mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating an exhaust gas recirculation pump for an internal combustion engine comprising: providing an EGR pump assembly including an electric motor coupled to a roots device having rotors , the EGR pump operably connected to an internal combustion engine ; providing an EGR control unit linked to the EGR pump assembly; providing sensors linked to the EGR control unit; determining if a motor speed is equal to a predetermined target in step S1 wherein when the motor speed is equal to the predetermined target then; determining if a motor torque is equal to a predetermined target in step S2 wherein when the motor torque is equal to the predetermined target then; determining if a motor temperature is equal to a predetermined target in step S3 wherein when the motor temperature is equal to the predetermined target then; maintaining operation of the exhaust gas recirculation pump. providing an EGR pump assembly including an electric motor coupled to a roots device having rotors , the EGR pump operably connected to an internal combustion engine ; providing an EGR control unit linked to the EGR pump assembly; providing sensors linked to the EGR control unit; determining if a motor speed is equal to a predetermined target in step S1 wherein when the motor speed is equal to the predetermined target then; determining if a motor torque is equal to a predetermined target in step S2 wherein when the motor torque is equal to the predetermined target then; determining if a motor temperature is equal to a predetermined target in step S3 wherein when the motor temperature is equal to the predetermined target then; maintaining operation of the exhaust gas recirculation pump.
A tire comprising: a tire frame member that is made of a resin and that has bead portions and side portions continuously extending on a tire radial-direction outer side of the respective bead portions; and a reinforcing layer that contains a cord member containing a nylon fiber material and an adhesive layer that is arranged on the cord member and formed from a resorcinol-formaldehyde resin-containing composition and a resin material coating the cord member and the adhesive layer, wherein the resin material does not encompass a vulcanized rubber. a tire frame member that is made of a resin and that has bead portions and side portions continuously extending on a tire radial-direction outer side of the respective bead portions; and a reinforcing layer that contains a cord member containing a nylon fiber material and an adhesive layer that is arranged on the cord member and formed from a resorcinol-formaldehyde resin-containing composition and a resin material coating the cord member and the adhesive layer, wherein the resin material does not encompass a vulcanized rubber.
A method comprising: supplying heat to an aircraft component during a first pulse , wherein the first pulse is configured to melt ice on the aircraft component ; and supplying heat to the aircraft component during a second pulse , wherein the second pulse is configured to prevent ice from forming on the aircraft component , wherein a length of time of the first pulse is greater than a length of time of the second pulse , and wherein said heat is supplied to said aircraft component through a pressure regulating valve connected in series with a shut off valve toggled by a solenoid during said first and second pulses; wherein the heat for the first pulse and the heat for the second pulse is supplied by a pneumatic deicing system; wherein the pressure regulating valve is inserted in the current upstream with respect to the shut off valve; characterized by comprising: detecting, by a full authority digital engine control system, that the pressure regulating valve is in a locked open position, and modulating, by the full authority digital engine control system, the shut off valve between an open and a closed position in response to the pressure regulating valve being in the locked open position. supplying heat to an aircraft component during a first pulse , wherein the first pulse is configured to melt ice on the aircraft component ; and supplying heat to the aircraft component during a second pulse , wherein the second pulse is configured to prevent ice from forming on the aircraft component , wherein a length of time of the first pulse is greater than a length of time of the second pulse , and wherein said heat is supplied to said aircraft component through a pressure regulating valve connected in series with a shut off valve toggled by a solenoid during said first and second pulses; wherein the heat for the first pulse and the heat for the second pulse is supplied by a pneumatic deicing system; wherein the pressure regulating valve is inserted in the current upstream with respect to the shut off valve; characterized by comprising: detecting, by a full authority digital engine control system, that the pressure regulating valve is in a locked open position, and modulating, by the full authority digital engine control system, the shut off valve between an open and a closed position in response to the pressure regulating valve being in the locked open position.
Removal device for removing gas bubbles and/or dirt particles from a liquid in a liquid conduit system, the removal device comprising: - a main channel for a main flow , the main channel having an entry and an exit which are configured to be connected to the conduit system, - a housing which defines an inner space , wherein the housing is arranged adjacent the main channel, - at least one supply channel extending from the main channel to the inner space, - at least one return channel extending from the inner space back to the main channel, - a branch flow control member positioned in the main channel, characterized in that the branch flow control member being movable between a first position in which the branch flow control member is constructed to branch off at least a part of the incoming main flow into the inner space via the supply channel, and a second position , in which the branch flow control member is constructed to branch off at least a part of the incoming main flow into the inner space via the supply channel, wherein in the first position the branch flow control member is constructed to branch off a larger part of the incoming main flow into the inner space via the supply channel than in the second position. - a main channel for a main flow , the main channel having an entry and an exit which are configured to be connected to the conduit system, - a housing which defines an inner space , wherein the housing is arranged adjacent the main channel, - at least one supply channel extending from the main channel to the inner space, - at least one return channel extending from the inner space back to the main channel, - a branch flow control member positioned in the main channel,
A polymeric composition comprising: (i) a polythiol compound; (ii) an isocyanate compound; and (iii) an acid component comprising a carboxylic acid, phosphoric acid, or a mixture thereof; wherein the polymeric composition comprises the acid component in an amount of 0.1 to 1 part by weight with respect to 100 parts by weight as the sum of the polythiol compound and the isocyanate compound; and wherein the carboxylic acid is one or more selected from the group consisting of oleic acid, oxalic acid, palmitoleic acid, linoleic acid, propanedioic acid, and butanedioic acid. (i) a polythiol compound; (ii) an isocyanate compound; and (iii) an acid component comprising a carboxylic acid, phosphoric acid, or a mixture thereof; wherein the polymeric composition comprises the acid component in an amount of 0.1 to 1 part by weight with respect to 100 parts by weight as the sum of the polythiol compound and the isocyanate compound; and wherein the carboxylic acid is one or more selected from the group consisting of oleic acid, oxalic acid, palmitoleic acid, linoleic acid, propanedioic acid, and butanedioic acid.
A composition comprising 46±4.6 to 49±4.9 weight percent (E)-1,2,3,3,3-pentafluoro-1-propene, 2±0.2 to 6±0.6 weight percent R-32, 45±4.5 to 48±4.8 weight percent HFO-1234yf, and 1±0.1 to 3±0.3 weight percent CO 2 or 43±4.3 to 47±4.7 weight percent (E)-1,2,3,3,3-pentafluoro-1-propene, 4±0.4 to 10±1 weight percent R-32, 42±4.2 to 47±4.7 weight percent HFO-1234yf, 1±0.1 to 4±0.4 weight percent R-125, and 1±0.1 to 2±0.2 weight percent CO 2 . 46±4.6 to 49±4.9 weight percent (E)-1,2,3,3,3-pentafluoro-1-propene, 2±0.2 to 6±0.6 weight percent R-32, 45±4.5 to 48±4.8 weight percent HFO-1234yf, and 1±0.1 to 3±0.3 weight percent CO 2 or 43±4.3 to 47±4.7 weight percent (E)-1,2,3,3,3-pentafluoro-1-propene, 4±0.4 to 10±1 weight percent R-32, 42±4.2 to 47±4.7 weight percent HFO-1234yf, 1±0.1 to 4±0.4 weight percent R-125, and 1±0.1 to 2±0.2 weight percent CO 2 .
A method for mapping wireless access points to a building floor, the method comprising: identifying a switch that is communicatively coupled to one or more wireless access points by a wired connection; generating a radio frequency cluster based on the one or more access points using receiver messages and transmission messages between respective neighboring access points , the radio frequency cluster comprising a group of access points within a broadcast range of each other; determining pairwise distances between one or more pairs of access points of the radio frequency cluster based on a path loss model; determining wired distances of each access point from the switch based on a wire length calculated by a message travel time over the wired connection from the wireless access point to the switch ; identifying respective locations of each access point relative to each other and the identified switch based on the wired distances, the pairwise distances, and respective trilateration information based on received signal strength indicators for each access point , the trilateration information generated by one or more deployed sensors ; and overlaying the identified respective locations on a floor plan map . identifying a switch that is communicatively coupled to one or more wireless access points by a wired connection; generating a radio frequency cluster based on the one or more access points using receiver messages and transmission messages between respective neighboring access points , the radio frequency cluster comprising a group of access points within a broadcast range of each other; determining pairwise distances between one or more pairs of access points of the radio frequency cluster based on a path loss model; determining wired distances of each access point from the switch based on a wire length calculated by a message travel time over the wired connection from the wireless access point to the switch ; identifying respective locations of each access point relative to each other and the identified switch based on the wired distances, the pairwise distances, and respective trilateration information based on received signal strength indicators for each access point , the trilateration information generated by one or more deployed sensors ; and overlaying the identified respective locations on a floor plan map .
Method for transmitting payload data (100-m) to a receiver via a communication channel within a time interval (T), having the following steps: generating a plurality of channel-coded data packets (200-n) from the payload data (100-m), wherein each of the channel-coded data packets (200-n) is provided with packet core data (210-n) in accordance with the packet identifier of the respective channel-coded data packet, wherein redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, in particular information relating to the cyclic redundancy check, CRC, and/or values derived therefrom, in particular values derived from information relating to the cyclic redundancy check, CRC, is used as the packet identifier or as part of the packet identifier in the packet core data (210-n), and the redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, is transmitted in at least two parts of the data packet (220-n), in particular in two non-adjacent parts, these two parts of the data packet (220-n) having been coded using the same code rate for the channel coding. generating a plurality of channel-coded data packets (200-n) from the payload data (100-m), wherein each of the channel-coded data packets (200-n) is provided with packet core data (210-n) in accordance with the packet identifier of the respective channel-coded data packet, wherein redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, in particular information relating to the cyclic redundancy check, CRC, and/or values derived therefrom, in particular values derived from information relating to the cyclic redundancy check, CRC, is used as the packet identifier or as part of the packet identifier in the packet core data (210-n), and the redundancy information (102-n) of the payload data (100-m), in particular information relating to the error recognition, is transmitted in at least two parts of the data packet (220-n), in particular in two non-adjacent parts, these two parts of the data packet (220-n) having been coded using the same code rate for the channel coding.
A sublingual spray formulation comprising: a. from 5% w/w to 35% w/w sildenafil or a salt thereof; b. from 0.1% w/w to 60% w/w of at least one pharmacologically acceptable polar solvent selected from the group consisting of purified water, ethanol, and polyethylene glycol 400; c. an excipient selected from 0.1% w/w to 50% w/w glycerol, from 0.1% w/w to 50% w/w propylene glycol and a combination thereof; d. from 0.1% w/w to 60% w/w of at least one acid selected from the group consisting of an inorganic acid and an organic acid, and e. a permeation enhancer comprising caprylic acid, wherein % w/w is of the total formulation. a. from 5% w/w to 35% w/w sildenafil or a salt thereof; b. from 0.1% w/w to 60% w/w of at least one pharmacologically acceptable polar solvent selected from the group consisting of purified water, ethanol, and polyethylene glycol 400; c. an excipient selected from 0.1% w/w to 50% w/w glycerol, from 0.1% w/w to 50% w/w propylene glycol and a combination thereof; d. from 0.1% w/w to 60% w/w of at least one acid selected from the group consisting of an inorganic acid and an organic acid, and e. a permeation enhancer comprising caprylic acid,
Electromechanical actuator for transmitting a mechanical movement from a first region into a second region, the first and the second region being galvanically separated from each other and the actuator comprising: an electrically insulating rod with a body , a first actuation portion for being connected to an electromechanical drive mechanism which is arranged in said first region, and a second actuation portion for actuating an electromechanical actuation mechanism which is arranged in said second region; an electrically insulating cover that at least partly encompasses said electrically insulating rod ; an elastomeric diaphragm unit , which is arranged between said electrically insulating body and said cover and has at least one flexible membrane (122; 250, 252) for electrically separating said first and second region, the membrane having a first surface in the first region and a second surface in the second region, characterized in that said diaphragm unit is coated with a semiconductive layer on the two surfaces of the membrane (122; 250, 252). an electrically insulating rod with a body , a first actuation portion for being connected to an electromechanical drive mechanism which is arranged in said first region, and a second actuation portion for actuating an electromechanical actuation mechanism which is arranged in said second region; an electrically insulating cover that at least partly encompasses said electrically insulating rod ; an elastomeric diaphragm unit , which is arranged between said electrically insulating body and said cover and has at least one flexible membrane (122; 250, 252) for electrically separating said first and second region, the membrane having a first surface in the first region and a second surface in the second region, characterized in that said diaphragm unit is coated with a semiconductive layer on the two surfaces of the membrane (122; 250, 252).
A fryer comprising: a fry pot ; a heating element ; a temperature sensor ; and a controller that controls operation of the fryer and is configured to: control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor ; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element . a fry pot ; a heating element ; a temperature sensor ; and a controller that controls operation of the fryer and is configured to: control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor ; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element . control a temperature of a cooking medium in the fry pot using a first temperature set-point during a cooking cycle and using readings from the temperature sensor ; determine if a filtration cycle is scheduled to follow the cooking cycle; and in response to determining the filtration cycle is scheduled to follow the cooking cycle, control the temperature of the cooking medium in the fry pot during at least a portion of the cooking cycle using a second temperature set-point that is higher than the first temperature set-point, the control of the temperature of the cooking medium being performed using the heating element .
A developing cartridge attachable to an image forming apparatus comprising an electrical connector and a photosensitive drum , the developing cartridge comprising: a housing configured to accommodate a developing agent, the housing being pivotable about a pivot between a first position and a second position with respect to the image forming apparatus in a state where the developing cartridge is attached to the image forming apparatus; a developing roller rotatable about a first axis extending in a first direction, the developing roller being positioned at one end portion of the housing in a second direction; and a storage medium including an electric contact surface , and wherein the electric contact surface is out of contact with the electric connector of the image forming apparatus in a state where the housing is at the first position and in contact with the electric connector of the image forming apparatus in a state where the housing is at the second position, and characterized by the pivot being the developing roller , and further comprising a lever swingable together with the electric contact surface between a third position and a fourth position about a second axis extending in the first direction, the lever being positioned at the third position in a state where the housing is at the first position, the lever being positioned at the fourth position in a state where the housing is at the second position. a housing configured to accommodate a developing agent, the housing being pivotable about a pivot between a first position and a second position with respect to the image forming apparatus in a state where the developing cartridge is attached to the image forming apparatus; a developing roller rotatable about a first axis extending in a first direction, the developing roller being positioned at one end portion of the housing in a second direction; and a storage medium including an electric contact surface , and wherein the electric contact surface is out of contact with the electric connector of the image forming apparatus in a state where the housing is at the first position and in contact with the electric connector of the image forming apparatus in a state where the housing is at the second position, and characterized by the pivot being the developing roller , and further comprising a lever swingable together with the electric contact surface between a third position and a fourth position about a second axis extending in the first direction, the lever being positioned at the third position in a state where the housing is at the first position, the lever being positioned at the fourth position in a state where the housing is at the second position.
Method for continuous aeraulic separation of particulate materials consisting of a mixture of particles that is heterogeneous in both particle size and density, characterised in that it comprises the following steps: (a) grinding particles of materials, (b) generating a gas stream conveying the ground particles, (c) first aeraulic separation on said gas stream in a first aeraulic separation unit in order to separate the particles it contains into a first fraction consisting of the coarsest particles with variable densities, and a second fraction consisting of the finest particles, (d) second aeraulic separation on said first fraction in a second aeraulic separation unit in order to separate the particles it contains into a third fraction consisting of the coarsest and/or densest particles and a fourth fraction consisting of the least coarse and/or the least dense particles, (e) reinjecting the third fraction or the fourth fraction at the inlet of the grinding, and (f) simultaneous recovery of the second fraction as well as the fourth fraction or the third fraction, respectively, as output products. (a) grinding particles of materials, (b) generating a gas stream conveying the ground particles, (c) first aeraulic separation on said gas stream in a first aeraulic separation unit in order to separate the particles it contains into a first fraction consisting of the coarsest particles with variable densities, and a second fraction consisting of the finest particles, (d) second aeraulic separation on said first fraction in a second aeraulic separation unit in order to separate the particles it contains into a third fraction consisting of the coarsest and/or densest particles and a fourth fraction consisting of the least coarse and/or the least dense particles, (e) reinjecting the third fraction or the fourth fraction at the inlet of the grinding, and (f) simultaneous recovery of the second fraction as well as the fourth fraction or the third fraction, respectively, as output products.
Device for inspecting containers , comprising at least one inspection module for inspecting containers , at least one feeder for the containers to be inspected, at least one first wheel for withdrawal and further conveyance of the containers fed by the feeder , at least one further wheel for feeding the containers to the inspection module , wherein the first wheel feeds containers to the further wheel , characterized in that at least one controller is provided to control the transfer of at least one container from the first wheel to the further wheel at a transfer point in such a way that in the case of a container having to be re-inspected a transfer of a container from the first wheel to the further wheel is omitted at least once.