mhurhangee/patent-ind-claim-en huggingface dataset:
A engine system , comprising: an engine comprising: a combustion chamber ; a pre-combustion chamber apart from the combustion chamber ; an opening spanning between the combustion chamber and the pre-combustion chamber; a first fuel supply system adapted to supply liquid fuel to the pre-combustion chamber ; a second fuel supply system adapted to supply a second, different fuel to the combustion chamber , wherein the second fuel is a fuel gas, the second fuel supply system comprising a fuel gas fuel injector with an outlet to the pre-combustion chamber ; a heat exchanger adapted to cool compressed air and produce liquid oxygen; a liquid oxygen heat exchanger adapted to vaporize the liquid oxygen to generate an oxygen flow; and an oxygen supply system adapted to supply the oxygen flow to the pre-combustion chamber . an engine comprising: a combustion chamber ; a pre-combustion chamber apart from the combustion chamber ; an opening spanning between the combustion chamber and the pre-combustion chamber; a combustion chamber ; a pre-combustion chamber apart from the combustion chamber ; an opening spanning between the combustion chamber and the pre-combustion chamber; a first fuel supply system adapted to supply liquid fuel to the pre-combustion chamber ; a second fuel supply system adapted to supply a second, different fuel to the combustion chamber , wherein the second fuel is a fuel gas, the second fuel supply system comprising a fuel gas fuel injector with an outlet to the pre-combustion chamber ; a heat exchanger adapted to cool compressed air and produce liquid oxygen; a liquid oxygen heat exchanger adapted to vaporize the liquid oxygen to generate an oxygen flow; and an oxygen supply system adapted to supply the oxygen flow to the pre-combustion chamber .
A pump body assembly, comprising: a pump housing , provided with a drainage outlet for discharging liquid; characterized by a valve core member comprising a fixing portion and a valve body portion connected with the fixing portion, the fixing portion being fixed to the pump housing, the valve body portion being elastic, and the valve body portion being changeable from a natural state to an elastic deformation state under an action of liquid in the pump housing, wherein when the valve body portion is in the natural state, the valve body portion seals the drainage outlet of the pump housing, and when the valve body portion is in the elastic deformation state, the valve body portion does not seal the drainage outlet of the pump housing . a pump housing , provided with a drainage outlet for discharging liquid; characterized by a valve core member comprising a fixing portion and a valve body portion connected with the fixing portion, the fixing portion being fixed to the pump housing, the valve body portion being elastic, and the valve body portion being changeable from a natural state to an elastic deformation state under an action of liquid in the pump housing, wherein when the valve body portion is in the natural state, the valve body portion seals the drainage outlet of the pump housing, and when the valve body portion is in the elastic deformation state, the valve body portion does not seal the drainage outlet of the pump housing .
A method for wireless communications performed by a user equipment, UE, comprising: sending a first UE capability information message to a base station, BS, including a first set of UE capability information; and sending at least a second UE capability information message to the BS subsequent to sending the first UE capability information message including a second set of UE capability information, wherein the second set of UE capability information comprises only UE capabilities from the first set of UE capability information that have changed content. sending a first UE capability information message to a base station, BS, including a first set of UE capability information; and sending at least a second UE capability information message to the BS subsequent to sending the first UE capability information message including a second set of UE capability information, wherein the second set of UE capability information comprises only UE capabilities from the first set of UE capability information that have changed content.
A method for controlling oil pressure in a controllable oil pump of an internal combustion engine, ICE, system , of a vehicle, the method comprising: receiving (S10) an indication of an upcoming vehicle operating situation affecting an operation of the ICE system; determining (S20) an expected change in the operation of the ICE system for the upcoming vehicle operating situation, wherein determining an expected change in the operation of the ICE system for an upcoming vehicle operating situation is determined based on route information describing at least a route segment from a starting point to an end point, and wherein determining an expected change in the operation of the ICE system is determined based on a previous ICE operating profile for the route segment; determining (S30) a current oil pressure of the oil pump; and on the basis of said determined expected change in the operation of the ICE system and the determined current oil pressure of the oil pump, determining (S40) a minimum oil pressure for the oil pump for the upcoming vehicle operating situation. receiving (S10) an indication of an upcoming vehicle operating situation affecting an operation of the ICE system; determining (S20) an expected change in the operation of the ICE system for the upcoming vehicle operating situation, wherein determining an expected change in the operation of the ICE system for an upcoming vehicle operating situation is determined based on route information describing at least a route segment from a starting point to an end point, and wherein determining an expected change in the operation of the ICE system is determined based on a previous ICE operating profile for the route segment; determining (S30) a current oil pressure of the oil pump; and on the basis of said determined expected change in the operation of the ICE system and the determined current oil pressure of the oil pump, determining (S40) a minimum oil pressure for the oil pump for the upcoming vehicle operating situation.
Device for laying pipes in the ground, the device comprising - a ploughshare with a ploughshare shoe , wherein the ploughshare shoe has at least one displacement element protruding in a laying direction , - a drill , which drill is connected to the ploughshare and comprises at least one drill head arranged in a drill head housing section of a drill housing and a conveyor device arranged in a conveyor housing section of the drill housing for removing drilled material in the form of soil grasped by the drill head to the earth surface, and - a connection device for connecting a pipe to be laid to the drill , wherein - the ploughshare is arranged behind the drill when viewed in the laying direction . - a ploughshare with a ploughshare shoe , wherein the ploughshare shoe has at least one displacement element protruding in a laying direction , - a drill , which drill is connected to the ploughshare and comprises at least one drill head arranged in a drill head housing section of a drill housing and a conveyor device arranged in a conveyor housing section of the drill housing for removing drilled material in the form of soil grasped by the drill head to the earth surface, and - a connection device for connecting a pipe to be laid to the drill , wherein - the ploughshare is arranged behind the drill when viewed in the laying direction .
An external adjustment device for adjusting a medical implant having a permanent magnet disposed therein wherein rotation of the permanent magnet causes a change in dimension of the medical implant , the external adjustment device comprising: one or more driving magnets , configured to transmit a magnetic field to rotate the permanent magnet to thereby change a dimension of the medical implant ; a first circuit board and a second circuit board each having an array of magnetic sensors (534-542) wherein the first circuit board is located above and generally parallel to the second circuit board and the magnetic sensors on the first circuit board extend upward and the magnet sensors on the second circuit board extend downward, and the first and second circuit boards are configured to receive information corresponding to changing magnetic field characteristics caused by the rotation of the permanent magnet of the medical implant , and determine one or more of a force generated by the medical implant and a change in dimension of the medical implant ; and an output configured to report to a user one or more of the force generated by the medical implant and the change in dimension of the medical implant , in response to the magnetic field applied by the external adjustment device . a first circuit board and a second circuit board each having an array of magnetic sensors (534-542) wherein the first circuit board is located above and generally parallel to the second circuit board and the magnetic sensors on the first circuit board extend upward and the magnet sensors on the second circuit board extend downward, and the first and second circuit boards are configured to receive information corresponding to changing magnetic field characteristics caused by the rotation of the permanent magnet of the medical implant , and determine one or more of a force generated by the medical implant and a change in dimension of the medical implant ; and an output configured to report to a user one or more of the force generated by the medical implant and the change in dimension of the medical implant , in response to the magnetic field applied by the external adjustment device .
A device for adjusting the pressure in tyres that comprises a chamber with shape memory that is either a part of the tyre or is adjacent to the tyre wall or is a part of a vehicle wheel, is characterised in that the chamber (K) has at least three apertures wherein a first aperture and a third aperture can be closed by at least one regulator and a second aperture is positioned between the first and third apertures, the second aperture being in fluid communication with a valve, wherein the chamber (K) is configured such that the fluid is able to recirculate through the chamber.
An out-of-core nuclear instrumentation device comprising: - a detector signal-processing circuit that converts neutron flux leaking from a nuclear reactor vessel into a current value and performs a measurement processing on the neutron flux, the neutron flux being detected by a neutron detector disposed outside the nuclear reactor vessel , wherein the detector signal-processing circuit is configured to include: - a current/voltage conversion part that converts the current value into a voltage value, - a variable gain amplification part that amplifies the voltage value with a variable gain by a D/A converter , - a measurement range selection part that is provided in the current/voltage conversion part or the variable gain amplification part and selects a measurement range according to the current value, - a selective adjustment control part that adjusts and controls a gain of the D/A converter with selective control of the measurement range and the gain compensation value, characterized by : - a temperature measurement unit that measures a temperature of the measurement range selection part , and - a temperature compensation part that outputs a gain compensation value to the D/A converter based on the temperature. - a detector signal-processing circuit that converts neutron flux leaking from a nuclear reactor vessel into a current value and performs a measurement processing on the neutron flux, the neutron flux being detected by a neutron detector disposed outside the nuclear reactor vessel , - a current/voltage conversion part that converts the current value into a voltage value, - a variable gain amplification part that amplifies the voltage value with a variable gain by a D/A converter , - a measurement range selection part that is provided in the current/voltage conversion part or the variable gain amplification part and selects a measurement range according to the current value, - a selective adjustment control part that adjusts and controls a gain of the D/A converter with selective control of the measurement range and the gain compensation value, - a temperature measurement unit that measures a temperature of the measurement range selection part , and - a temperature compensation part that outputs a gain compensation value to the D/A converter based on the temperature.
A vacuum chuck adapted for mounting on a lower turret assembly , the lower turret assembly being part of a sealant liner applicator , the sealant liner applicator includes an upper turret assembly and a sealant gun , the sealant gun under computer control, the sealant gun used for applying a sealant around a periphery of an inside of a can or jar lid , the vacuum chuck comprising: an annular-shaped impeller ; spiral vanes formed in the impeller , the spiral vanes creating vacuum air when the vacuum chuck is rotated at high speeds on the lower turret assembly ; and a plurality of vacuum ports disposed in the impeller for drawing the vacuum air through the spiral vanes , the vacuum chuck being characterised in that it further includes an annular shaped involute , the involute attached to a bottom of the impeller , the involute adapted for mounting on the lower turret assembly . an annular-shaped impeller ; spiral vanes formed in the impeller , the spiral vanes creating vacuum air when the vacuum chuck is rotated at high speeds on the lower turret assembly ; and a plurality of vacuum ports disposed in the impeller for drawing the vacuum air through the spiral vanes , the vacuum chuck being characterised in that it further includes an annular shaped involute , the involute attached to a bottom of the impeller , the involute adapted for mounting on the lower turret assembly .
A polyvinyl alcohol film comprising a vinyl alcohol-based polymer, wherein, when the polyvinyl alcohol film is measured by a solid echo method using pulse NMR at 60°C for waveform separation of a free induction decay curve of 1H spin-spin relaxation into three curves derived from three components a component A, a component B, and a component C in order of short relaxation time, the component B has a resulting relaxation time of 0.03 milliseconds or more and 0.05 milliseconds or less, and a resulting component ratio of 30% or more and 50% or less.
A light emitting diode, LED, filament arrangement , comprising an elongated LED filament comprising an array of a plurality of light emitting diodes , LEDs, and a carrier arranged to support the plurality of LEDs, a heat sink , wherein the LED filament is arranged upon the heat sink, and wherein the heat sink is configured to dissipate heat from the plurality of LEDs during operation, wherein the LED filament comprises a center axis, A, and elongates in a meandering shape in a first plane, P, wherein at least one of the LED filament and the heat sink is convex-shaped with respect to the center axis, A, along at least a first segment of the LED filament, at least one of the LED filament and the heat sink is concave-shaped with respect to the center axis, A, along at least a second segment of the LED filament, and wherein the at least one first segment and the at least one second segment constitute linear portions of the LED filament which are connected by at least one curved portion of the LED filament. an elongated LED filament comprising an array of a plurality of light emitting diodes , LEDs, and a carrier arranged to support the plurality of LEDs, an array of a plurality of light emitting diodes , LEDs, and a carrier arranged to support the plurality of LEDs, a heat sink , wherein the LED filament is arranged upon the heat sink, and wherein the heat sink is configured to dissipate heat from the plurality of LEDs during operation, wherein the LED filament comprises a center axis, A, and elongates in a meandering shape in a first plane, P, wherein at least one of the LED filament and the heat sink is convex-shaped with respect to the center axis, A, along at least a first segment of the LED filament, at least one of the LED filament and the heat sink is concave-shaped with respect to the center axis, A, along at least a second segment of the LED filament, and wherein the at least one first segment and the at least one second segment constitute linear portions of the LED filament which are connected by at least one curved portion of the LED filament.
A method of making a fiber-containing prepreg, the method comprising: (i) providing a plurality of fibers; (ii) applying a reactive resin composition to the plurality of fibers to make a mixture of the plurality of fibers and the resin composition, wherein the reactive resin composition comprises at least one of caprolactam and/or cyclic butylene terephthalate monomers and oligomers capable of polymerizing into a polymerized resin matrix by melting the reactive resin composition to form a melted reactive resin composition, wherein the reactive resin composition is melted at a melting temperature that is below the polymerization temperature, and applying the melted reactive resin composition on the plurality of fibers; (iii) heating the mixture to a polymerization temperature, wherein the monomers, oligomers, or both, polymerize to form a fiber-resin amalgam comprising the polymerized resin matrix; and (iv) forming the fiber-resin amalgam into the fiber-containing prepreg. (i) providing a plurality of fibers; (ii) applying a reactive resin composition to the plurality of fibers to make a mixture of the plurality of fibers and the resin composition, wherein the reactive resin composition comprises at least one of caprolactam and/or cyclic butylene terephthalate monomers and oligomers capable of polymerizing into a polymerized resin matrix by melting the reactive resin composition to form a melted reactive resin composition, wherein the reactive resin composition is melted at a melting temperature that is below the polymerization temperature, and applying the melted reactive resin composition on the plurality of fibers; (iii) heating the mixture to a polymerization temperature, wherein the monomers, oligomers, or both, polymerize to form a fiber-resin amalgam comprising the polymerized resin matrix; and (iv) forming the fiber-resin amalgam into the fiber-containing prepreg.
A converter , comprising • a negative DC terminal and a positive DC terminal ; • at least three AC terminals , each AC terminal being arranged for an associated AC current (i V , i U , i W ) to flow through the terminal; • a converter bridge with at least three bridge legs (u, v, w), each bridge leg being associated with one of the at least three AC terminals and being able to connect the associated AC terminal to the negative DC terminal or the positive DC terminal ; wherein the converter comprises • a current measurement circuit comprising a current measurement element , the current measurement circuit being configured to guide one or more of the AC currents (i V , i U , i W ) flowing through one of the at least three AC terminals through the current measurement element ; wherein the current measurement circuit is connected to the at least three AC terminals and the negative DC terminal , and each lower branch and each lower switch of the converter bridge have an associated switch (S U,N2 ; S V,N2 ; S W,N2 ) of the current measurement circuit which is connected to the same AC terminal , characterised in that the converter is configured to measure one of the AC currents (i V , i U , i W ) flowing through one of the AC terminals by closing the associated switch of the current measurement circuit instead of the associated lower switch of the converter bridge . • a negative DC terminal and a positive DC terminal ; • at least three AC terminals , each AC terminal being arranged for an associated AC current (i V , i U , i W ) to flow through the terminal; • a converter bridge with at least three bridge legs (u, v, w), each bridge leg being associated with one of the at least three AC terminals and being able to connect the associated AC terminal to the negative DC terminal or the positive DC terminal ; • a current measurement circuit comprising a current measurement element , the current measurement circuit being configured to guide one or more of the AC currents (i V , i U , i W ) flowing through one of the at least three AC terminals through the current measurement element ;
A circular force generator for use in an active vibration control system, comprising: a component housing ; and a center shaft , wherein the center shaft is positioned in a fixed relationship with respect to the component housing; at least one motor having a rotor and a fixed stator , the rotor rotatably coupled to the center shaft by a bearing , wherein the fixed stator is configured to cause rotation about the center shaft of an eccentric mass connected to the rotor to produce a rotating force with a rotating force magnitude and a controllable rotating force phase: characterized in that it further comprises a high accuracy servo controller configured to control the rotating force magnitude and a rotating force phase of the rotor , the control system comprising a Hall-effect sensor servo control; and a micro-controller contained in the component housing, the micro-controller being configured to receive high-level digital commands from a central controller . a component housing ; and a center shaft , wherein the center shaft is positioned in a fixed relationship with respect to the component housing; at least one motor having a rotor and a fixed stator , the rotor rotatably coupled to the center shaft by a bearing , wherein the fixed stator is configured to cause rotation about the center shaft of an eccentric mass connected to the rotor to produce a rotating force with a rotating force magnitude and a controllable rotating force phase: characterized in that it further comprises a high accuracy servo controller configured to control the rotating force magnitude and a rotating force phase of the rotor , the control system comprising a Hall-effect sensor servo control; and a micro-controller contained in the component housing, the micro-controller being configured to receive high-level digital commands from a central controller .
A laminated steel sheet for a both-sided resin-coated container, comprising: a steel sheet; a first polyester resin layer formed on a surface of the steel sheet serving as an inner side of a container after the container is formed; and a second polyester resin layer formed on a surface of the steel sheet serving as an outer side of the container after the container is formed, characterized in that the first polyester resin layer includes a polyethylene terephthalate content of 95% by weight or more and has a degree of crystallinity in a range of 3% to 25% measured utilizing the method described in the description, and the second polyester resin layer includes polyethylene terephthalate and polybutylene terephthalate and has a proportion of polybutylene terephthalate in a range of 40% by mass to 80% by weight. a steel sheet; a first polyester resin layer formed on a surface of the steel sheet serving as an inner side of a container after the container is formed; and a second polyester resin layer formed on a surface of the steel sheet serving as an outer side of the container after the container is formed, characterized in that the first polyester resin layer includes a polyethylene terephthalate content of 95% by weight or more and has a degree of crystallinity in a range of 3% to 25% measured utilizing the method described in the description, and the second polyester resin layer includes polyethylene terephthalate and polybutylene terephthalate and has a proportion of polybutylene terephthalate in a range of 40% by mass to 80% by weight.