mhurhangee/patent-ind-claim-en huggingface dataset:
A method for interworking between a first protocol entity adapted to operate in accordance with a stream reservation protocol for reserving resources for a data stream along a stream path of the data stream and a second protocol entity adapted to operate in accordance with a routing protocol for distributing information in a communication network , the method comprising: - sending (S22, 1102, 1203), from the first protocol entity to the second protocol entity , a request for stream path information indicating, for a data stream to be sent from a source device to a destination device , a stream path in the communication network , - determining (S24), by the second protocol entity , the stream path information based on the request, - initiating (S34, 1105, 1108, 1207), by the second protocol entity , an establishment of the stream path in the communication network by sending the stream path information in a protocol data unit according to the routing protocol over the communication network or by sending the stream path information in a protocol data unit according to the routing protocol to a network node of the communication network , - sending (S26, 1107, 1206), from the second protocol entity to the first protocol entity , the stream path information, and - initiating (S28), by the first protocol entity , a resource reservation procedure for reserving resources in response to receiving the stream path information, wherein the step (S28, 1108, 1208) of initiating the resource reservation procedure comprises: - sending, by the first protocol entity , an instruction for reserving resources in the communication network in a data packet unit according to the stream reservation protocol based on the stream path information. - sending (S22, 1102, 1203), from the first protocol entity to the second protocol entity , a request for stream path information indicating, for a data stream to be sent from a source device to a destination device , a stream path in the communication network , - determining (S24), by the second protocol entity , the stream path information based on the request, - initiating (S34, 1105, 1108, 1207), by the second protocol entity , an establishment of the stream path in the communication network by sending the stream path information in a protocol data unit according to the routing protocol over the communication network or by sending the stream path information in a protocol data unit according to the routing protocol to a network node of the communication network , - sending (S26, 1107, 1206), from the second protocol entity to the first protocol entity , the stream path information, and - initiating (S28), by the first protocol entity , a resource reservation procedure for reserving resources in response to receiving the stream path information, wherein the step (S28, 1108, 1208) of initiating the resource reservation procedure comprises: - sending, by the first protocol entity , an instruction for reserving resources in the communication network in a data packet unit according to the stream reservation protocol based on the stream path information.
A mobile terminal comprising: a housing comprising a first metal case , a second metal case , and a first non-conductive case that is located between the first metal case and the second metal case ; a battery located in the housing; a first coil located in the housing and located at an area covered by the first metal case , a second coil located in the housing and located at a position corresponding to the second metal case and, configured to perform short range wireless communication using a signal having a second frequency; a main board comprising a charging module configured to recharge the battery using electric current that flows in the first coil ; a first resonator which overlaps with an area covered by the first non-conductive case and comprising a first matching circuit corresponding to a first frequency and a second matching circuit corresponding to the second frequency; a switch configured to be selectively connected to the first matching circuit or the second matching circuit ; and a controller configured to cause the switch to: connect the first resonator to the first matching circuit to recharge the battery ; and connect the first resonator to the second matching circuit to perform the short range wireless communication. a housing comprising a first metal case , a second metal case , and a first non-conductive case that is located between the first metal case and the second metal case ; a battery located in the housing; a first coil located in the housing and located at an area covered by the first metal case , a second coil located in the housing and located at a position corresponding to the second metal case and, configured to perform short range wireless communication using a signal having a second frequency; a main board comprising a charging module configured to recharge the battery using electric current that flows in the first coil ; a first resonator which overlaps with an area covered by the first non-conductive case and comprising a first matching circuit corresponding to a first frequency and a second matching circuit corresponding to the second frequency; a switch configured to be selectively connected to the first matching circuit or the second matching circuit ; and a controller configured to cause the switch to: connect the first resonator to the first matching circuit to recharge the battery ; and connect the first resonator to the second matching circuit to perform the short range wireless communication. connect the first resonator to the first matching circuit to recharge the battery ; and connect the first resonator to the second matching circuit to perform the short range wireless communication.
A composite tool having vacuum integrity, comprising: a composite laminate including a barrier layer of material impermeable to air, wherein the composite laminate includes: first and second sets of composite plies , and wherein the barrier layer includes a membrane sandwiched between the first and second sets of composite plies; the composite laminate further comprising: a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface . first and second sets of composite plies , and wherein the barrier layer includes a membrane sandwiched between the first and second sets of composite plies; the composite laminate further comprising: a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface . a facesheet having a tool surface adapted to have a composite part placed thereon, and an edge breather groove in the facesheet extending down to the barrier layer and surrounding the tool surface .
Cutting wheel for a tunnel boring machine comprising a number of excavation tools for removing geology encountered by the cutting wheel in a driving direction during tunneling and a tool condition monitoring device for monitoring the wear condition of excavation tools , wherein the tool condition monitoring device comprises at least one carrier part assigned to an excavation tool and/or a group of excavation tools which is spatially spaced apart from the or an excavation tool or the or a group of excavation tools and releasably connected to a frame structure , and wherein at least one electrically conductive current conductor element is embedded in the or each carrier part , characterized in that the current conductor element is embedded in such a way that after an abrasion of the or a carrier part which is characteristic of a predetermined wear condition of the or an excavation tool and/or the or a group of excavation tools , the or a current conductor element is interruptible, that the or a carrier part is designed as an intermediate part arranged between an excavation tool and/or a group of excavation tools as well as the frame structure , that the intermediate part follows a contour geometrically similar to the front side in the driving direction of a respective excavation tool or a respective group of excavation tools , wherein the front side in the driving direction of the intermediate part is recessed against the contour of the respective front side of the respective excavation tool and/or the group of excavation tools opposite to the driving direction, and that the intermediate part has a cable recess at a distance from the front side, arranged behind an outer material wall of the intermediate part in the driving direction and in which the current conductor element is arranged.
A filter module for filtering a fluid flow having a plurality of filter elements arranged in parallel to one another in a fluid channel , wherein a sensor is attached to each filter element for determining the condition, in particular the loading condition, of the respective filter element , wherein the sensors are designed as flow rate sensors and the sensors measure the differential pressure, wherein the filter elements are embodied as filter cartridges having pleated filter medium (8.2), characterized in that the sensors are positioned on the clean gas side of a respective filter element , and the filter cartridges each have a round flange (8.1) having a central opening and the sensor is attached in each case in the area of the flange (8.1).
Apparatus for measuring a measured variable, having - a first inductance (LP, L1), - a measurement inductance (LS1, LS2, LS3, L2) that is set up to detect the measured variable and that is coupled to the first inductance (LP, L1), - a capacitance (CP) that is interconnected with the first inductance (LP, L1) to form a parallel resonant circuit (P), and - an electronic control unit (MK), - wherein the electronic control unit (MK) is connected directly to the parallel resonant circuit (P) and is configured to excite the parallel resonant circuit (P) into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (MK) is connected directly to the measurement inductance (LS1, LS2, LS3, L2) and is configured to measure a value revealing the measured variable using the measurement inductance (LS1, LS2, LS3, L2), characterized in that - the parallel resonant circuit (P) is connected to a first port pin and to a second port pin of the electronic control unit (MK), the second port pin being supplied with a clock that is inverted in relation to the first port pin. - a first inductance (LP, L1), - a measurement inductance (LS1, LS2, LS3, L2) that is set up to detect the measured variable and that is coupled to the first inductance (LP, L1), - a capacitance (CP) that is interconnected with the first inductance (LP, L1) to form a parallel resonant circuit (P), and - an electronic control unit (MK), - wherein the electronic control unit (MK) is connected directly to the parallel resonant circuit (P) and is configured to excite the parallel resonant circuit (P) into oscillation at an excitation frequency that is derived from a clock of the electronic control unit, and - wherein the electronic control unit (MK) is connected directly to the measurement inductance (LS1, LS2, LS3, L2) and is configured to measure a value revealing the measured variable using the measurement inductance (LS1, LS2, LS3, L2), - the parallel resonant circuit (P) is connected to a first port pin and to a second port pin of the electronic control unit (MK), the second port pin being supplied with a clock that is inverted in relation to the first port pin.
A compound of formula: or a pharmaceutical composition comprising said compound for use in a method of treating ataxia-telangiectasia resulting from a premature stop codon in a patient.
Headrest device for a seat (12a; 12b; 12c; 12d), in particular an airplane seat, comprising a headrest (22a; 22b; 22c; 22d) which is implemented as a separate element that is connectable to a backrest of the seat (12a; 12b; 12c; 12d), which forms at least a head support region (24a; 24b; 24c; 24d) and has at least one cover element , comprising at least one fixation module (36a; 36b; 36c; 36d) with at least one fixation means (40a, 42a; 40b, 42b; 42c; 40d, 42d) extending on a front side of the headrest from an upper end to a lower end and embodied as an elastic strap that is mounted on the cover element and is configured for attaching at least one personal item (38a; 38d), which is a pillow, a piece of clothing or a blanket, in the head support region (24a; 24b; 24c; 24d), wherein a passenger sitting on the seat can attach the personal item to the headrest via the fixation module by the fixation means , the passenger being for this purpose enabled to elastically elongate the fixation means by pulling on the fixation means , such that between the head support region of the headrest and the fixation means a space is formed which the passenger may introduce the object into. comprising at least one fixation module (36a; 36b; 36c; 36d) with at least one fixation means (40a, 42a; 40b, 42b; 42c; 40d, 42d) extending on a front side of the headrest from an upper end to a lower end and embodied as an elastic strap that is mounted on the cover element and is configured for attaching at least one personal item (38a; 38d), which is a pillow, a piece of clothing or a blanket, in the head support region (24a; 24b; 24c; 24d), wherein a passenger sitting on the seat can attach the personal item to the headrest via the fixation module by the fixation means , the passenger being for this purpose enabled to elastically elongate the fixation means by pulling on the fixation means , such that between the head support region of the headrest and the fixation means a space is formed which the passenger may introduce the object into.
A plasticizer composition comprising a diisononyl isophthalate (DINIP); and epoxidized oil, wherein weight ratio of the diisononyl isophthalate (DINIP) and the epoxidized oil is 90:10 to 10:90.
A treated water tank for an oil sand plant , comprising a first housing ; an inlet provided in the first housing , through which a treated water flows in; an outlet provided in the first housing , through which the treated water stored is discharged; a second housing installed in the upper side of the first housing and communicated with the first housing by a pipe for maintaining, in the inside of the first housing , atmospheric pressure; a gas discharge pipe provided in one side of the second housing for opening to the air; a gas curtain provided in the second housing for preventing the treated water stored in the first housing from being in contact with the air; a first space and a second space that are sectioned upper and lower in the inside of the first housing ; a plate with a plurality of penetration holes provided between the first space and the second space ; and a barrier protruded to a prescribed height around the penetration hole of the plate so that the treated water flowing into the first housing is pooled at a first space in the upper side of the plate , wherein the inlet of the first housing is formed in the first space , and the outlet of the first housing is formed in the second space , wherein if the treated water flowing into the first space exceeds a certain amount, the treated water passes over the barrier and flows into the second space , wherein the second housing further comprises a first injection nozzle which forms the gas curtain by injecting the gas into the inside, and a gas tank feeding the gas to the first injection nozzle is provided at one side of the second housing , wherein the plate is provided with a plasma discharge apparatus so as to purify the treated water that is flowed in, and wherein the treated water tank further comprises a waste water outlet provided in the first space of the first housing , and at the lower position than the height of the barrier of the plate .
A level sensing module for use with a liquid immersion cooling system having a device chassis housing an electronic device , the level sensing module comprising: a fluid level sensor ; and a controller coupled to the fluid level sensor and configured to: receive a signal from the fluid level sensor indicative of a height of dielectric fluid in the device chassis; provide a signal to a pump controller to provide dielectric fluid to the chassis device, characterised in that the controller is further configured to: receive a signal from the pump controller indicative of a volume of dielectric fluid provided to the device chassis; and generate a map of dielectric fluid volume within the device chassis based on the signal from the fluid level sensor and the signal from the pump controller. a fluid level sensor ; and a controller coupled to the fluid level sensor and configured to: receive a signal from the fluid level sensor indicative of a height of dielectric fluid in the device chassis; provide a signal to a pump controller to provide dielectric fluid to the chassis device, characterised in that the controller is further configured to: receive a signal from the pump controller indicative of a volume of dielectric fluid provided to the device chassis; and generate a map of dielectric fluid volume within the device chassis based on the signal from the fluid level sensor and the signal from the pump controller. receive a signal from the fluid level sensor indicative of a height of dielectric fluid in the device chassis; provide a signal to a pump controller to provide dielectric fluid to the chassis device, characterised in that the controller is further configured to: receive a signal from the pump controller indicative of a volume of dielectric fluid provided to the device chassis; and generate a map of dielectric fluid volume within the device chassis based on the signal from the fluid level sensor and the signal from the pump controller. receive a signal from the pump controller indicative of a volume of dielectric fluid provided to the device chassis; and generate a map of dielectric fluid volume within the device chassis based on the signal from the fluid level sensor and the signal from the pump controller.
Device for securing at least one sling (E) for transporting a load (C) under a helicopter , said securing device comprising: - at least one first strap and at least one second strap , each strap extending longitudinally and comprising an end for joining to the helicopter and a connecting end , - a connecting mechanism configured, in a closed state, to connect the connecting ends of the straps to form an overall securing strap capable of supporting a sling (E) and, in a open state, to release the connecting ends of the straps to drop the sling (E), the connecting mechanism being suited to withstand in the closed state a tractive force of 1500 kg, and - an actuator configured to open the connecting mechanism following an input of mechanical force (F1), the connecting mechanism comprising a plurality of rings mounted in cascade configured to reduce the force of resistance to the opening of the connecting mechanism induced by the support of the sling (E) so that the input mechanical force (F1) is less than 20 kg for a tractive force of 1500 kg induced by the support of the sling (E), the connecting mechanism comprises at least a first ring , a second ring and a third ring , the first ring having a diameter greater than that of the second ring and the second ring having a diameter greater than that of the third ring , the first ring being hinged at the level of the connecting end of the first strap whereas the second and third rings are hinged at the level of the connecting end of the second strap . - at least one first strap and at least one second strap , each strap extending longitudinally and comprising an end for joining to the helicopter and a connecting end , - a connecting mechanism configured, in a closed state, to connect the connecting ends of the straps to form an overall securing strap capable of supporting a sling (E) and, in a open state, to release the connecting ends of the straps to drop the sling (E), the connecting mechanism being suited to withstand in the closed state a tractive force of 1500 kg, and - an actuator configured to open the connecting mechanism following an input of mechanical force (F1), the connecting mechanism comprising a plurality of rings mounted in cascade configured to reduce the force of resistance to the opening of the connecting mechanism induced by the support of the sling (E) so that the input mechanical force (F1) is less than 20 kg for a tractive force of 1500 kg induced by the support of the sling (E), the connecting mechanism comprises at least a first ring , a second ring and a third ring , the first ring having a diameter greater than that of the second ring and the second ring having a diameter greater than that of the third ring , the first ring being hinged at the level of the connecting end of the first strap whereas the second and third rings are hinged at the level of the connecting end of the second strap .
Process for producing BTX and alcohols from biomass, comprising at least the following steps: a) catalytic pyrolysis of said biomass in a fluidized-bed reactor producing a gaseous pyrolysis effluent, b) separation of said gaseous pyrolysis effluent into at least a BTX fraction and a gaseous effluent comprising at least carbon monoxide and carbon dioxide, c) recycling at least part of said gaseous effluent comprising at least carbon monoxide and carbon dioxide into the reactor of said step a), d) purging said gaseous effluent recycled according to step c) to produce a purge effluent, e) sending at least part of said purge effluent from step d) into a fermentation step producing a liquid fermentation stream comprising at least one stream comprising at least one oxygenated compound chosen from ethanol, n-propanol, isopropanol, butanol, isobutanol, hexanol, butyric acid, hexanoic acid, lactic acid, acetone, butanone and 2,3-butylene glycol (2,3-butanediol), alone or as a mixture. a) catalytic pyrolysis of said biomass in a fluidized-bed reactor producing a gaseous pyrolysis effluent, b) separation of said gaseous pyrolysis effluent into at least a BTX fraction and a gaseous effluent comprising at least carbon monoxide and carbon dioxide, c) recycling at least part of said gaseous effluent comprising at least carbon monoxide and carbon dioxide into the reactor of said step a), d) purging said gaseous effluent recycled according to step c) to produce a purge effluent, e) sending at least part of said purge effluent from step d) into a fermentation step producing a liquid fermentation stream comprising at least one stream comprising at least one oxygenated compound chosen from ethanol, n-propanol, isopropanol, butanol, isobutanol, hexanol, butyric acid, hexanoic acid, lactic acid, acetone, butanone and 2,3-butylene glycol (2,3-butanediol), alone or as a mixture.