mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer film having at least three layers comprising: skin layers comprising a blend of a low density polyethylene and an ethylene-based elastomer having a density less than 0.90 g/cc, as determined in accordance with ASTM D792; a core layer located between the skin layers, the core layer comprising a propylene-based plastomer having a density less than 0.90 g/cc, as determined in accordance with ASTM D792; and the multilayer film has an onset end temperature from 90 °C to 110 °C and a heat seal strength at 120 °C from 1.5 N/cm to 2.5 N/cm as determined using an Enepay Hot Tack Instrument with the conditions as outlined in the description. skin layers comprising a blend of a low density polyethylene and an ethylene-based elastomer having a density less than 0.90 g/cc, as determined in accordance with ASTM D792; a core layer located between the skin layers, the core layer comprising a propylene-based plastomer having a density less than 0.90 g/cc, as determined in accordance with ASTM D792; and the multilayer film has an onset end temperature from 90 °C to 110 °C and a heat seal strength at 120 °C from 1.5 N/cm to 2.5 N/cm as determined using an Enepay Hot Tack Instrument with the conditions as outlined in the description.
A brake system comprising: a) a caliper having: i. one or more piston bores ; and ii. a piston located within each of the one or more piston bores ; b) two or more brake pads located within the caliper ; c) a shim in communication with at least one of the two more brake pads , wherein the shim includes: i. one or more tie bars , and ii. an open space on each side of the tie bar , and wherein each open space is a window that is a through hole through the shim ; wherein during a brake apply, the one or more tie bars allow at least one of the two or more brake pads to rotate relative to the piston while the tie bar remains an only point of contact between the shim and the piston so that the piston moves at least one of the two or more brake pads along a piston bore axis; wherein the open spaces allow at least one of the two brake pads to pivot about the piston bore axis ; and wherein during the brake apply, the piston can extend into the open spaces and be free of contact with the brake pad. a) a caliper having: i. one or more piston bores ; and ii. a piston located within each of the one or more piston bores ; i. one or more piston bores ; and ii. a piston located within each of the one or more piston bores ; b) two or more brake pads located within the caliper ; c) a shim in communication with at least one of the two more brake pads , wherein the shim includes: i. one or more tie bars , and ii. an open space on each side of the tie bar , and wherein each open space is a window that is a through hole through the shim ; i. one or more tie bars , and ii. an open space on each side of the tie bar , and wherein each open space is a window that is a through hole through the shim ;
A dose setting mechanism comprising: a spindle , and a spindle nut , wherein the spindle nut is engaged with the spindle , wherein the spindle has a first helical groove extending along an outer surface of the spindle , and wherein the spindle nut has a second helical groove extending along an inner surface of the spindle nut , wherein the first helical groove is engaged with the second helical groove , and wherein the spindle nut comprises protrusions or teeth facing a cartridge assembly and prevent the spindle nut from rotation, thus allowing to dispense a dose by means of the spindle , characterized in that a coding feature is disposed on a lock nut , when a cartridge assembly having a corresponding coding feature is inserted in the dose setting mechanism , the spindle nut is prevented from rotation by the lock nut , and when a cartridge assembly that does not have the corresponding coding feature is inserted in the dose setting mechanism , the spindle nut is allowed to rotate, and dispensing a dose is prevented. a spindle , and a spindle nut , wherein the spindle nut is engaged with the spindle , wherein the spindle has a first helical groove extending along an outer surface of the spindle , and wherein the spindle nut has a second helical groove extending along an inner surface of the spindle nut , wherein the first helical groove is engaged with the second helical groove , and wherein the spindle nut comprises protrusions or teeth facing a cartridge assembly and prevent the spindle nut from rotation, thus allowing to dispense a dose by means of the spindle , characterized in that a coding feature is disposed on a lock nut , when a cartridge assembly having a corresponding coding feature is inserted in the dose setting mechanism , the spindle nut is prevented from rotation by the lock nut , and when a cartridge assembly that does not have the corresponding coding feature is inserted in the dose setting mechanism , the spindle nut is allowed to rotate, and dispensing a dose is prevented.
A reload assembly comprising: a shell housing including an inner housing portion and an outer housing portion , the inner housing portion spaced from the outer housing portion to define an annular cavity between the inner and outer housing portions ; a staple cartridge supported on a distal portion of the shell housing , the staple cartridge having a plurality of staple pockets , each of the staple pockets supporting a staple ; a pusher supported within the annular cavity , the pusher movable between a retracted position and an advanced position to eject the staples from the staple cartridge ; a knife carrier including a body defining a longitudinal axis and supporting a knife , the body of the knife carrier including an inner wall defining a central bore , the inner housing portion of the shell housing being positioned within the central bore of the knife carrier such that the knife carrier is movable about the inner housing portion of the shell housing between advanced and retracted positions; a lockout component supported on the inner wall of the knife carrier , the lockout component having a body formed of a resilient material and defining a window ; and characterized by a hook component supported on the inner housing portion of the shell housing and including a body having a hook that is received within the window of the lockout component when the knife carrier is in its retracted position after the reload assembly is fired to obstruct movement of the knife carrier back to its advanced position. a shell housing including an inner housing portion and an outer housing portion , the inner housing portion spaced from the outer housing portion to define an annular cavity between the inner and outer housing portions ; a staple cartridge supported on a distal portion of the shell housing , the staple cartridge having a plurality of staple pockets , each of the staple pockets supporting a staple ; a pusher supported within the annular cavity , the pusher movable between a retracted position and an advanced position to eject the staples from the staple cartridge ; a knife carrier including a body defining a longitudinal axis and supporting a knife , the body of the knife carrier including an inner wall defining a central bore , the inner housing portion of the shell housing being positioned within the central bore of the knife carrier such that the knife carrier is movable about the inner housing portion of the shell housing between advanced and retracted positions; a lockout component supported on the inner wall of the knife carrier , the lockout component having a body formed of a resilient material and defining a window ; and characterized by a hook component supported on the inner housing portion of the shell housing and including a body having a hook that is received within the window of the lockout component when the knife carrier is in its retracted position after the reload assembly is fired to obstruct movement of the knife carrier back to its advanced position.
Remote control device for controlling one or more user devices (25-1, 25-2, 25-3), comprising input means for receiving input from a user, and a transmitter for transmitting control commands to said one or more user devices for control thereof, further comprising a directional optical sensor for receiving one or more optical signals from the user devices and for detecting an incoming direction of said received optical signals, and a processor , wherein, for identification of at least one of said user devices, the processor is arranged for analyzing at least one of said received optical signals for associating thereof with the at least one of said user devices, wherein the one or more optical signals comprise high and low signal states, and wherein each optical signal consists of one or more signal fragments, each signal fragment comprising a leading or trailing low signal state and a high signal state, characterized in that a duration of the high signal state of each signal fragment determines a signal fragment type of the signal fragment and wherein said duration of the high signal state is longer than a duration of the low signal state, and in that the processor is arranged for keeping track of the at least one of said optical signals upon changing of said incoming direction, and for performing said associating of said at least one received optical signal with the at least one of said user devices by: - recognizing the one or more signal fragments and associating each signal fragment with its signal fragment type for obtaining therefrom a signal pattern which is uniquely associable with said at least one of said user devices, - decoding a signal fragment value represented in each of the one or more signal fragments having a payload data type, and - combining the signal fragment values for obtaining a binary identifier associated with the at least one of said user devices. - recognizing the one or more signal fragments and associating each signal fragment with its signal fragment type for obtaining therefrom a signal pattern which is uniquely associable with said at least one of said user devices, - decoding a signal fragment value represented in each of the one or more signal fragments having a payload data type, and - combining the signal fragment values for obtaining a binary identifier associated with the at least one of said user devices.
A process for manufacturing a conductive composite material from a composite polymer matrix, wherein the composite polymer matrix is formed by coalescence of conductive composite particles consisting of particles of a polymer matrix, having a diameter d50 of between 1 and 4000 μm, coated with a layer of electrically conductive metallic material, said particles not being dispersed in a polymer matrix, characterized in that the ratio of the thickness of said layer to the diameter d50 of the polymer matrix particles, as measured according to the standard ISO 9276, is between 0.0025:100 and 1.5:100, said thickness being less than 300 nm, wherein said particles do not comprise any other layer.
A cosmetic composition comprising: a) film-forming polymer having a contact angle of at least 85°, where contact angle means the angle at which a water/vapor interface meets a solid surface at a temperature of 25 °C and is measured in accordance with the procedure in the description; b) wax; c) optical particle; and d) at least 40% of water by weight of the composition; wherein the film forming polymer comprises a silicone resin wherein the silicone resin comprises MQ silicone resin, T silicone resin or a mixture thereof, where silicone resin refers to silicone material which is formed by branched, and/or cage-like oligosiloxanes having three-dimensional structure, wherein the optical particle is present in amount of 0.05 to 5% by weight of the composition. a) film-forming polymer having a contact angle of at least 85°, where contact angle means the angle at which a water/vapor interface meets a solid surface at a temperature of 25 °C and is measured in accordance with the procedure in the description; b) wax; c) optical particle; and d) at least 40% of water by weight of the composition;
A microwave resonator for a measuring device for measuring the thickness and/or moisture of strand-shaped fiber material (FM) continuously conveyed through a measurement chamber disposed in a resonator chamber of the microwave resonator (1, 1', 1", 1′′′) on a textile machine, particularly on a carding machine, on a drawing frame, or on a combing machine, wherein at least one electrically nonconductive material unit (10, 10', 10", 10"', 10"", 10""') is provided in the resonator chamber along the measurement chamber , said material unit comprising an inlet-side section (11, 11', 11", 11′′′, 11"", 11""') having a cross-sectional area that is variable in an intended travel direction (LR) of the fiber material (FM) and/or an outlet-side section (12, 12', 12", 12′′′, 12"", 12""') having a cross-sectional area that is variable in the intended travel direction (LR) of the fiber material (FM), wherein the cross-sectional area of the inlet-side section (11, 11', 11", 11′′′, 11"", 11""') of the material unit (10, 10', 10", 10'", 10"", 10""') increases in the travel direction (LR) of the fiber material (FM) and/or the cross-sectional area of the outlet-side section (12, 12', 12", 12′′′, 12"", 12""') of the material unit (10, 10', 10", 10′′′, 10"", 10""') decreases in the travel direction (LR) of the fiber material (FM) characterized in that the material unit (10', 10", 10′′′, 10""' 10""') is implemented for covering a hollow space region of the resonator chamber . wherein the cross-sectional area of the inlet-side section (11, 11', 11", 11′′′, 11"", 11""') of the material unit (10, 10', 10", 10'", 10"", 10""') increases in the travel direction (LR) of the fiber material (FM) and/or the cross-sectional area of the outlet-side section (12, 12', 12", 12′′′, 12"", 12""') of the material unit (10, 10', 10", 10′′′, 10"", 10""') decreases in the travel direction (LR) of the fiber material (FM) characterized in that the material unit (10', 10", 10′′′, 10""' 10""') is implemented for covering a hollow space region of the resonator chamber .
A method of producing a bioabsorbable membrane , the method comprising: forming a liquid membrane (L) by spin-coating a coating liquid containing a first bioabsorbable polymer and a solvent; and causing a porous membrane containing a second bioabsorbable polymer to contact the liquid membrane (L) so that a part of the liquid membrane (L) permeates into the porous membrane and the first bioabsorbable polymer and the second bioabsorbable polymer are integrated to form a dense layer , wherein when spin-coating the coating liquid, after a rotating base is rotated at 50 rpm or more and less than 500 rpm for a preliminary rotation, the rotating base is rotated at 500 rpm or more and 3000 rpm or less for a main rotation. forming a liquid membrane (L) by spin-coating a coating liquid containing a first bioabsorbable polymer and a solvent; and causing a porous membrane containing a second bioabsorbable polymer to contact the liquid membrane (L) so that a part of the liquid membrane (L) permeates into the porous membrane and the first bioabsorbable polymer and the second bioabsorbable polymer are integrated to form a dense layer , wherein when spin-coating the coating liquid, after a rotating base is rotated at 50 rpm or more and less than 500 rpm for a preliminary rotation, the rotating base is rotated at 500 rpm or more and 3000 rpm or less for a main rotation.
A method for generating syngas, comprising: providing a hydrocarbon feed stream without pre-reforming and/or heating said hydrocarbon feed stream; splitting said hydrocarbon feed stream between a fuel stream directed to the hot oxygen burner assembly integrated with an auto thermal reactor and a hydrocarbon feed stream where said fuel stream is combusted with oxygen in the hot oxygen burner assembly of an autothermal reactor to form a hot oxygen jet; mixing the hydrocarbon feed stream with steam, and introducing said mixture of hydrocarbon feed in a non-catalytic region of the auto thermal reactor wherein the mixture of hydrocarbon feed is substantially entrained in the hot oxygen jet; igniting the hydrocarbon stream with hot oxygen to create a reactive jet, thereby performing partial reforming of the hydrocarbon in a non-catalytic zone of the auto thermal reactor ; and further reforming the hydrocarbon in a catalyst bed of the auto thermal reactor to generate syngas. providing a hydrocarbon feed stream without pre-reforming and/or heating said hydrocarbon feed stream; splitting said hydrocarbon feed stream between a fuel stream directed to the hot oxygen burner assembly integrated with an auto thermal reactor and a hydrocarbon feed stream where said fuel stream is combusted with oxygen in the hot oxygen burner assembly of an autothermal reactor to form a hot oxygen jet; mixing the hydrocarbon feed stream with steam, and introducing said mixture of hydrocarbon feed in a non-catalytic region of the auto thermal reactor wherein the mixture of hydrocarbon feed is substantially entrained in the hot oxygen jet; igniting the hydrocarbon stream with hot oxygen to create a reactive jet, thereby performing partial reforming of the hydrocarbon in a non-catalytic zone of the auto thermal reactor ; and further reforming the hydrocarbon in a catalyst bed of the auto thermal reactor to generate syngas.
A differential circuit, wherein the differential circuit comprises a front-end circuit and a processing circuit, and the front-end circuit is configured to convert capacitance signals of two capacitors connected to the front-end circuit into voltage signals and perform a difference operation on the voltage signals of the two capacitors connected to the front-end circuit, the front-end circuit comprises a control circuit and a programmable gain amplification, PGA, circuit, and the control circuit is connected with a power supply, the two capacitors and the PGA circuit; the control circuit is configured to: control, at a first stage of a detection period, the power supply to charge the two capacitors connected to the front-end circuit and control the two capacitors connected to the front-end circuit to discharge to the PGA circuit; and control, at a second stage of the detection period, the PGA circuit to charge the two capacitors connected to the front-end circuit; the PGA circuit is configured to convert the capacitance signals of the two capacitors connected to the front-end circuit into the voltage signals at the first stage and the second stage respectively, and perform a difference operation on the voltage signals of the two capacitors connected to the front-end circuit, to obtain a differential signal of the voltage signals corresponding to the two capacitors connected to the front-end circuit at the first stage and a differential signal of the voltage signals corresponding to the two capacitors connected to the front-end circuit at the second stage; the front-end circuit outputs the differential signal of the two capacitors connected to the front-end circuit at the first stage and outputs the differential signal of the two capacitors connected to the front-end circuit at the second stage; and the processing circuit is connected to the front-end circuit and is configured to determine, according to the differential signal output by the front-end circuit at the first stage and the differential signal output by the front-end circuit at the second stage, a target differential signal of voltages corresponding to the two capacitors connected to the front-end circuit.
A vehicle steering device comprising: an electric motor that applies a steering force to a turning mechanism of a vehicle; a first setting portion that sets a target assist torque (T m,mc ) in accordance with a steering torque (T d ); a second setting portion that sets an angle controlling target torque (T m,ac ) for bringing an angular deviation between a target steering angle (θ cmda ) and an actual steering angle (θ) close to zero; an estimator that estimates a compensation object load (T lem ) with respect to the angle controlling target torque (T m,ac ); and a first calculating portion that calculates a target automatic steering torque (T m,ad ) based on the angle controlling target torque (T m,ac ) set by the second setting portion and the compensation object load (T lem ) estimated by the estimator , characterized by comprising a second calculating portion that performs weighted addition of the target automatic steering torque (T m,ad ) and the target assist torque (T m,mc ) in accordance with a value (Δθ, T d ) that changes in accordance with a driver input to calculate a target motor torque (T m ) that is a target value of a motor torque of the electric motor. an electric motor that applies a steering force to a turning mechanism of a vehicle; a first setting portion that sets a target assist torque (T m,mc ) in accordance with a steering torque (T d ); a second setting portion that sets an angle controlling target torque (T m,ac ) for bringing an angular deviation between a target steering angle (θ cmda ) and an actual steering angle (θ) close to zero; an estimator that estimates a compensation object load (T lem ) with respect to the angle controlling target torque (T m,ac ); and a first calculating portion that calculates a target automatic steering torque (T m,ad ) based on the angle controlling target torque (T m,ac ) set by the second setting portion and the compensation object load (T lem ) estimated by the estimator , characterized by comprising a second calculating portion that performs weighted addition of the target automatic steering torque (T m,ad ) and the target assist torque (T m,mc ) in accordance with a value (Δθ, T d ) that changes in accordance with a driver input to calculate a target motor torque (T m ) that is a target value of a motor torque of the electric motor.