the convex region is further added in the eye-side refractive surface , manufacturing the thus designed progressive-power lens .
A vaporizable material insert for use with a vaporizer device to form an inhalable aerosol, the vaporizable material insert comprising: a housing including an inlet and an outlet; an airflow control feature comprising a vaporizable material, the airflow control feature extending between the inlet and the outlet of the housing ; and an airflow pathway extending between the inlet and the outlet of the housing and at least partly formed by the airflow control feature , the airflow pathway allowing a heated airflow to travel therealong and including an upstream section and a downstream section , the upstream section including a first airflow pathway characteristic that controls a first airflow characteristic of the heated airflow for achieving a first amount of heat transfer between the heated airflow at a first temperature and the vaporizable material along the upstream section , the downstream section including a second airflow pathway characteristic that controls a second airflow characteristic of the heated airflow for achieving a second amount of heat transfer between the heated airflow at a second temperature and the vaporizable material along the downstream section , the first temperature being higher than the second temperature, and the first amount of heat transfer being approximately the same as the second amount of heat transfer. a housing including an inlet and an outlet; an airflow control feature comprising a vaporizable material, the airflow control feature extending between the inlet and the outlet of the housing ; and an airflow pathway extending between the inlet and the outlet of the housing and at least partly formed by the airflow control feature , the airflow pathway allowing a heated airflow to travel therealong and including an upstream section and a downstream section , the upstream section including a first airflow pathway characteristic that controls a first airflow characteristic of the heated airflow for achieving a first amount of heat transfer between the heated airflow at a first temperature and the vaporizable material along the upstream section , the downstream section including a second airflow pathway characteristic that controls a second airflow characteristic of the heated airflow for achieving a second amount of heat transfer between the heated airflow at a second temperature and the vaporizable material along the downstream section , the first temperature being higher than the second temperature, and the first amount of heat transfer being approximately the same as the second amount of heat transfer.
A mucosa associated invariant T (MAIT) cell expressing a chimeric antigen receptor (CAR), for use in the treatment of a cancer, an immune disease or an infectious disease in a subject, wherein the MAlT cell is allogenic with respect to the subject.
A method of operating a video services receiver having an associated display element, the method comprising: maintaining , at the video services receiver, a database that indicates a favorite program for a user of the video services receiver, the favorite program having a scheduled start time; detecting that the video services receiver is currently tuned to an ongoing program event that conflicts with the scheduled start time of the favorite program or that, at the scheduled start time, the video services receiver is in a receiver standby mode, or that the display element is in a display standby mode, or that the video services receiver is in a receiver standby mode and that the display element is in a display standby mode; and in response to the detecting, recording the favorite program; and also in response to the detecting, sending a notification to the user, wherein the notification indicates that the favorite program has been recorded; and initiating, in response to user input responsive to the notification, a place-shifting session such that the favorite program is reformatted and delivered to a remote presentation device as place-shifted content, the video services receiver serving as the source of the place-shifted content. maintaining , at the video services receiver, a database that indicates a favorite program for a user of the video services receiver, the favorite program having a scheduled start time; detecting that the video services receiver is currently tuned to an ongoing program event that conflicts with the scheduled start time of the favorite program or that, at the scheduled start time, the video services receiver is in a receiver standby mode, or that the display element is in a display standby mode, or that the video services receiver is in a receiver standby mode and that the display element is in a display standby mode; and in response to the detecting, recording the favorite program; and also in response to the detecting, sending a notification to the user, wherein the notification indicates that the favorite program has been recorded; and initiating, in response to user input responsive to the notification, a place-shifting session such that the favorite program is reformatted and delivered to a remote presentation device as place-shifted content, the video services receiver serving as the source of the place-shifted content.
A fast-eluting three-dimensionally molded object formed by fused deposition modeling type three-dimensional molding, comprising: an active component; a water-soluble thermoplastic polymer; a water-soluble sugar and/or a water-soluble sugar alcohol; and a plasticizer component, wherein the water-soluble sugar and/or the water-soluble sugar alcohol is one or more kinds selected from a group consisting of sucrose, maltitol, xylitol, mannitol, erythritol, sorbitol, isomalt, and lactitol, and wherein the water-soluble thermoplastic polymer is one or more kinds selected from a group consisting of a polyvinyl alcohol, a polyvinyl caprolactam-polyvinyl acetate-polyethylene glycol graft copolymer, polyethylene oxide, polyvinylpyrrolidone, copolyvidone, a polyethylene glycol-polyvinyl alcohol-graft copolymer, a polyvinyl alcohol-acrylic acid-methyl methacrylate copolymer, aminoalkyl methacrylate copolymer RS, and aminoalkyl methacrylate copolymer E. an active component; a water-soluble thermoplastic polymer; a water-soluble sugar and/or a water-soluble sugar alcohol; and a plasticizer component, wherein the water-soluble sugar and/or the water-soluble sugar alcohol is one or more kinds selected from a group consisting of sucrose, maltitol, xylitol, mannitol, erythritol, sorbitol, isomalt, and lactitol, and wherein the water-soluble thermoplastic polymer is one or more kinds selected from a group consisting of a polyvinyl alcohol, a polyvinyl caprolactam-polyvinyl acetate-polyethylene glycol graft copolymer, polyethylene oxide, polyvinylpyrrolidone, copolyvidone, a polyethylene glycol-polyvinyl alcohol-graft copolymer, a polyvinyl alcohol-acrylic acid-methyl methacrylate copolymer, aminoalkyl methacrylate copolymer RS, and aminoalkyl methacrylate copolymer E.
Process for preparing a porous material, at least comprising the steps of: a) providing a mixture (I) comprising (i) a composition (A) at least comprising at least one polyfunctional isocyanate as component (ai) at least one mineral acid (aa) and (ii) a solvent (B), b) reacting the components in the composition (A) obtaining an organic gel, and c) drying of the gel obtained, wherein the mineral acid (aa) is selected from the group consisting of mineral oxo-acids comprising sulphur, boron, nitrogen, phosphorus, silicon, chlorine, bromine, iodine or fluorine, chromium, vanadium, manganese, rhenium, technetium, arsenic, selenium or tellurium. a) providing a mixture (I) comprising (i) a composition (A) at least comprising at least one polyfunctional isocyanate as component (ai) at least one mineral acid (aa) and (ii) a solvent (B), (i) a composition (A) at least comprising at least one polyfunctional isocyanate as component (ai) at least one mineral acid (aa) and (ii) a solvent (B), b) reacting the components in the composition (A) obtaining an organic gel, and c) drying of the gel obtained,