mhurhangee/ep-ind-claims huggingface dataset:
A synthetic gas production system from high heating value wastes, comprising a primary waste treatment stage, said primary waste treatment stage receiving the high heating value wastes and producing a by-product off-gas; a secondary waste treatment stage coupled to said primary waste treatment stage and receiving said by-product off-gas, said secondary waste treatment stage including: a refractory-lined cylindrical chamber having an input port for tangentially receiving said by-product off-gas and an output port; and a DC powered plasma torch proximate the input port within said chamber, said torch receiving a nitrogen-free working gas including a mixture of carbon dioxide and oxygen, wherein said plasma torch heats said chamber and said by-product off-gas is converted into a synthetic gas, which is ejected through said output port; an oxygen injector and a steam injector in communication with said refractory-lined cylindrical chamber for atomized oxygen and atomized steam injections; temperature sensors (27, 28, 29) in said refractory-lined cylindrical chamber for measuring a temperature of said refractory-lined cylindrical chamber and a gas-monitoring sensor for analyzing the composition of said by-product off-gas; and a process controller coupled to said sensors for receiving data from said sensors and coupled to said injectors for controlling the injection of oxygen and steam. a refractory-lined cylindrical chamber having an input port for tangentially receiving said by-product off-gas and an output port; and a DC powered plasma torch proximate the input port within said chamber, said torch receiving a nitrogen-free working gas including a mixture of carbon dioxide and oxygen, wherein said plasma torch heats said chamber and said by-product off-gas is converted into a synthetic gas, which is ejected through said output port; an oxygen injector and a steam injector in communication with said refractory-lined cylindrical chamber for atomized oxygen and atomized steam injections; temperature sensors (27, 28, 29) in said refractory-lined cylindrical chamber for measuring a temperature of said refractory-lined cylindrical chamber and a gas-monitoring sensor for analyzing the composition of said by-product off-gas; and a process controller coupled to said sensors for receiving data from said sensors and coupled to said injectors for controlling the injection of oxygen and steam.
Electric shaver and/or trimmer, comprising a cutter system having a pair of cooperating cutting elements (4, 5) with two rows of comb-like cutting teeth (6, 7) at opposite edges thereof and a skin contact surface or skin facing surface of said cutting elements (4, 5), wherein said cutting elements (4, 5) are movably supported relative to each other by a support structure which provides for a pivot axis about which said cooperating cutting elements are pivotable to follow the skin contour, said pivot axis extending substantially parallel to a longitudinal direction of said rows of comb-like cutting teeth (6, 7), wherein said support structure includes a rigid pivot axis holder having a mounting portion for fixedly attaching the pivot axis holder to a handle or chassis portion of the shaver/trimmer, characterized in that said pivot axis holder includes a U-shaped or V-shaped holding frame element made from metal and further comprising a biasing device for biasing said cutting elements (4, 5) about said pivot axis towards an end of a limited pivot range.
A case for a gas turbine engine, comprising: a core body, including: a longitudinally extending core flow path; a laterally extending bleed air duct coupling the core flow path in fluid communication with the external environment, the bleed air duct defined by a forward core case segment and an aft core case segment; a structural member (106,206) spanning the bleed air duct, coupling the forward core case segment (102,202) to the aft core case segment (104,204); and an electric heating element connected to the core body and in thermal communication with the structural member, characterised in that the structural member defines a structural member bore, wherein the heating element is seated in the bore. a core body, including: a longitudinally extending core flow path; a laterally extending bleed air duct coupling the core flow path in fluid communication with the external environment, the bleed air duct defined by a forward core case segment and an aft core case segment; a structural member (106,206) spanning the bleed air duct, coupling the forward core case segment (102,202) to the aft core case segment (104,204); and a longitudinally extending core flow path; a laterally extending bleed air duct coupling the core flow path in fluid communication with the external environment, the bleed air duct defined by a forward core case segment and an aft core case segment; a structural member (106,206) spanning the bleed air duct, coupling the forward core case segment (102,202) to the aft core case segment (104,204); and an electric heating element connected to the core body and in thermal communication with the structural member, characterised in that the structural member defines a structural member bore, wherein the heating element is seated in the bore.
An electronic control circuit comprising: a micro controller; and a vehicle control unit communicating with the micro controller, wherein the micro controller, in response to a vehicle load condition signal supplied by the vehicle control unit generates a pause air compressor charging signal, characterised by a first pressure sensor interface coupled to the micro controller; a second pressure sensor interface coupled to the micro controller; and a vehicle control protocol interface coupled to the micro controller, wherein the micro controller, in response to a signal received from the first pressure sensor interface indicative of an air supply recharge condition, a signal received from the second pressure sensor interface indicative of parking brake engagement condition, and a signal from the vehicle control protocol interface indicative of an engine start condition, generates a maximum engine speed control signal. a micro controller; and a vehicle control unit communicating with the micro controller, wherein the micro controller, in response to a vehicle load condition signal supplied by the vehicle control unit generates a pause air compressor charging signal, characterised by a first pressure sensor interface coupled to the micro controller; a second pressure sensor interface coupled to the micro controller; and a vehicle control protocol interface coupled to the micro controller, wherein the micro controller, in response to a signal received from the first pressure sensor interface indicative of an air supply recharge condition, a signal received from the second pressure sensor interface indicative of parking brake engagement condition, and a signal from the vehicle control protocol interface indicative of an engine start condition, generates a maximum engine speed control signal.
A universal drill guide system comprising: a universal drill guide; a drill tube insertable at least partly into the universal drill guide; and a drill bit insertable into the drill tube, wherein the universal drill guide comprises a drill stop configured to abut on a stop surface of the drill bit to limit a drilling depth of the drill bit, and a locking ring rotatable between a locking orientation, in which the drill tube inserted into the universal drill guide is locked by the locking ring, and a release orientation, in which the drill tube is releasable from the locking ring, characterized by a camming mechanism configured to pivot the drill stop away from the stop surface of the drill bit as the locking ring is rotated into the release orientation. a universal drill guide; a drill tube insertable at least partly into the universal drill guide; and a drill bit insertable into the drill tube, wherein the universal drill guide comprises a drill stop configured to abut on a stop surface of the drill bit to limit a drilling depth of the drill bit, and a locking ring rotatable between a locking orientation, in which the drill tube inserted into the universal drill guide is locked by the locking ring, and a release orientation, in which the drill tube is releasable from the locking ring, characterized by a camming mechanism configured to pivot the drill stop away from the stop surface of the drill bit as the locking ring is rotated into the release orientation.
A disposable cartridge for Asymmetrical Flow Field-Flow Fractionation comprising: - a top layer - a membrane - a spacer between the top layer and the membrane, the spacer comprising bonding holes, characterized in that the disposable cartridge comprises a glue in said bonding holes, so as to directly bond said membrane with said top layer, thereby fixing the spacer in between. - a top layer - a membrane - a spacer between the top layer and the membrane, the spacer comprising bonding holes, characterized in that the disposable cartridge comprises a glue in said bonding holes, so as to directly bond said membrane with said top layer, thereby fixing the spacer in between.
A method implemented by a network node that is configured to communicate with a wireless device, the method comprising: configuring a first measurement resource for channel measurements; configuring a second measurement resource for interference measurements; causing transmission of a first signal with a first predefined power level in a transmission occasion of the first measurement resource; and causing transmission of a second signal with a second predefined power level in a transmission occasion of the second measurement resource, at least one of the first predefined power level and the second predefined power level is configured to at least in part mitigate channel quality indication, CQI, saturation, wherein the at least in part mitigating of CQI saturation corresponds to causing a reportable CQI to change from saturated CQI to non-saturated CQI by changing a signal to interference plus noise ratio, SINR, observed by the wireless device and mapped to the reportable CQI, wherein the reportable CQI is saturated when it corresponds to a highest reportable CQI value. configuring a first measurement resource for channel measurements; configuring a second measurement resource for interference measurements; causing transmission of a first signal with a first predefined power level in a transmission occasion of the first measurement resource; and causing transmission of a second signal with a second predefined power level in a transmission occasion of the second measurement resource, at least one of the first predefined power level and the second predefined power level is configured to at least in part mitigate channel quality indication, CQI, saturation, wherein the at least in part mitigating of CQI saturation corresponds to causing a reportable CQI to change from saturated CQI to non-saturated CQI by changing a signal to interference plus noise ratio, SINR, observed by the wireless device and mapped to the reportable CQI, wherein the reportable CQI is saturated when it corresponds to a highest reportable CQI value.
A solvothermal method of making nanocrystals comprising dissolving or mixing at least one precursor of said nanocrystals in one solvent to produce a solution, heating said solution to a temperature in the range of 250°C to 350°C and maintaining the solution at a set temperature for a length of time ranging from 20 minutes to 24 hours to react said at least one precursor and said one solvent of said solution and thus form said nanocrystals, wherein said one solvent is water and benzyl alcohol, and said nanocrystals consist of hafnium oxide or zirconium oxide.
Tire comprising at least one layer comprising a composition based on a diene elastomer and on a crosslinking system comprising a peroxide, said composition further comprising at least 5 parts by weight per hundred parts by weight of elastomer, phr, of an unsaturated carboxylic acid and/or a salt thereof, and a metal oxide, the unsaturated carboxylic acid being sorbic acid.
An elevator car wall panel system (300, 400, 500), comprising: an elevator car frame (306, 406, 506); at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) pivotally connected to the frame (306, 406, 506) at a respective pivot (312a, 312b, 312c, 412a, 412b, 412c, 512a, 512b); a connecting element (314, 414, 514) operably connecting the at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b); and an actuation element (316, 516) operably connected to the connecting element (314, 414, 514), wherein the actuation element (316, 516) is operable to transition the at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) from a closed state to an open state, characterized in that each wall panel (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) is pivotally connected to the connecting element (314, 414, 514) by a respective connector (318a, 318b, 318c, 418a, 418b, 418c, 518a, 518b). an elevator car frame (306, 406, 506); at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) pivotally connected to the frame (306, 406, 506) at a respective pivot (312a, 312b, 312c, 412a, 412b, 412c, 512a, 512b); a connecting element (314, 414, 514) operably connecting the at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b); and an actuation element (316, 516) operably connected to the connecting element (314, 414, 514), wherein the actuation element (316, 516) is operable to transition the at least two wall panels (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) from a closed state to an open state, characterized in that each wall panel (308a, 308b, 308c, 408a, 408b, 408c, 508a, 508b) is pivotally connected to the connecting element (314, 414, 514) by a respective connector (318a, 318b, 318c, 418a, 418b, 418c, 518a, 518b).
A device to motivate an animal to leave a milking stall, wherein the device comprises a first unit configured to motivate an animal to leave the milking stall by means of at least a first motivation means, wherein the device comprises at least a second unit configured to motivate an animal to leave the milking stall by means of a second motivation means which is of a different type than the first motivation means, and a control unit configured to activate at least one of said units such that an animal in the milking stall will be motivated to leave the milking stall by means of the first motivation means and/or the second motivation means when it is time for the animal to leave the milking stall, wherein the first and second motivation means are configured to be positioned inside the milking stall, wherein - either the control unit is configured to activate at least one of the units by means of a random number generator, - or the control unit is configured to activate said units in a predetermined order in the milking stall regardless of which animal entering the milking stall, - or the device comprises a memory configured to store data of individual animals milked in the milking stall, the control unit being configured to receive information from an identifying sensor about the identity of an animal in the milking stall and activate at least one of the units by means of stored data of this individual animal in the memory of the device, and wherein the device further comprises a detection member configured to detect when an animal leaves the milking stall, wherein the control unit is configured to activate at least one of the units with a predetermined time delay after the earliest time when the animal has the opportunity to leave the milking stall after a milking process and if the detection member detects that the animal has left the milking stall within said predetermined time delay, the control unit is configured to prevent the activation of the unit, wherein the control unit is also configured to have the option not to activate any of the units when it is time for an animal to leave the milking stall. - either the control unit is configured to activate at least one of the units by means of a random number generator, - or the control unit is configured to activate said units in a predetermined order in the milking stall regardless of which animal entering the milking stall, - or the device comprises a memory configured to store data of individual animals milked in the milking stall, the control unit being configured to receive information from an identifying sensor about the identity of an animal in the milking stall and activate at least one of the units by means of stored data of this individual animal in the memory of the device,
An optical device forming an outgoing electromagnetic wave from an incident electromagnetic wave, wherein the optical device comprises at least one unit cell (UC; UC1, UC2), said unit cell comprising: - at least two subwavelength optical elements (1, 2,..., N), each of them belonging to a different set (MS1, MS2,..., MS n) of subwavelength optical elements, a set of subwavelength optical elements being characterized by a type of optical response to an incident electromagnetic wave; and - a nanojet microlens enabling selective excitation of the subwavelength optical elements belonging to a given set, in response to said electromagnetic wave incident on said unit cell; said subwavelength optical elements being in a focal plane of said nanojet microlens. said unit cell comprising: - at least two subwavelength optical elements (1, 2,..., N), each of them belonging to a different set (MS1, MS2,..., MS n) of subwavelength optical elements, a set of subwavelength optical elements being characterized by a type of optical response to an incident electromagnetic wave; and - a nanojet microlens enabling selective excitation of the subwavelength optical elements belonging to a given set, in response to said electromagnetic wave incident on said unit cell; - at least two subwavelength optical elements (1, 2,..., N), each of them belonging to a different set (MS1, MS2,..., MS n) of subwavelength optical elements, a set of subwavelength optical elements being characterized by a type of optical response to an incident electromagnetic wave; and - a nanojet microlens enabling selective excitation of the subwavelength optical elements belonging to a given set, in response to said electromagnetic wave incident on said unit cell; said subwavelength optical elements being in a focal plane of said nanojet microlens.
A light emitting device, comprising: a first hole transporting layer comprising a polymerized chiral nematic liquid crystal material that is doped with a p-dopant; a second hole transporting layer comprising a polymerized chiral nematic liquid crystal material; a light emitting layer comprising a polymerized chiral nematic liquid crystalline material; a first electron transporting layer comprising a polymerized chiral nematic liquid crystal material; and a second electron transporting layer comprising a polymerized chiral nematic liquid crystal material that is doped with a n-dopant, wherein all of the layers comprising polymerized chiral liquid crystal combine together to form a single light emitting photonic crystal, and wherein said light emitting layers further comprise electroluminescent material that emits light into the band edge light propagation modes of said photonic crystal. a first hole transporting layer comprising a polymerized chiral nematic liquid crystal material that is doped with a p-dopant; a second hole transporting layer comprising a polymerized chiral nematic liquid crystal material; a light emitting layer comprising a polymerized chiral nematic liquid crystalline material; a first electron transporting layer comprising a polymerized chiral nematic liquid crystal material; and a second electron transporting layer comprising a polymerized chiral nematic liquid crystal material that is doped with a n-dopant, wherein all of the layers comprising polymerized chiral liquid crystal combine together to form a single light emitting photonic crystal, and wherein said light emitting layers further comprise electroluminescent material that emits light into the band edge light propagation modes of said photonic crystal.
A computer-implemented method executed by a processor of a management facility to detect operational deviations by an air cycle machine of an aircraft from expected operations, wherein a detection device of the aircraft is incorporated in the air cycle machine and the management facility is connected to the detection device, wherein the detection device comprises an accelerometer coupled to a transceiver that communicates a sampled input to the processor of the management facility, comprising: initiating, by the management facility to the detection device, a request for the sampled input in response to a request event; operating the detection device in sleep mode until the request is received from the management facility; sensing, by the accelerometer of the detection device, a plurality of environmental conditions of the air cycle machine while the detection device is in the sleep mode; receiving, by the management facility from the detection device, a sampled input, the sampled input being a result of the detection device sensing the plurality of environmental conditions; processing, by the management facility, the sampled input to detect whether the plurality of environmental conditions includes a deviation from the expected operations, wherein the deviation is a surge vibration by the air cycle machine; and generating a notification output and causing the air cycle machine to operate at a reduced rate, by the control unit, in response to the plurality of environmental conditions including the deviation from the expected operations of the air cycle machine. initiating, by the management facility to the detection device, a request for the sampled input in response to a request event; operating the detection device in sleep mode until the request is received from the management facility; sensing, by the accelerometer of the detection device, a plurality of environmental conditions of the air cycle machine while the detection device is in the sleep mode; receiving, by the management facility from the detection device, a sampled input, the sampled input being a result of the detection device sensing the plurality of environmental conditions; processing, by the management facility, the sampled input to detect whether the plurality of environmental conditions includes a deviation from the expected operations, wherein the deviation is a surge vibration by the air cycle machine; and generating a notification output and causing the air cycle machine to operate at a reduced rate, by the control unit, in response to the plurality of environmental conditions including the deviation from the expected operations of the air cycle machine.