mhurhangee/patent-ind-claim-en huggingface dataset:
A fixture for processing a part , the fixture comprising: a body having a plurality of threaded holes ; a plurality of switches having: a housing mounted in a respective associated hole of the plurality of threaded holes ; and a cap for contacting the part in an installed condition of the part and mounted to the housing for axial movement between a compressed condition and an extended condition, the cap biased from the compressed condition toward the extended condition; a housing electrical contact ; and a cap electrical contact for contacting the housing electrical contact in the compressed condition; and at least one clamp for holding the part in the installed condition. a body having a plurality of threaded holes ; a plurality of switches having: a housing mounted in a respective associated hole of the plurality of threaded holes ; and a cap for contacting the part in an installed condition of the part and mounted to the housing for axial movement between a compressed condition and an extended condition, the cap biased from the compressed condition toward the extended condition; a housing electrical contact ; and a cap electrical contact for contacting the housing electrical contact in the compressed condition; and a housing mounted in a respective associated hole of the plurality of threaded holes ; and a cap for contacting the part in an installed condition of the part and mounted to the housing for axial movement between a compressed condition and an extended condition, the cap biased from the compressed condition toward the extended condition; a housing electrical contact ; and a cap electrical contact for contacting the housing electrical contact in the compressed condition; and at least one clamp for holding the part in the installed condition.
A process for the manufacture of polycarbonate particles, the process comprising: combining a first solution comprising (i) a polycarbonate and a phosphorus-containing flame retardant, and (ii) an organic solvent with a second solution comprising (i) a surfactant and (ii) an aqueous solvent substantially immiscible with the organic solvent, under conditions of shear and temperature effective to provide an emulsion; and removing at least a portion of the organic solvent to provide an aqueous slurry comprising a plurality of particles comprising the polycarbonate and the phosphorus-containing flame retardant. combining a first solution comprising (i) a polycarbonate and a phosphorus-containing flame retardant, and (ii) an organic solvent (i) a polycarbonate and a phosphorus-containing flame retardant, and (ii) an organic solvent with a second solution comprising (i) a surfactant and (ii) an aqueous solvent substantially immiscible with the organic solvent, under conditions of shear and temperature effective to provide an emulsion; and removing at least a portion of the organic solvent to provide an aqueous slurry comprising a plurality of particles comprising the polycarbonate and the phosphorus-containing flame retardant. (i) a surfactant and (ii) an aqueous solvent substantially immiscible with the organic solvent, under conditions of shear and temperature effective to provide an emulsion; and removing at least a portion of the organic solvent to provide an aqueous slurry comprising a plurality of particles comprising the polycarbonate and the phosphorus-containing flame retardant.
Ballistic protection element for protecting the torso and/or back of a person, said element : - having a rear face , intended to be disposed facing the body of said person, and an opposite front face , - and including, in the thickness thereof, a so-called first stack of a plurality of fibre-based layers , said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, having surface dimensions adapted for covering the torso or the back of said person, said element including a second stack of a plurality of fibre-based layers, said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, said second stack having surface dimensions that are smaller than the surface dimensions of said first stack , and being superimposed on said first stack at a central portion of said element , so as to form an extra thickness in said central portion , said element being characterised in that all of the layers of said first stack and of said second stack are connected to one other in a binder matrix, at least in said central portion . - having a rear face , intended to be disposed facing the body of said person, and an opposite front face , - and including, in the thickness thereof, a so-called first stack of a plurality of fibre-based layers , said fibres being chosen among the high- or ultra-high-molecular-weight polyethylene fibres and the aramid fibres, having surface dimensions adapted for covering the torso or the back of said person,
A method for communication by a second base station in a wireless communication system including a first base station and the second base station , the method comprising: receiving, from the first base station , a request message including a measurement result for one or more cells; determining a primary secondary cell, PScell, among the one or more cells based on the measurement result; and transmitting, to the first base station , a response message including configuration information of the PScell in response to the request message. receiving, from the first base station , a request message including a measurement result for one or more cells; determining a primary secondary cell, PScell, among the one or more cells based on the measurement result; and transmitting, to the first base station , a response message including configuration information of the PScell in response to the request message.
A method of manufacturing a component part of an end fitting for a sub-sea flexible pipe, the end fitting comprising an inner bore, the method comprising the steps of: via a wire and arc additive manufacturing process, providing a near net shape precursor corresponding to a component part of an end fitting layer-by-layer; wherein the near net shape precursor comprises a metallic base material provided layer-by-layer, and is provided with at least one region of a metallic further material integrally formed with the base material and provided layer-by-layer, said further material being different from the base material, and wherein a layer of the further material is provided at a location where a fluid communication passageway is provided in the component part; and subsequently performing at least one post near net shape processing operation on the near net shape precursor to provide the component part. via a wire and arc additive manufacturing process, providing a near net shape precursor corresponding to a component part of an end fitting layer-by-layer; wherein the near net shape precursor comprises a metallic base material provided layer-by-layer, and is provided with at least one region of a metallic further material integrally formed with the base material and provided layer-by-layer, said further material being different from the base material, and wherein a layer of the further material is provided at a location where a fluid communication passageway is provided in the component part; and subsequently performing at least one post near net shape processing operation on the near net shape precursor to provide the component part.
Use of one or more pearlescent pigments based on flake-form substrates for colouring wafers and edible paper.
Tank device for storing a gaseous medium, in particular hydrogen, having a valve device and a tank container , wherein the valve device has a valve housing , in which valve housing a pilot valve element which is movable along a longitudinal axis of the tank device is disposed, which pilot valve element for opening and closing a first passage opening interacts with a first seal seat and thus forms a pilot valve , wherein the valve device comprises a solenoid , by way of which solenoid the pilot valve element is movable along the longitudinal axis of the tank device , wherein disposed in the valve housing is a main valve element , which main valve element for opening and closing a second passage opening interacts with a second seal seat and thus forms a main valve , characterized in that the second seal seat is formed as a conical step on the valve housing , in that a permanent magnet is disposed on one end of the pilot valve element , which permanent magnet is disposed in the valve device in such a manner that a positive pole element of the permanent magnet is disposed in the direction of a housing cover of the valve device and a negative pole element of the permanent magnet is disposed in the direction of the tank container , wherein the permanent magnet is disposed in a positive pole region of a permanent magnetic field generated by the solenoid when the solenoid is energized, wherein the pilot valve element has a step , on which step is supported a spring , the latter applying a force to the pilot valve element in the direction of one end of the pilot valve element , wherein, when the solenoid is de-energized, a closing force acts on the pilot valve element and the main valve element via the spring , and wherein formed between the valve housing and a moulding of the main valve element , which moulding for opening and closing the second passage opening interacts with the second seal seat , is a throttle channel , which throttle channel , counter to the direction of the second seal seat , has a conical enlargement, a throttle effect being formed as a result.
An arrangement for providing ventilation from an electronics device comprising a component generating heat while performing its function and a cover , wherein the cover comprises one or more openings to allow ventilation from an inside environment inside of the device to an outside environment outside to the device , the arrangement comprising: - means for changing size of at least one of the openings ; and - a controller adapted to actuate the means to change size of at least one of the openings of the device characterized in that the cover encapsulates the component , and wherein the arrangement comprises a proximity sensor which is adapted to sense presence of an object in proximity to one or more of the openings , and which generates a proximity data , wherein the controller is adapted to receive and process the proximity data and to actuate the means for changing size of the one or more openings based on the proximity data . - means for changing size of at least one of the openings ; and - a controller adapted to actuate the means to change size of at least one of the openings of the device
An actuation device comprising an output shaft that is rotatable about a rotational axis ; a first gear train that connects a first actuator to the output shaft and transmits rotational output of the first actuator to the output shaft , the first gear train including a driver that is driven by the first actuator to rotate about the rotational axis and is configured to be fixed relative to the output shaft via a pin ; and a second gear train that connects a second actuator to a release mechanism and transmits rotational output of the second actuator to the release mechanism , wherein the release mechanism is moveable between a retracted position in which the pin is engaged with the output shaft such that the output shaft is fixed relative to the driver , and an advanced position in which the pin is disengaged from the output shaft and the output shaft is permitted to rotate relative to the driver , in some actuation device operating conditions, the output shaft is driven by the first actuator to rotate via the first gear train , and in other actuation device operating conditions, the release mechanism is driven by the second actuator to move from the retracted position to the advanced position, whereby the output shaft is disengaged from the first gear train , characterized in that the second gear train includes a second drive gear supported on a drive shaft of the second actuator , and a second driven gear that rotates about the rotational axis and is engaged with the second drive gear .
Household appliance with an appliance carcass , a door supported in a rotatable manner on the appliance carcass , a door actuator for driving the door in an opening and/or closing direction, an activatable appliance function component and an actuator controller for activating the door actuator , wherein the actuator controller is configured to monitor an activity status of the appliance function component , wherein the actuator controller is configured only to activate the door actuator to drive the door in the opening and/or closing direction when the activatable appliance function component is inactive in response to receipt of an activation signal to activate the door actuator , wherein an activity controller of the appliance function component is arranged on the door , which is a pushbutton or a touch-sensitive display screen, characterised in that a sensor is provided to detect actuation of the door in the form of a pushing of the door or a pulling of the door by a user, and configured to transmit the activation signal to activate the door actuator to the actuator controller on detection of the actuation.
A dual flow turbine engine , comprising: - a gas generator , - a nacelle which surrounds the gas generator, - arms for connecting the gas generator to the nacelle, - an annular duct for the flow of a primary flow, the duct being formed in the gas generator and being externally delimited by a first annular casing of the gas generator, - an annular duct for the flow of a secondary flow, the duct being formed between the gas generator and the nacelle and being delimited internally by a second annular casing of the gas generator and externally by a third annular casing surrounded by the nacelle, the second and third casings being connected together by at least some of said arms, - at least one lubricant tank located in an annular space extending between the first and second casings, - at least one hatch provided on an outer cowling of the nacelle, for filling said tank, characterised in that said tank is configured to be filled by means of a removable tubular pipe inserted from said hatch to the tank, said third casing comprising a first interface configured to be passed through by said pipe, and said second casing comprising a second interface for connecting the pipe to said tank. - a gas generator , - a nacelle which surrounds the gas generator, - arms for connecting the gas generator to the nacelle, - an annular duct for the flow of a primary flow, the duct being formed in the gas generator and being externally delimited by a first annular casing of the gas generator, - an annular duct for the flow of a secondary flow, the duct being formed between the gas generator and the nacelle and being delimited internally by a second annular casing of the gas generator and externally by a third annular casing surrounded by the nacelle, the second and third casings being connected together by at least some of said arms, - at least one lubricant tank located in an annular space extending between the first and second casings, - at least one hatch provided on an outer cowling of the nacelle, for filling said tank,
A fiber optic cable , having a core comprising an optical fiber and a jacket surrounding the core , wherein the jacket has an interior surface that faces the core and an exterior surface , wherein the jacket is formed primarily from a polymer material, wherein the jacket comprises: a discontinuity extending lengthwise along the cable and wholly embedded in the jacket , a tactile indicator extending lengthwise along the exterior of the jacket denoting the location of the wholly-embedded discontinuity of the jacket , wherein the discontinuity comprises a portion of the jacket of a different material composition than a main portion of the jacket , the main portion of the jacket being an annular hoop surrounding the core , whereby the discontinuity provides a line of weakness that allows the jacket to be separated to provide access to the core , wherein the main portion of the jacket is formed from a first material comprising at least 80% by weight of a first polymer, and wherein the discontinuity is formed from a second material comprising at least 70% by weight of a second polymer and at least 0.5% by weight of the first polymer, thereby increasing bonding between the discontinuity and the main portion of the jacket , and wherein the discontinuity is bonded to the main portion of the jacket such that the jacket comprises a cohesive composite polymer structure. a discontinuity extending lengthwise along the cable and wholly embedded in the jacket , a tactile indicator extending lengthwise along the exterior of the jacket denoting the location of the wholly-embedded discontinuity of the jacket , wherein the discontinuity comprises a portion of the jacket of a different material composition than a main portion of the jacket , the main portion of the jacket being an annular hoop surrounding the core , whereby the discontinuity provides a line of weakness that allows the jacket to be separated to provide access to the core , wherein the main portion of the jacket is formed from a first material comprising at least 80% by weight of a first polymer, and wherein the discontinuity is formed from a second material comprising at least 70% by weight of a second polymer and at least 0.5% by weight of the first polymer, thereby increasing bonding between the discontinuity and the main portion of the jacket , and wherein the discontinuity is bonded to the main portion of the jacket such that the jacket comprises a cohesive composite polymer structure.
A method, comprising: receiving, at an analog-to-digital converter , an input analog signal containing noise at a specific noise frequency; digitizing, by the analog-to-digital converter , the input analog signal to form a digitized signal; recovering, with a signal analysis block , a first amplitude and a first phase of the noise from the digitized signal; generating, with an analog signal generator , an analog correction signal at the specific noise frequency having a second amplitude equal to the first amplitude and a second phase opposite to the first phase; and summing, with a summation block , the input analog signal with the analog correction signal to generate an output analog signal. receiving, at an analog-to-digital converter , an input analog signal containing noise at a specific noise frequency; digitizing, by the analog-to-digital converter , the input analog signal to form a digitized signal; recovering, with a signal analysis block , a first amplitude and a first phase of the noise from the digitized signal; generating, with an analog signal generator , an analog correction signal at the specific noise frequency having a second amplitude equal to the first amplitude and a second phase opposite to the first phase; and summing, with a summation block , the input analog signal with the analog correction signal to generate an output analog signal.
A method for operating a rail-guided track maintenance machine involving the following steps: - Providing a rail-guided track maintenance machine on a track , wherein the track maintenance machine comprises: - at least one working unit , wherein the at least one working unit comprises a drive for a working tool and a drive for moving the track maintenance machine , - an energy provision unit , and - an energy storage , - Maintaining the track by means of the at least one working unit , - wherein the energy storage is charged when a maximum available power P MAX from the energy provision unit is greater than an input power P B of the at least one working unit , - wherein the energy storage is discharged when the maximum available power P MAX from the energy provision unit is less than the input power P B of the at least one working unit , and - wherein the maintenance work comprises at least two repeating working cycles (Z), where the energy storage is charged in a first cycle phase (z 1 ) of the respective working cycle (Z), and the energy storage is discharged in a second cycle phase (z 2 ) of the respective working cycle (Z). - Providing a rail-guided track maintenance machine on a track , wherein the track maintenance machine comprises: - at least one working unit , wherein the at least one working unit comprises a drive for a working tool and a drive for moving the track maintenance machine , - an energy provision unit , and - an energy storage , - at least one working unit , wherein the at least one working unit comprises a drive for a working tool and a drive for moving the track maintenance machine , - an energy provision unit , and - an energy storage , - Maintaining the track by means of the at least one working unit , - wherein the energy storage is charged when a maximum available power P MAX from the energy provision unit is greater than an input power P B of the at least one working unit , - wherein the energy storage is discharged when the maximum available power P MAX from the energy provision unit is less than the input power P B of the at least one working unit , and - wherein the maintenance work comprises at least two repeating working cycles (Z), where the energy storage is charged in a first cycle phase (z 1 ) of the respective working cycle (Z), and the energy storage is discharged in a second cycle phase (z 2 ) of the respective working cycle (Z). - wherein the energy storage is charged when a maximum available power P MAX from the energy provision unit is greater than an input power P B of the at least one working unit , - wherein the energy storage is discharged when the maximum available power P MAX from the energy provision unit is less than the input power P B of the at least one working unit , and - wherein the maintenance work comprises at least two repeating working cycles (Z), where the energy storage is charged in a first cycle phase (z 1 ) of the respective working cycle (Z), and the energy storage is discharged in a second cycle phase (z 2 ) of the respective working cycle (Z).
A method for producing a sulfide solid electrolyte material comprising the steps of: combining an alkali metal salt and a sulfide compound containing at least one of P, B, Al, As, Sb, Bi, Si, Ge, and Sn with a polar aprotic solvent to form a first solution; combining an alkali metal salt and a polar protonated solvent or ethanol to form a second solution; combining the first and second solutions to form a third solution; and drying the third solution to produce a sulfide solid electrolyte material; wherein the first solution has a molar ratio of Li 2 S:P 2 S 5 between 9:11 and 11:9. combining an alkali metal salt and a sulfide compound containing at least one of P, B, Al, As, Sb, Bi, Si, Ge, and Sn with a polar aprotic solvent to form a first solution; combining an alkali metal salt and a polar protonated solvent or ethanol to form a second solution; combining the first and second solutions to form a third solution; and drying the third solution to produce a sulfide solid electrolyte material; wherein the first solution has a molar ratio of Li 2 S:P 2 S 5 between 9:11 and 11:9.