mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for a combined reduction of carbon dioxide and water content in a delimited air volume, in particular in a passenger compartment of a motor vehicle, having a first sorption unit for combined sorption of carbon dioxide and water, a second sorption unit for a combined sorption of carbon dioxide and water, wherein the first sorption unit and the second sorption unit each contain a plurality of sorbents (8, 9), wherein the sorption units (6, 7) are each convertible from a sorption mode, in which the sorption units (6, 7) sorb carbon dioxide and water from raw air of the delimited air volume, to a desorption mode, in which the sorption units (6, 7) desorb carbon dioxide and water to supplied regeneration air, and vice versa, and an air distribution device, with the aid of which the sorption units (6, 7), depending on the carbon dioxide and water content in the delimited air volume, can be switched alternately from the sorption mode to the desorption mode and vice versa in such a way that in at least one operating state of the apparatus, one of the two sorption units (6, 7) is in the sorption mode, while the other of the two sorption units (6, 7) is in the desorption mode, wherein in the desorption mode the regeneration air conveyed through the sorption unit (6, 7), which is in the desorption mode, can be supplied as charged regeneration air to an environment, in particular via a desorption line, and wherein the regeneration air is extractable from the delimited air volume or the environment, further comprising a heating element (11, 11A, 11B, 13, 13A, 13B, 74, 75) for introducing heat into that sorption unit (6, 7) which is in the desorption mode, wherein the heating element (74, 75) is positioned upstream of the sorption units (6, 7) and introduces heat into the uncharged regeneration air.
A device (1; 31; 71; 101; 107; 109) for starting a combustion engine (9; 37; 79), comprising: - an output (3; 33) which is coupled to a crankshaft (7; 35; 77) of a combustion engine when the device collaborates with the combustion engine, - a first auxiliary drive source (11; 39; 81) which is coupled to the output via a node (13; 41; 83) and where a first branch (15; 43; 85) of a drive line is present between the first auxiliary drive source and the node and a second branch (17; 45; 87) of the drive line is present between the node and the output, - a second auxiliary drive source (19; 47; 89) which is coupled to the output via the node and where a third branch (21; 49; 91) is present between the second auxiliary drive source and the node, and - a first clutch (23; 59; 93) which is present in the first branch of the drive line, the device further including a second clutch (25; 53; 95) which is present in the third branch (21; 49; 9) and can couple the two auxiliary drive sources (11; 19; 39; 47; 81; 89) to each other, wherein the first auxiliary drive source (11; 39; 81) is formed by an electromotor and the second auxiliary drive source (19; 47; 89) is formed by a flywheel characterized in that the device comprises a third clutch (51; 99) which is arranged as a further freewheel bearing or a further centrifugal decoupling and which is present in the second branch. - an output (3; 33) which is coupled to a crankshaft (7; 35; 77) of a combustion engine when the device collaborates with the combustion engine, - a first auxiliary drive source (11; 39; 81) which is coupled to the output via a node (13; 41; 83) and where a first branch (15; 43; 85) of a drive line is present between the first auxiliary drive source and the node and a second branch (17; 45; 87) of the drive line is present between the node and the output, - a second auxiliary drive source (19; 47; 89) which is coupled to the output via the node and where a third branch (21; 49; 91) is present between the second auxiliary drive source and the node, and - a first clutch (23; 59; 93) which is present in the first branch of the drive line, the device further including a second clutch (25; 53; 95) which is present in the third branch (21; 49; 9) and can couple the two auxiliary drive sources (11; 19; 39; 47; 81; 89) to each other, wherein the first auxiliary drive source (11; 39; 81) is formed by an electromotor and the second auxiliary drive source (19; 47; 89) is formed by a flywheel characterized in that the device comprises a third clutch (51; 99) which is arranged as a further freewheel bearing or a further centrifugal decoupling and which is present in the second branch.
Lavatory door system for a vehicle, in particular an aircraft, comprising: a lavatory door; a vacuum toilet system; a pneumatic actuator configured to open and close the lavatory door based on a differential pressure, wherein the pneumatic actuator is configured to be coupled to the vacuum toilet system to generate the differential pressure; and an operating interface configured to receive a user control operation and to selectively release the differential pressure from the vacuum toilet system for operation of the pneumatic actuator based on the received user control operation. a lavatory door; a vacuum toilet system; a pneumatic actuator configured to open and close the lavatory door based on a differential pressure, wherein the pneumatic actuator is configured to be coupled to the vacuum toilet system to generate the differential pressure; and an operating interface configured to receive a user control operation and to selectively release the differential pressure from the vacuum toilet system for operation of the pneumatic actuator based on the received user control operation.
An earmuff hearing protective device, comprising: a) a headpiece; b) a pair of earmuffs affixed to the headpiece, each earmuff comprising: i. a generally cup-shaped, substantially rigid shell (20a, 20b) having a head-facing rim; ii. a head-engaging, ear-encircling cushion (24a, 24b) affixed to the rim; iii. a sound absorber inside the shell (20a, 20b), the device characterized in that the sound absorber has a moisture-resistant integral skin (38, 42) substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin (38, 42). a) a headpiece; b) a pair of earmuffs affixed to the headpiece, each earmuff comprising: i. a generally cup-shaped, substantially rigid shell (20a, 20b) having a head-facing rim; ii. a head-engaging, ear-encircling cushion (24a, 24b) affixed to the rim; iii. a sound absorber inside the shell (20a, 20b), the device characterized in that the sound absorber has a moisture-resistant integral skin (38, 42) substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin (38, 42). i. a generally cup-shaped, substantially rigid shell (20a, 20b) having a head-facing rim; ii. a head-engaging, ear-encircling cushion (24a, 24b) affixed to the rim; iii. a sound absorber inside the shell (20a, 20b), the device characterized in that the sound absorber has a moisture-resistant integral skin (38, 42) substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin (38, 42).
A switched-capacitor circuit, comprising: a differential operational amplifier (206, 306); at least one input capacitor having an input terminal coupled to an input of the switched-capacitor circuit via a first switch configured to couple an input voltage (Vi+, Vi-) at the input of the switched-capacitor circuit to the at least one input capacitor during a sample phase and further having an output terminal coupled to an input of the differential operational amplifier; at least one integrating capacitor coupled between the input of the differential operational amplifier and an output of the differential operational amplifier; and a feedback circuit (204, 304) configured to provide a feedback over the at least one input capacitor, the feedback circuit having an input coupled to the input of the differential operational amplifier and further having an output coupled to the at least one input capacitor via a second switch during a hold phase; wherein the feedback circuit comprises a common source amplifier (203, 303) followed by a flipped voltage follower (205, 305); and wherein an output of the flipped voltage follower is coupled to the output of the feedback circuit and wherein an input of the common source amplifier (203, 303) is coupled to the input of the differential operational amplifier. a differential operational amplifier (206, 306); at least one input capacitor having an input terminal coupled to an input of the switched-capacitor circuit via a first switch configured to couple an input voltage (Vi+, Vi-) at the input of the switched-capacitor circuit to the at least one input capacitor during a sample phase and further having an output terminal coupled to an input of the differential operational amplifier; at least one integrating capacitor coupled between the input of the differential operational amplifier and an output of the differential operational amplifier; and a feedback circuit (204, 304) configured to provide a feedback over the at least one input capacitor, the feedback circuit having an input coupled to the input of the differential operational amplifier and further having an output coupled to the at least one input capacitor via a second switch during a hold phase; wherein the feedback circuit comprises a common source amplifier (203, 303) followed by a flipped voltage follower (205, 305); and wherein an output of the flipped voltage follower is coupled to the output of the feedback circuit and wherein an input of the common source amplifier (203, 303) is coupled to the input of the differential operational amplifier.
A method of generating origin signals of an encoder having a scale on which an incremental pattern and an origin pattern are formed, the method comprising initially detecting the origin pattern and initially generating a first origin signal with preset width at an origin position actually detected by an initial operation after power-on; characterised in that the method further comprises then generating following origin signals with the preset width using software, the following origin signals being generated at positions of a predetermined count value of an internal counter based upon a main signal waveform obtained from the incremental pattern and, in accordance with the obtained main signal waveform, DOWN pulses generated by movement in one direction relative to the incremental pattern causing the internal counter to count down and UP pulses generated by movement in an opposing direction causing the internal counter to count up, wherein the first origin pattern is actually detected in the first operation alone, and the following origin signals are subsequently generated virtually by software according to the count value of the internal counter.
A method for controlling a refrigeration appliance, namely a domestic refrigerator comprising one or more than one refrigeration compartment (2;3) for receiving articles to be refrigerated, a refrigeration circuit for refrigerating each refrigeration compartment (2, 3), a defrost circuit for defrosting the refrigeration circuit and for evaporating melted frost drained into an evaporator tray, an auxiliary heater arranged to evaporate the water drained off into the evaporator tray, a user interface for inputting a user selection, a control unit for controlling the refrigeration circuit, the defrost circuit and the user interface, wherein the control unit includes a normal mode for refrigerating each refrigeration compartment (2, 3) and a user-selectable relocation mode for completely defrosting the refrigeration circuit and for completely evaporating the melted frost in the evaporator tray, the method comprising: - a first step (S2,S14) of monitoring whether the relocation mode is currently set on or off by the user, - a step of halting the normal mode and activating the relocation mode wherein the auxiliary heater is energized by the control unit until the water is completely evaporated if it is determined in the first monitoring step (S2,S14) that the relocation mode is set on and - a step of halting the relocation mode and activating the normal mode if it is determined in the first monitoring step (S2,S14) that the relocation mode is set off. - a first step (S2,S14) of monitoring whether the relocation mode is currently set on or off by the user, - a step of halting the normal mode and activating the relocation mode wherein the auxiliary heater is energized by the control unit until the water is completely evaporated if it is determined in the first monitoring step (S2,S14) that the relocation mode is set on and - a step of halting the relocation mode and activating the normal mode if it is determined in the first monitoring step (S2,S14) that the relocation mode is set off.
Cylinder core for a cylinder for locks, comprising a key profile insert inserted in a cylinder core body, the key profile insert having at least one first core pin and the cylinder core body having a first pin channel, a second pin channel, and at least one second core pin, wherein the first pin channel aligns with the first core pin and the second pin channel guides the second core pin and wherein the first core pin and the second core pin are movable within the first pin channel and the second pin channel by a key which is insertable into the cylinder core.
A composition comprising: a) a first population of particles of a first aripiprazole prodrug, said first population of prodrug particles having at least one surface stabilizer adsorbed on the surface thereof, and b) a second population of particles of a second aripiprazole prodrug, said second population of prodrug particles having at least one surface stabilizer adsorbed on the surface thereof, wherein said first and second aripiprazole prodrug each have the formula: where n is zero or an integer from 1 to 20, and the first aripiprazole prodrug has a different value for n to that of the second aripiprazole prodrug, and wherein at least one of the first and second populations of particles has a volume based particle size of less than about 1000 nm. a) a first population of particles of a first aripiprazole prodrug, said first population of prodrug particles having at least one surface stabilizer adsorbed on the surface thereof, and b) a second population of particles of a second aripiprazole prodrug, said second population of prodrug particles having at least one surface stabilizer adsorbed on the surface thereof,
A method characterized by comprising: determining, by a reverse proxy server executing on a container-based cluster of compute nodes (102a-n) managed using a container orchestration service, a current data grid topology of the container-based cluster of compute nodes (102a-n); receiving, by the reverse proxy server from a client device, a first request to retrieve first data from the container-based cluster of compute nodes (102a-n), the first request comprising a key of a key-value pair; computing, by the reverse proxy server, a hash value by inputting the key into a hash function; determining, by the reverse proxy server, at least one node among the container-based cluster of compute nodes (102a-n) associated with the hash value based at least in part on the current data grid topology; sending, by the reverse proxy server, the first request to the at least one node; receiving, by the reverse proxy server, the first data from the at least one node in response to the first request; and sending the first data to the client device. determining, by a reverse proxy server executing on a container-based cluster of compute nodes (102a-n) managed using a container orchestration service, a current data grid topology of the container-based cluster of compute nodes (102a-n); receiving, by the reverse proxy server from a client device, a first request to retrieve first data from the container-based cluster of compute nodes (102a-n), the first request comprising a key of a key-value pair; computing, by the reverse proxy server, a hash value by inputting the key into a hash function; determining, by the reverse proxy server, at least one node among the container-based cluster of compute nodes (102a-n) associated with the hash value based at least in part on the current data grid topology; sending, by the reverse proxy server, the first request to the at least one node; receiving, by the reverse proxy server, the first data from the at least one node in response to the first request; and sending the first data to the client device.
A deceleration mechanism (130; 140), comprising a first gear and a second gear, the deceleration mechanism (130; 140) having: an engagement projected part, arranged on the first gear, formed in an arc shape having a first radius of curvature along a rotation direction of the first gear; and an engagement recessed part, arranged on the second gear and engaged with the engagement projected part, wherein the engagement recessed part comprises: a bottom, arranged at a center of the engagement recessed part along a rotation direction of the second gear; and side wall parts, arranged on both sides of the bottom along the rotation direction of the second gear, the side wall parts are arc-shaped recessed parts or arc-shaped projected parts, characterized in that the sidewall parts having a second radius of curvature (R31; R41) larger than the first radius of curvature. an engagement projected part, arranged on the first gear, formed in an arc shape having a first radius of curvature along a rotation direction of the first gear; and an engagement recessed part, arranged on the second gear and engaged with the engagement projected part, wherein the engagement recessed part comprises: a bottom, arranged at a center of the engagement recessed part along a rotation direction of the second gear; and side wall parts, arranged on both sides of the bottom along the rotation direction of the second gear, the side wall parts are arc-shaped recessed parts or arc-shaped projected parts, characterized in that the sidewall parts having a second radius of curvature (R31; R41) larger than the first radius of curvature. a bottom, arranged at a center of the engagement recessed part along a rotation direction of the second gear; and side wall parts, arranged on both sides of the bottom along the rotation direction of the second gear, the side wall parts are arc-shaped recessed parts or arc-shaped projected parts, characterized in that the sidewall parts having a second radius of curvature (R31; R41) larger than the first radius of curvature.
A targeting device for use in fixation of bone fragments (3,4) at a bone fracture, wherein the targeting device comprises: - an elongated body portion comprising a first body end and an opposed second body end, wherein the elongated body portion comprises a number of body through holes (113a,113b, 113c) extending from the first body end to the second body end for guiding a respective fixation means (303;303a,303b,303c) through the body portion, - a bracket arranged at the first body end, and wherein the targeting device is characterized in that the body portion in its second body end has a snap-fitting means comprising one or more slits (114a,114b,114c) distributed around an envelope surface of the second body end, each one of the one or more slits (114a,114b,114c) extends in a longitudinal direction that is approximately parallel with the longitudinal direction of the body portion, and the one or more slits (114a, 114b,114c) enable the second body end to flex outwards and clamp around a fixation plate having a circumference that is larger than the circumference of the second body end in an unflexed position, thereby enabling the second body end to removably attach a fixation plate to the body portion such that fixation through holes of the fixation plate are located in line with a respective body through hole (113a,113b,113c) and, when in use, to provide a surface of the fixation plate to abut a surface of an outer bone fragment for subsequent fixation of the fixation plate to the outer bone fragment by means of the fixation means (303;303a,303b,303c). - an elongated body portion comprising a first body end and an opposed second body end, wherein the elongated body portion comprises a number of body through holes (113a,113b, 113c) extending from the first body end to the second body end for guiding a respective fixation means (303;303a,303b,303c) through the body portion, - a bracket arranged at the first body end, and wherein the targeting device is characterized in that the body portion in its second body end has a snap-fitting means comprising one or more slits (114a,114b,114c) distributed around an envelope surface of the second body end, each one of the one or more slits (114a,114b,114c) extends in a longitudinal direction that is approximately parallel with the longitudinal direction of the body portion, and the one or more slits (114a, 114b,114c) enable the second body end to flex outwards and clamp around a fixation plate having a circumference that is larger than the circumference of the second body end in an unflexed position, thereby enabling the second body end to removably attach a fixation plate to the body portion such that fixation through holes of the fixation plate are located in line with a respective body through hole (113a,113b,113c) and, when in use, to provide a surface of the fixation plate to abut a surface of an outer bone fragment for subsequent fixation of the fixation plate to the outer bone fragment by means of the fixation means (303;303a,303b,303c).
A biomass gasification gas purification method comprising: gasifying biomass to produce biomass gasification gas; removing dust in the biomass gasification gas; desulfurizing sulfur oxide components in dust-removed biomass gasification gas; and feeding natural gas to a pre-reforming reactor at a time of reforming tar components in desulfurized biomass gasification gas by the pre-reforming reactor, and reforming tar components in desulfurized biomass gasification gas by the pre-reforming reactor while feeding steam. wherein introduced amounts of natural gas and steam fed to the pre-reforming reactor are determined to realize a feedstock composition at the inlet of the preforming reactor required for achieving an equilibrium constant value at the outlet of the pre-reforming reactor corresponding to an allowable catalyst temperature, wherein the equilibrium constant value is obtained based on the following formula: ([CH 4] x [H 2 O]) / ( x [H 2] 3), in which [] denotes a partial pressure of the gas components. gasifying biomass to produce biomass gasification gas; removing dust in the biomass gasification gas; desulfurizing sulfur oxide components in dust-removed biomass gasification gas; and feeding natural gas to a pre-reforming reactor at a time of reforming tar components in desulfurized biomass gasification gas by the pre-reforming reactor, and reforming tar components in desulfurized biomass gasification gas by the pre-reforming reactor while feeding steam. wherein introduced amounts of natural gas and steam fed to the pre-reforming reactor are determined to realize a feedstock composition at the inlet of the preforming reactor required for achieving an equilibrium constant value at the outlet of the pre-reforming reactor corresponding to an allowable catalyst temperature, wherein the equilibrium constant value is obtained based on the following formula: ([CH 4] x [H 2 O]) / ( x [H 2] 3), in which [] denotes a partial pressure of the gas components.