mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid control system comprising a first flow channel , a second flow channel in fluid communication with the first flow channel , and a heater disposed proximate at least one of the first flow channel and the second flow channel ; a fluid control device disposed upstream from the first and second flow channels and an actuator coupled to the fluid control device and adapted to cause actuation of the fluid control device when the heater is turned on, wherein actuating the fluid control device changes a fluid flow rate in at least one of the first flow channel , and the second flow channel , characterised in that the actuator is powered by thermal energy.
A method for producing a coating film on the skin, comprising the steps of: A) electrostatically spraying a composition X comprising a component (a) and a component (b) directly to the skin to form a coating film on a surface of the skin: (a) one or more volatile substances selected from the group consisting of water, an alcohol and a ketone; (b) a polymer capable of forming a coating film; and B) applying a composition Y other than the composition X comprising a component (c) and a component (d) to the skin in the order presented or in reverse order: (c) 0.5% by mass or more and less than 5% by mass of an adhesive polymer; (d) one or more selected from the group consisting of a polyol and a liquid oil. A) electrostatically spraying a composition X comprising a component (a) and a component (b) directly to the skin to form a coating film on a surface of the skin: (a) one or more volatile substances selected from the group consisting of water, an alcohol and a ketone; (b) a polymer capable of forming a coating film; and (a) one or more volatile substances selected from the group consisting of water, an alcohol and a ketone; (b) a polymer capable of forming a coating film; and B) applying a composition Y other than the composition X comprising a component (c) and a component (d) to the skin in the order presented or in reverse order: (c) 0.5% by mass or more and less than 5% by mass of an adhesive polymer; (d) one or more selected from the group consisting of a polyol and a liquid oil. (c) 0.5% by mass or more and less than 5% by mass of an adhesive polymer; (d) one or more selected from the group consisting of a polyol and a liquid oil.
An isolated aminoacyl-tRNA synthetase (AARS) polypeptide that (i) is identical to SEQ ID NO:34 or differs from SEQ ID NO:34 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-6 release; or (ii) is identical to SEQ ID NO:36 or differs from SEQ ID NO:36 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-8 release. (i) is identical to SEQ ID NO:34 or differs from SEQ ID NO:34 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-6 release; or (ii) is identical to SEQ ID NO:36 or differs from SEQ ID NO:36 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-8 release.
A multi-layer heat dissipating device comprising: a first heat spreader layer configured to be coupled to a region configured to generate heat; a second heat spreader layer ; a first spacer coupled to the first heat spreader layer and the second heat spreader layer ; a first phase change material, PCM , located between the first heat spreader layer , the second heat spreader layer , and the first spacer , wherein the first PCM comprises a first melting temperature; a second spacer coupled to the first heat spreader layer and the second heat spreader layer ; and a second PCM located between the first heat spreader layer , the second heat spreader layer , the first spacer and the second spacer , wherein the second PCM comprises a second melting temperature, characterized in that the first PCM is closer to the region configured to generate heat than the second PCM , wherein the first PCM has a higher melting temperature than the second PCM . a first heat spreader layer configured to be coupled to a region configured to generate heat; a second heat spreader layer ; a first spacer coupled to the first heat spreader layer and the second heat spreader layer ; a first phase change material, PCM , located between the first heat spreader layer , the second heat spreader layer , and the first spacer , wherein the first PCM comprises a first melting temperature; a second spacer coupled to the first heat spreader layer and the second heat spreader layer ; and a second PCM located between the first heat spreader layer , the second heat spreader layer , the first spacer and the second spacer , wherein the second PCM comprises a second melting temperature, characterized in that the first PCM is closer to the region configured to generate heat than the second PCM , wherein the first PCM has a higher melting temperature than the second PCM .
A reduced-pressure therapy system comprising: a reduced-pressure source ; a container for collecting fluids from a tissue site , the container comprising a connector interface ; a tube coupled to a dressing at the tissue site ; and a dressing connector comprising a container interface fluidly coupled to the connector interface , the dressing connector coupled to the tube ; wherein the dressing connector comprises a first fluid path between the container and the reduced-pressure source , a second fluid path between the container and the tube , and a filter disposed in the first fluid path . a reduced-pressure source ; a container for collecting fluids from a tissue site , the container comprising a connector interface ; a tube coupled to a dressing at the tissue site ; and a dressing connector comprising a container interface fluidly coupled to the connector interface , the dressing connector coupled to the tube ; wherein the dressing connector comprises a first fluid path between the container and the reduced-pressure source , a second fluid path between the container and the tube , and a filter disposed in the first fluid path .
An information processing method, performed by a BSF network element , the method comprising: receiving 5G session binding information sent by a PCF network element (S 110); mapping the 5G session binding information to 4G session binding information to generate the 4G session binding information (S120); generating synchronization information that describes a mapping relationship between the 5G session binding information and the 4G session binding information (S130); sending the synchronization information to a DRA network element by means of a synchronization interface, such that the DRA network element , in the case of receiving an access authorization request message belonging to a 5G network, forwards the access authorization request message belonging to the 5G network to the PCF network element according to the mapping relationship in the synchronization information (S140). receiving 5G session binding information sent by a PCF network element (S 110); mapping the 5G session binding information to 4G session binding information to generate the 4G session binding information (S120); generating synchronization information that describes a mapping relationship between the 5G session binding information and the 4G session binding information (S130); sending the synchronization information to a DRA network element by means of a synchronization interface, such that the DRA network element , in the case of receiving an access authorization request message belonging to a 5G network, forwards the access authorization request message belonging to the 5G network to the PCF network element according to the mapping relationship in the synchronization information (S140).
A water treatment device comprising: a) a container reversibly connected to a water main via a manifold , the manifold comprising an input port and an output port ; b) a water filtration apparatus comprising a cartridge filter that has a cylindrical shape; c) a water sanitization apparatus comprising two electrodes , connected to an electric power supply unit; wherein said filtration apparatus and said sanitization apparatus are accommodated together inside said container ; wherein a first electrode of the water sanitization apparatus is a bar electrode and is accommodated in a portion of the container internal with respect to the cartridge filter, inside a longitudinal hole of the cartridge filter, and wherein a second electrode is an electrode having a helical shape and being surrounding at least a portion of said cartridge filter, said second electrode being accommodated in a portion of the container comprised between the inner perimeter of said container and an outer surface of said cartridge filter and wherein the water that enters said container through the input port flows externally to said filtration apparatus , then it crosses it radially and leaves it, having been filtered, by flowing along said longitudinal hole , and subsequently through the output port . a) a container reversibly connected to a water main via a manifold , the manifold comprising an input port and an output port ; b) a water filtration apparatus comprising a cartridge filter that has a cylindrical shape; c) a water sanitization apparatus comprising two electrodes , connected to an electric power supply unit;
A casing for a turbine rotor comprising: a first fluid supply channel configured to direct a first working fluid onto the turbine rotor; and a second fluid supply channel comprising a plurality of fluid guiding structures circumferentially disposed around an axis of the turbine rotor and configured to direct a second working fluid to impart torque on the turbine rotor in the same direction as the direction in which torque is imparted on the turbine rotor by the first working fluid, wherein the first fluid supply channel and the second fluid supply channel are arranged to direct the first working fluid and the second working fluid from separate inlets to the casing such that the first working fluid and the second working fluid converge to meet at one or more points within the casing prior to being imparted onto a set of turbine blades of the turbine rotor , to form a co-fluent flow of first working fluid and second working fluid to be directed onto the set of turbine blades of the turbine rotor, wherein the fluid guiding structures are convergent-divergent nozzles. a first fluid supply channel configured to direct a first working fluid onto the turbine rotor; and a second fluid supply channel comprising a plurality of fluid guiding structures circumferentially disposed around an axis of the turbine rotor and configured to direct a second working fluid to impart torque on the turbine rotor in the same direction as the direction in which torque is imparted on the turbine rotor by the first working fluid, wherein the first fluid supply channel and the second fluid supply channel are arranged to direct the first working fluid and the second working fluid from separate inlets to the casing such that the first working fluid and the second working fluid converge to meet at one or more points within the casing prior to being imparted onto a set of turbine blades of the turbine rotor , to form a co-fluent flow of first working fluid and second working fluid to be directed onto the set of turbine blades of the turbine rotor, wherein the fluid guiding structures are convergent-divergent nozzles.
Sealing profile for sealing a movable vehicle window pane at a bent upper leg of a frame enclosure, having at least one sealing lip which projects from a U-leg of a U-shaped sealing portion at a distance from the neutral bending surface , which extends corresponding to a longitudinal section through the sealing profile, of the bent laid sealing profile , into which sealing portion the vehicle window pane can be inserted by its upper edge parallel to the U-legs , wherein the sealing lip is widened to one side with respect to a starting thickness (S) which it has at its end facing the U-profile leg , and the boundary line , which faces away from this side, of the cross-sectional surface of the sealing lip runs out towards its free end in a sickle-shaped manner, characterized in that the transverse leg of the U-shaped sealing portion forms a U-leg of a U-shaped fastening portion , which has a metallic reinforcing insert, of the sealing profile for connection to a vehicle body flange , in that the U-shaped sealing portion has a long U-profile leg and a short profile leg , and the long U-profile leg of the sealing portion has, at its end facing away from the U-shaped fastening portion , a further fastening portion for connection to a further vehicle body flange , in that the sealing lip projects from the part of the long U-profile leg that is longer than the short U-profile leg , and in that the sealing lip has, on its side facing away from the widening , a sliding layer which is co-extruded with the remaining sealing profile , in that the sliding layer consists of a thermoplastic or thermoplastic elastomer which is harder than a thermoplastic elastomer from which the remaining sealing profile is produced, and in that the sliding layer , with avoidance of wave-like deformation of the sealing lip during the bending of the sealing profile, reaches at maximum to a minimum rounding radius at the free end of the sealing lip .
An eye-tracking camera for tracking movements of a user's eye in a near-eye display, the eye-tracking camera comprising: a focusing element for forming an image of a user's eye at a focal plane, the focusing element having an image circle at the focal plane; an image sensor having a diagonal smaller than the image circle for capturing the image of the user's eye; an actuator configured to translate at least one of the image sensor or the focusing element laterally relative to each other to shift a position of the image sensor within the image circle of the focusing element; and a controller operably coupled to the image sensor and the actuator and configured to use the image sensor to capture an image frame including at least a portion of the image of the user's eye; determine a current position of the image of the user's eye in the image frame; determine a deviation of the current position from a target position of the image of the user's eye in the image frame; and operate the actuator to lessen the deviation. a focusing element for forming an image of a user's eye at a focal plane, the focusing element having an image circle at the focal plane; an image sensor having a diagonal smaller than the image circle for capturing the image of the user's eye; an actuator configured to translate at least one of the image sensor or the focusing element laterally relative to each other to shift a position of the image sensor within the image circle of the focusing element; and a controller operably coupled to the image sensor and the actuator and configured to use the image sensor to capture an image frame including at least a portion of the image of the user's eye; determine a current position of the image of the user's eye in the image frame; determine a deviation of the current position from a target position of the image of the user's eye in the image frame; and operate the actuator to lessen the deviation. use the image sensor to capture an image frame including at least a portion of the image of the user's eye; determine a current position of the image of the user's eye in the image frame; determine a deviation of the current position from a target position of the image of the user's eye in the image frame; and operate the actuator to lessen the deviation.
A lens barrel comprising: a taking lens (ZL) including a plurality of lens groups (1 to 5); and a plurality of barrels holding the lens groups (1 to 5), wherein the lens barrel comprises: a first barrel arranged as one of the barrels; an aperture unit held by the first barrel and having a variable aperture diameter; a second barrel arranged as one of the barrels at a subject side of the aperture unit and movable along an optical axis (AX) of the taking lens (ZL) such that a position of the second barrel relative to the first barrel is variable; the second barrel holding a focusing lens group and a motor unit for moving the second barrel along the optical axis (AX) for focusing, the motor unit includes: a motor head portion configured to generate a rotative force; and a lead screw portion configured to be driven to rotate by the rotative force, the lead screw portion is arranged to bridge from a subject side to an imaging side of the aperture unit , the motor head portion is arranged at an imaging side of the aperture unit , and an optical axis (AX)-side part of the motor head portion is located at an optical axis (AX) side of an outer circumferential portion of the aperture unit . a taking lens (ZL) including a plurality of lens groups (1 to 5); and a plurality of barrels holding the lens groups (1 to 5), wherein a first barrel arranged as one of the barrels; an aperture unit held by the first barrel and having a variable aperture diameter; a second barrel arranged as one of the barrels at a subject side of the aperture unit and movable along an optical axis (AX) of the taking lens (ZL) such that a position of the second barrel relative to the first barrel is variable; the second barrel holding a focusing lens group and a motor unit for moving the second barrel along the optical axis (AX) for focusing, the motor unit includes: a motor head portion configured to generate a rotative force; and a lead screw portion configured to be driven to rotate by the rotative force, a motor head portion configured to generate a rotative force; and a lead screw portion configured to be driven to rotate by the rotative force, the lead screw portion is arranged to bridge from a subject side to an imaging side of the aperture unit , the motor head portion is arranged at an imaging side of the aperture unit , and an optical axis (AX)-side part of the motor head portion is located at an optical axis (AX) side of an outer circumferential portion of the aperture unit .
A device for brain stimulation, comprising: a lead having a longitudinal surface, a proximal end and a distal end; a plurality of segmented electrodes disposed along the longitudinal surface of the lead near the distal end of the lead, wherein the plurality of segmented electrodes comprises at least one set of segmented electrodes, each set having two or more of the segmented electrodes disposed in a spaced apart manner from each other around the circumference of the lead at a particular longitudinal position; and at least two marking stripes disposed on the longitudinal surface of the lead with at least a portion of each of the at least two marking stripes extending between two of the segmented electrodes of one of the at least one set of segmented electrodes, the at least two marking stripes being configured and arranged to identify an orientation of the plurality of segmented electrodes. a lead having a longitudinal surface, a proximal end and a distal end; a plurality of segmented electrodes disposed along the longitudinal surface of the lead near the distal end of the lead, wherein the plurality of segmented electrodes comprises at least one set of segmented electrodes, each set having two or more of the segmented electrodes disposed in a spaced apart manner from each other around the circumference of the lead at a particular longitudinal position; and at least two marking stripes disposed on the longitudinal surface of the lead with at least a portion of each of the at least two marking stripes extending between two of the segmented electrodes of one of the at least one set of segmented electrodes, the at least two marking stripes being configured and arranged to identify an orientation of the plurality of segmented electrodes.
An aircraft fuel system comprising: at least one fuel tank ; and an aircraft fuel pump assembly , wherein the aircraft fuel pump assembly comprises: a pump ; a canister arranged to enclose the pump and mount the pump within the fuel tank ; and a discrete electronics unit configured to be mounted remotely to the pump , characterized in that the fuel tank includes an opening and the electronics unit is mounted to a cover of the opening. at least one fuel tank ; and an aircraft fuel pump assembly , wherein the aircraft fuel pump assembly comprises: a pump ; a canister arranged to enclose the pump and mount the pump within the fuel tank ; and a discrete electronics unit configured to be mounted remotely to the pump , a pump ; a canister arranged to enclose the pump and mount the pump within the fuel tank ; and a discrete electronics unit configured to be mounted remotely to the pump , characterized in that the fuel tank includes an opening and the electronics unit is mounted to a cover of the opening.