mhurhangee/patent-ind-claim-en huggingface dataset:
A propulsion system for a vehicle comprising: a propulsor for generating a thrust for the vehicle; a motor operable with the propulsor for driving the propulsor; a motor mount for mounting the motor in or to the vehicle; and a thrust measuring device comprising a strain sensor mounted to a structural component of at least one of the propulsor or the motor rotatable with the propulsor during operation of the propulsion system, or a thrust bearing of the motor or propulsor, for directly measuring a strain caused by the thrust generated by the propulsor during operation of the propulsion system , wherein the strain sensor is a surface acoustic wave sensor , wherein the propulsion system defines a thrust path from the propulsor to the vehicle, and wherein the surface acoustic wave sensor is oriented generally along a direction of the thrust path. a propulsor for generating a thrust for the vehicle; a motor operable with the propulsor for driving the propulsor; a motor mount for mounting the motor in or to the vehicle; and a thrust measuring device comprising a strain sensor mounted to a structural component of at least one of the propulsor or the motor rotatable with the propulsor during operation of the propulsion system, or a thrust bearing of the motor or propulsor, for directly measuring a strain caused by the thrust generated by the propulsor during operation of the propulsion system , wherein the strain sensor is a surface acoustic wave sensor , wherein the propulsion system defines a thrust path from the propulsor to the vehicle, and wherein the surface acoustic wave sensor is oriented generally along a direction of the thrust path.
An electrode for a redox flow battery, comprising: a substrate; a conductive portion applied to a surface of the substrate; and a catalytic portion held by the conductive portion, the conductive portion containing one or more types of elements selected from a group α1 consisting of Sn, Ti, Ta, Ce, In, and Zn, the catalytic portion containing one or more types of elements selected from a group β consisting of Ru, Ir, Pd, Pt, Rh, and Au, and wherein the substrate comprises an aggregate of particles each having an average particle size of 3 μm or more and 500 μm or less. a substrate; a conductive portion applied to a surface of the substrate; and a catalytic portion held by the conductive portion, the conductive portion containing one or more types of elements selected from a group α1 consisting of Sn, Ti, Ta, Ce, In, and Zn, the catalytic portion containing one or more types of elements selected from a group β consisting of Ru, Ir, Pd, Pt, Rh, and Au, and wherein the substrate comprises an aggregate of particles each having an average particle size of 3 μm or more and 500 μm or less.
A fixing device , comprising: a fixing member having a first surface configured to be pressed against a recording medium (S); a heater on a second surface of the fixing member and configured to heat the fixing member; a first heat conducting member contacting a back surface side of the heater; and a second heat conducting member that is moveable between a first state in which the second heat conducting member is in contact with the first heat conducting member and the second surface of the fixing member and a second state in which the second heat conducting member is contacting the first heat conducting member , but separated from the second surface of the fixing member characterised in that the first heat conducting member extends beyond the heater in an upstream direction relative to a travel direction of the recording medium past the fixing member, and the second heat conducting member has a U-shaped cross-section and covers an upstream edge of the heater. a fixing member having a first surface configured to be pressed against a recording medium (S); a heater on a second surface of the fixing member and configured to heat the fixing member; a first heat conducting member contacting a back surface side of the heater; and a second heat conducting member that is moveable between a first state in which the second heat conducting member is in contact with the first heat conducting member and the second surface of the fixing member and a second state in which the second heat conducting member is contacting the first heat conducting member , but separated from the second surface of the fixing member characterised in that the first heat conducting member extends beyond the heater in an upstream direction relative to a travel direction of the recording medium past the fixing member, and the second heat conducting member has a U-shaped cross-section and covers an upstream edge of the heater.
A valve for a fluid delivery system, comprising: a valve seat comprising a fluid inlet , a fluid outlet , and a conical well having an opening , a beveled surface , and a bottom ; and a valve membrane comprising a conical portion having a base and a tip , the conical portion configured to fit within the conical well of the valve seat , the valve membrane configured to fluidly connect the fluid inlet to the fluid outlet when in an undeformed position and fluidly disconnect the fluid inlet from the fluid outlet when in a radially deformed position, wherein, in the undeformed position, a wall of the conical portion is spaced apart from the beveled surface by a clearance to fluidly connect the fluid inlet to the fluid outlet , and in the deformed position, the tip of the valve membrane touches the bottom of the conical well such that the conical portion of valve membrane is radially expanded and the conical portion touches the beveled surface to close the clearance. a valve seat comprising a fluid inlet , a fluid outlet , and a conical well having an opening , a beveled surface , and a bottom ; and a valve membrane comprising a conical portion having a base and a tip , the conical portion configured to fit within the conical well of the valve seat , the valve membrane configured to fluidly connect the fluid inlet to the fluid outlet when in an undeformed position and fluidly disconnect the fluid inlet from the fluid outlet when in a radially deformed position, wherein, in the undeformed position, a wall of the conical portion is spaced apart from the beveled surface by a clearance to fluidly connect the fluid inlet to the fluid outlet , and in the deformed position, the tip of the valve membrane touches the bottom of the conical well such that the conical portion of valve membrane is radially expanded and the conical portion touches the beveled surface to close the clearance.
A system comprising: a memory ; and processing circuitry operatively coupled to the memory and configured to: define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment. a memory ; and processing circuitry operatively coupled to the memory and configured to: define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment. define a relationship for multiple electrodes of a plurality of electrodes, wherein the relationship defines a ratio of a value of a therapy parameter between the multiple electrodes; receive, via a user interface, an input to lock the relationship for the multiple electrodes of the plurality of electrodes; perform a master adjustment that adjusts each value of the therapy parameter for each respective electrode of the multiple electrodes by an amount specified by the relationship to maintain the ratio of the value of the therapy parameter between the multiple electrodes; and control delivery of electrical stimulation according to the master adjustment.
Polypropylene composition (C) comprising (a) 55 to 95 parts per weight of a heterophasic propylene copolymer (HECO); (b) 1 to 20 parts per weight of a plastomer (PL); and (c) 4 to 25 parts per weight of an inorganic filler (F); based on the total parts per weight of compounds (a), (b) and (c); wherein the heterophasic propylene copolymer (HECO) has am amount of xylene cold soluble (XCS) fraction in the range of 22 to 45 wt.-%, based on the weight of the polypropylene composition (C); and wherein the inorganic filler (F) is mica having a median particle size (D 50 ) in the range of 1.5 to 8.0 μm. (a) 55 to 95 parts per weight of a heterophasic propylene copolymer (HECO); (b) 1 to 20 parts per weight of a plastomer (PL); and (c) 4 to 25 parts per weight of an inorganic filler (F);
Workpiece receptacle comprising a receiving element for receiving the workpiece, a base element movably receiving the receiving element , a bearing means allowing for a movement between the receiving element and the base element , a bearing cup connected with the receiving element , and a bearing cup connected with the base element , wherein both bearing cups have a spherical surface , wherein balls are arranged between the two bearing cups , characterized by a fixing element for the fixation of the receiving element with respect to the base element in different orientations.
A system comprising: a waveform generator configured to provide a direct current (DC) waveform to one or more electrodes, wherein the DC comprises at least two phases: a first phase with a first amplitude capable of providing a block of a neural structure within 1 second, wherein the first amplitude is a suprathreshold value for the neural structure; and a second phase with a second amplitude less than the first amplitude, wherein the second amplitude is a subthreshold value for the neural structure; and one or more electrodes configured to be in electrical communication with the neural structure and to: deliver the first phase for a first time to provide the block of the neural structure that primes the neural structure; and deliver the second phase for a second time, after the first time, to maintain the block of the neural structure. a waveform generator configured to provide a direct current (DC) waveform to one or more electrodes, wherein the DC comprises at least two phases: a first phase with a first amplitude capable of providing a block of a neural structure within 1 second, wherein the first amplitude is a suprathreshold value for the neural structure; and a second phase with a second amplitude less than the first amplitude, wherein the second amplitude is a subthreshold value for the neural structure; and a first phase with a first amplitude capable of providing a block of a neural structure within 1 second, wherein the first amplitude is a suprathreshold value for the neural structure; and a second phase with a second amplitude less than the first amplitude, wherein the second amplitude is a subthreshold value for the neural structure; and one or more electrodes configured to be in electrical communication with the neural structure and to: deliver the first phase for a first time to provide the block of the neural structure that primes the neural structure; and deliver the second phase for a second time, after the first time, to maintain the block of the neural structure. deliver the first phase for a first time to provide the block of the neural structure that primes the neural structure; and deliver the second phase for a second time, after the first time, to maintain the block of the neural structure.
Gas-tight shut-off damper with a damper blade , which is movable along a movement path from an open into a closed position, in which the damper blade is pressed gas-tight onto a damper seat , wherein the damper blade is mounted pivotable on one side, a linear drive is provided, with which the damper blade is movable and a link is provided, which predetermines the movement path , characterized in that the link has a curved shape, which is formed such that, - the initiation of a horizontal movement of the damper blade in a first third of the movement path along the link is facilitated by a downward sloping of the movement path in the link , - the damper blade is brought, in the middle third of the movement path along the link , into an almost parallel position relative to the damper seat and is movable without the damper blade touching the damper seat , and - the damper blade is pressed, in the last third of the movement path along the link , out of an almost parallel position relative to the damper seat perpendicularly onto the damper seat . the damper blade is mounted pivotable on one side, a linear drive is provided, with which the damper blade is movable and a link is provided, which predetermines the movement path , characterized in that the link has a curved shape, which is formed such that, - the initiation of a horizontal movement of the damper blade in a first third of the movement path along the link is facilitated by a downward sloping of the movement path in the link , - the damper blade is brought, in the middle third of the movement path along the link , into an almost parallel position relative to the damper seat and is movable without the damper blade touching the damper seat , and - the damper blade is pressed, in the last third of the movement path along the link , out of an almost parallel position relative to the damper seat perpendicularly onto the damper seat . - the initiation of a horizontal movement of the damper blade in a first third of the movement path along the link is facilitated by a downward sloping of the movement path in the link , - the damper blade is brought, in the middle third of the movement path along the link , into an almost parallel position relative to the damper seat and is movable without the damper blade touching the damper seat , and - the damper blade is pressed, in the last third of the movement path along the link , out of an almost parallel position relative to the damper seat perpendicularly onto the damper seat .
Bicycle crankarm provided with an electric/electronic system , including a battery power unit , a processor having a standby mode and a running mode , and a wake unit that emits a wake signal for the processor , thotsaid wake unit is completely supported by or in the crankarm , characterized in that the wake unit comprises a bicycle presumed use detector and a crankarm actual use detector embodied by a same component of the wake unit , said same component having a normal running mode and a low-power running mode, in the normal running mode acting as presumed use detector and as actual use detector , and in the low-power running mode acting as presumed use detector.
A system for measuring skin condition, comprising a microneedle patch with physiologically active substances and an electronic device mounted on the microneedle patch, wherein the physiologically active substance is a compound or a molecule that induces a biological reaction, wherein the electronic device comprising: an irradiation unit ; a detection unit ; an output unit or a communicator ; and a controller configured to: control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light , control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit , generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device . an irradiation unit ; a detection unit ; an output unit or a communicator ; and a controller configured to: control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light , control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit , generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device . control the irradiation unit to irradiate a plurality of lights into skin to which the microneedle patch comprising a physiologically active substance is adhered, wherein the plurality of lights include a reference light and a measurement light , control the detection unit to detect a first reflective light corresponding to the reference light and a second reflective light corresponding to the measurement light based on an amount of moisture in the skin, identify a moisture level corresponding to the detection result by the detection unit , generate patch adherence information indicating an adhesive state of the microneedle patch based on the identified moisture level of the skin, and provide the generated patch adherence information to the output unit or the communicator of the electronic device .
A module terminal configured for use in a lithium ion (Li-ion) battery module , comprising: - a first conductive component configured to physically and electrically couple to a battery terminal connector of a vehicle to provide power to the vehicle ; - a second conductive component electrically coupled to the first conductive component and configured to electrically couple to a plurality of Li-ion battery cells of the Li-ion battery module ; and - a sealing shim formed from a polymer material and compressed between the first conductive component and the second conductive component, and wherein the sealing shim is configured to seal a terminal opening of a housing of the Li-ion battery module , wherein the sealing shim is configured to be directly secured to the housing via a laser weld surrounding the opening , and a portion of the housing having the opening is transparent to a laser used to form the laser weld. - a first conductive component configured to physically and electrically couple to a battery terminal connector of a vehicle to provide power to the vehicle ; - a second conductive component electrically coupled to the first conductive component and configured to electrically couple to a plurality of Li-ion battery cells of the Li-ion battery module ; and - a sealing shim formed from a polymer material and compressed between the first conductive component and the second conductive component, and wherein the sealing shim is configured to seal a terminal opening of a housing of the Li-ion battery module ,
A vacuum heat insulating material, comprising: a core material ; a first envelope disposed at an outer side of the core material ; a blocking layer disposed between the core material and the first envelope and bonded to the first envelope so as to be integrally formed with the first envelope ; and a second envelope having a thermal conductivity greater than a thermal conductivity of the first envelope and coupled to the first envelope to form an accommodating space in which the core material and the blocking layer are accommodated, wherein the blocking layer is configured to prevent moisture and gas from penetrating into the accommodating space ; and wherein the first envelope and the second envelope are bonded to each other by welding or adhesion to form an extension portion extended toward an outer side of the accommodating space . a core material ; a first envelope disposed at an outer side of the core material ; a blocking layer disposed between the core material and the first envelope and bonded to the first envelope so as to be integrally formed with the first envelope ; and a second envelope having a thermal conductivity greater than a thermal conductivity of the first envelope and coupled to the first envelope to form an accommodating space in which the core material and the blocking layer are accommodated, wherein the blocking layer is configured to prevent moisture and gas from penetrating into the accommodating space ; and wherein the first envelope and the second envelope are bonded to each other by welding or adhesion to form an extension portion extended toward an outer side of the accommodating space .
An ultrasonic clamp coagulator apparatus comprising: a housing; an outer tube having a proximal end joined to said housing, and a distal end; an ultrasonic waveguide positioned within said outer tube, said ultrasonic waveguide having an end-effector comprising a blade extending distally from said distal end of said outer tube; and said blade having an ultrasonically actuated motion in substantially a single actuation plane, wherein said blade is curved in said actuation plane, wherein the bottom surface of said blade comprises a spherical cut that provides a sharp edge , wherein said spherical cut extends proximally along said blade from the distal end of said blade, wherein the length of said spherical cut is defined such that the excursion of said end-effector along a plane orthogonal to said single actuation plane is limited to less than 15 %. a housing; an outer tube having a proximal end joined to said housing, and a distal end; an ultrasonic waveguide positioned within said outer tube, said ultrasonic waveguide having an end-effector comprising a blade extending distally from said distal end of said outer tube; and said blade having an ultrasonically actuated motion in substantially a single actuation plane, wherein said blade is curved in said actuation plane, wherein the bottom surface of said blade comprises a spherical cut that provides a sharp edge , wherein said spherical cut extends proximally along said blade from the distal end of said blade, wherein the length of said spherical cut is defined such that the excursion of said end-effector along a plane orthogonal to said single actuation plane is limited to less than 15 %.