mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging system , comprising: a vapor-cell sensor comprising an optical window and a dielectric mirror ; a laser system configured to generate at least two beams of light ; a reference antenna disposed on a side of the vapor-cell sensor associated with the optical window , the reference antenna configured to generate a reference electromagnetic radiation having one or both of a controlled amplitude and a controlled phase; and an optical imaging system configured to measure spatial properties of a beam of light and positioned to receive at least one of the at least two beams of light after interaction with the vapor-cell sensor . a vapor-cell sensor comprising an optical window and a dielectric mirror ; a laser system configured to generate at least two beams of light ; a reference antenna disposed on a side of the vapor-cell sensor associated with the optical window , the reference antenna configured to generate a reference electromagnetic radiation having one or both of a controlled amplitude and a controlled phase; and an optical imaging system configured to measure spatial properties of a beam of light and positioned to receive at least one of the at least two beams of light after interaction with the vapor-cell sensor .
A capacitor component comprising a first busbar , a second busbar , one or more capacitor elements and a housing , the housing having a first portion and a second portion , wherein the first portion and the second portion are arranged to extend around an aperture, the first portion includes a section for housing the one or more capacitor elements, the first busbar and the second busbar, with the second portion extending between a first end and a second end of the first portion, wherein the first busbar and the second busbar are mounted within the second portion and arranged to extend around the first portion and the second portion of the housing, a first power supply terminal is formed at the first end of the first portion and a second power supply terminal is formed at the second end of the first portion, wherein the first power supply terminal is coupled to the first busbar and the second power supply terminal is coupled to the second busbar, wherein a first conductive layer of the one or more capacitor elements is coupled to the first busbar and a second conductive layer of the one or more capacitor elements is coupled to the second busbar.
A water cooling heat dissipation device, configured to be thermally coupled with two heat sources, the water cooling heat dissipation device comprising: a water cooling assembly , comprising: a first water block , having a fluid inlet and a fluid outlet ; a cold plate , having a fluid inlet and a fluid outlet , wherein the first water block and the cold plate are configured to be respectively and thermally coupled with the two heat sources; a radiator , having a fluid inlet and a fluid outlet , wherein the fluid inlet and the fluid outlet of the radiator are respectively in fluid communication with the fluid outlet of the first water block and the fluid inlet of the cold plate; and a casing , comprising: a first heat dissipation plate , having an interior fluid channel (C1), and a fluid inlet and a fluid outlet which are in fluid communication with the interior fluid channel, the fluid inlet and the fluid outlet of the first heat dissipation plate are respectively in fluid communication with the fluid outlet of the cold plate and the fluid inlet of the first water block, and the first water block, the radiator, the cold plate and the interior fluid channel of the first heat dissipation plate of the casing are in fluid communication with each other so as to form a circulation channel. a water cooling assembly , comprising: a first water block , having a fluid inlet and a fluid outlet ; a cold plate , having a fluid inlet and a fluid outlet , wherein the first water block and the cold plate are configured to be respectively and thermally coupled with the two heat sources; a radiator , having a fluid inlet and a fluid outlet , wherein the fluid inlet and the fluid outlet of the radiator are respectively in fluid communication with the fluid outlet of the first water block and the fluid inlet of the cold plate; and a first water block , having a fluid inlet and a fluid outlet ; a cold plate , having a fluid inlet and a fluid outlet , wherein the first water block and the cold plate are configured to be respectively and thermally coupled with the two heat sources; a radiator , having a fluid inlet and a fluid outlet , wherein the fluid inlet and the fluid outlet of the radiator are respectively in fluid communication with the fluid outlet of the first water block and the fluid inlet of the cold plate; and a casing , comprising: a first heat dissipation plate , having an interior fluid channel (C1), and a fluid inlet and a fluid outlet which are in fluid communication with the interior fluid channel, the fluid inlet and the fluid outlet of the first heat dissipation plate are respectively in fluid communication with the fluid outlet of the cold plate and the fluid inlet of the first water block, and the first water block, the radiator, the cold plate and the interior fluid channel of the first heat dissipation plate of the casing are in fluid communication with each other so as to form a circulation channel.
A pharmaceutical composition comprising 7-(4,7-diazaspiro[2.5]octan-7-yl)-2-(2,8-dimethylimidazo[1,2-b]pyridazin-6-yl)pyrido[1,2-a]pyrimidin-4-one or a pharmaceutically acceptable salt thereo wherein the composition is an oral aqueous solution or a dry powder suitable for constitution of an oral aqueous solution, wherein the oral aqueous solution has a pH of less than pH4.
A knife comprising a handle with a longitudinal axis and a blade mounted to rotate at a first longitudinal end of the handle , between a position deployed outside the handle and aligned with the latter, and a position folded into a space provided in the handle , the knife being characterized in that it further comprises a cap lifter , the cap lifter being placed at a second longitudinal end of the handle , the cap lifter comprising a wire structure mounted to rotate freely about an axis orthogonal to the longitudinal axis of the handle , the wire structure defining with the handle a closed contour delimiting a cap lifting opening intended to receive a cap , and in that the cap lifter comprises a bearing element allowing the bearing of the cap lifter on an upper part of the cap , said bearing element being formed by a bearing area of the handle , and a hooking element allowing the hooking of the cap lifter under the cap , said hooking element being formed by a transverse rectilinear portion of the wire structure .
A mobile radio communications device , for a communications system, the mobile radio communications device comprising: a non-access-stratum layer, NAS , and an access-stratum layer, AS ; wherein the mobile radio communications device is arranged for: storing a whitelist of closed subscriber group, CSG, identities, CSG IDs, wherein the CSG whitelist is provided by the non-access-stratum layer to the access-stratum layer, and wherein the CSG whitelist is a combination of an Operator CSG list and an Allowed CSG list, the Operator CSG list comprising an operator controlled list of CSG IDs, and the Allowed CSG list comprising a list of CSG IDs that is manually modifiable by a user; and indicating, to the user as part of a manual CSG selection procedure, a list of CSG IDs to allow the user to make a selection of a CSG ID for an attempted network registration by the mobile radio communications device in a cell, of the selected CSG, reselected by the mobile radio communications device ; and for said NAS to provide to said AS an updated closed subscriber group whitelist when the contents of the CSG whitelist is modified by the addition of a selected CSG ID (step 2E) or by the removal of a selected CSG ID (step 2G). storing a whitelist of closed subscriber group, CSG, identities, CSG IDs, wherein the CSG whitelist is provided by the non-access-stratum layer to the access-stratum layer, and wherein the CSG whitelist is a combination of an Operator CSG list and an Allowed CSG list, the Operator CSG list comprising an operator controlled list of CSG IDs, and the Allowed CSG list comprising a list of CSG IDs that is manually modifiable by a user; and indicating, to the user as part of a manual CSG selection procedure, a list of CSG IDs to allow the user to make a selection of a CSG ID for an attempted network registration by the mobile radio communications device in a cell, of the selected CSG, reselected by the mobile radio communications device ; and for said NAS to provide to said AS an updated closed subscriber group whitelist when the contents of the CSG whitelist is modified by the addition of a selected CSG ID (step 2E) or by the removal of a selected CSG ID (step 2G).
A light emitting device, comprising: a substrate (SUB); a light emitting element (LD) provided on the substrate, the light emitting element having a first end (EP1) and a second end (EP2) in a longitudinal direction; first (PW1) and second (PW2)partition walls provided on the substrate, the first and second partition walls being spaced apart from each other by a predetermined distance, with the light emitting element (LD) interposed therebetween; a first electrode (REL1)provided on the first partition wall to be adjacent to the first end of the light emitting element, and a second electrode (REL2)provided on the second partition wall to be adjacent to the second end of the light emitting element; and a first contact electrode (CNE1) coupling the first electrode and the first end of the light emitting element, and a second contact electrode (CNE2) coupling the second electrode and the second end of the light emitting element, wherein, when viewed on a plane, the first electrode is disposed to overlap a portion of the first partition wall and not to overlap another portion of the first partition wall, and the second electrode is disposed to overlap a portion of the second partition wall and not to overlap another portion of the second partition wall. a substrate (SUB); a light emitting element (LD) provided on the substrate, the light emitting element having a first end (EP1) and a second end (EP2) in a longitudinal direction; first (PW1) and second (PW2)partition walls provided on the substrate, the first and second partition walls being spaced apart from each other by a predetermined distance, with the light emitting element (LD) interposed therebetween; a first electrode (REL1)provided on the first partition wall to be adjacent to the first end of the light emitting element, and a second electrode (REL2)provided on the second partition wall to be adjacent to the second end of the light emitting element; and a first contact electrode (CNE1) coupling the first electrode and the first end of the light emitting element, and a second contact electrode (CNE2) coupling the second electrode and the second end of the light emitting element, wherein, when viewed on a plane, the first electrode is disposed to overlap a portion of the first partition wall and not to overlap another portion of the first partition wall, and the second electrode is disposed to overlap a portion of the second partition wall and not to overlap another portion of the second partition wall.
A nozzle unit (134; 234) having a nozzle which jets washer fluid toward a windshield (111; 211), the nozzle unit (134; 234) comprising: an inflow pipeline (138a; 238a) into which washer fluid flows; a supply pipeline which supplies washer fluid to the nozzle; a connection pipeline (139; 239) extending in a direction intersecting with an extension direction of the inflow pipeline (138a; 238a) and the supply pipeline, the connection pipeline (139; 239) connecting the inflow pipeline (138a; 238a) to the supply pipeline; and a cover member (135f, 136f; 240, 250) blocking an opening of the connection pipeline (139; 239), the cover member (135f, 136f; 240, 250) having another nozzle which jets washer fluid, characterized in that the nozzle unit comprises a forward-side first injection nozzle (A1), a forward-side second injection nozzle (B1), a forward-side third injection nozzle (C1) and a forward-side fourth injection nozzle (D1), and in that the supply pipeline comprises a front-end-side pipeline (138b; 238b) and a base-end-side pipeline (138c; 238c), wherein the front-end-side pipeline (138b; 238b) sends washer fluid to the forward-side first injection nozzle (A1), while the base-end-side pipeline (138c; 238c) sends the same to the forward-side fourth injection nozzle (D1). an inflow pipeline (138a; 238a) into which washer fluid flows; a supply pipeline which supplies washer fluid to the nozzle; a connection pipeline (139; 239) extending in a direction intersecting with an extension direction of the inflow pipeline (138a; 238a) and the supply pipeline, the connection pipeline (139; 239) connecting the inflow pipeline (138a; 238a) to the supply pipeline; and a cover member (135f, 136f; 240, 250) blocking an opening of the connection pipeline (139; 239), the cover member (135f, 136f; 240, 250) having another nozzle which jets washer fluid, characterized in that the nozzle unit comprises a forward-side first injection nozzle (A1), a forward-side second injection nozzle (B1), a forward-side third injection nozzle (C1) and a forward-side fourth injection nozzle (D1), and in that the supply pipeline comprises a front-end-side pipeline (138b; 238b) and a base-end-side pipeline (138c; 238c), wherein the front-end-side pipeline (138b; 238b) sends washer fluid to the forward-side first injection nozzle (A1), while the base-end-side pipeline (138c; 238c) sends the same to the forward-side fourth injection nozzle (D1).
Surgical instrument , wherein the instrument comprises: - a distal part , wherein the distal part comprises an elongated shaft , at least one working element and an actuation rod , wherein the at least one working element is movably mounted on a distal end of the shaft and wherein a first end of the actuation rod is connected to the at least one working element , - a proximal part , wherein the proximal part is releasably connected to the distal part and wherein the proximal part comprises an actuator device releasably connected to a second end of the actuation rod , wherein the actuator device is configured to move the at least one working element with respect to the shaft by movement of the actuation rod , - a sensor arranged to transmit a signal that is representative for a force exerted on the at least one working element , wherein the sensor is arranged in the actuator device and is configured to measure force and/or strain exerted on the actuator device , wherein the force and/or strain exerted on the actuator device is representative for the force exerted on the at least one working element , characterized in that the actuator device comprises a connection element releasably connected to the second end of the actuation rod , wherein the sensor is arranged on the connection element , wherein the actuator device comprises a trigger , wherein the trigger is configured to transfer a movement to the connection element of the actuator device . - a distal part , wherein the distal part comprises an elongated shaft , at least one working element and an actuation rod , wherein the at least one working element is movably mounted on a distal end of the shaft and wherein a first end of the actuation rod is connected to the at least one working element , - a proximal part , wherein the proximal part is releasably connected to the distal part and wherein the proximal part comprises an actuator device releasably connected to a second end of the actuation rod , wherein the actuator device is configured to move the at least one working element with respect to the shaft by movement of the actuation rod , - a sensor arranged to transmit a signal that is representative for a force exerted on the at least one working element , wherein the sensor is arranged in the actuator device and is configured to measure force and/or strain exerted on the actuator device , wherein the force and/or strain exerted on the actuator device is representative for the force exerted on the at least one working element , characterized in that the actuator device comprises a connection element releasably connected to the second end of the actuation rod , wherein the sensor is arranged on the connection element , wherein the actuator device comprises a trigger , wherein the trigger is configured to transfer a movement to the connection element of the actuator device .
A brewing device for producing a beverage from two differently sized capsules ; the brewing device comprises two parts opposite and mutually movable between an open or loading position, in which a capsule is loadable between the two parts , and a closing or brewing position, in which the two parts are coupled and define therebetween a brewing chamber housing the capsule ; one of the two parts of the brewing device comprises a cup-shaped body comprising a first portion and a second portion defining therebetween a seat (AB) designed to receive the capsule during the movement of the cup-shaped body towards said closing position; the second portion is designed to slide with respect to the first portion between a smaller seat position, in which the seat (AB) is sized to house a smaller capsule , and a larger seat position, in which the seat (AB) is sized to house a larger capsule ; actuating means being provided to move the cup-shaped body from the open position to the closing position, and vice versa; characterised in that the first portion comprises an outer cup , which comprises a side wall and a bottom wall , and the second portion comprises an inner cup , which is arranged inside the outer cup and comprises a side wall slidably coupled to the side wall of the outer cup , and a bottom wall ; the inner cup is normally arranged in an extracted position, in which the inner cup and the outer cup define therebetween said smaller seat position, and is mounted to slide inside the outer cup , as a result of the interaction of inner cup with a larger capsule during the movement of the cup-shaped body towards the closing position, so as to move from the extracted position to a retracted position, in which the inner cup and the outer cup define therebetween said larger seat position; and in that the actuating means are configured to keep the outer cup still in the closing position and comprise a blocking device configured to define, in the closing position, an axial block for the inner cup only when, in the closing position, the inner cup is arranged in its extracted position or smaller seat position, so as to prevent the inner cup from backwardly moving towards the bottom wall of the outer cup under the thrust of the pressurized fluid injected in the smaller capsule ; and in that the outer cup and the inner cup are so sized that, when, in the closing position, the inner cup is in its retracted position or larger seat position, the bottom wall of the inner cup abuts against the bottom wall of the outer cup so as to prevent the inner cup from backwardly moving under the thrust of the pressurized fluid injected in the larger capsule .
Ethylene copolymer (PE-C) comprising at least (a) a first polyethylene fraction (PE-F1), said fraction is an ethylene homopolymer, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1 -butene, wherein (c) said ethylene copolymer (PE-C) has a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 60 g/10min; (d) said first polyethylene fraction (PE-F1) has a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 200 to 400 g/10min; and (e) said ethylene copolymer (PE-C) has a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.919 to 0.954 g/cm 3 ; (f) said ethylene copolymer (PE-C) has a melt flow rate MFR 2 (190°C; 2.16 kg) measured according to ISO 1133 in the range of from 0.01 to 0.3 g/10min; (g) said ethylene copolymer (PE-C) has flow rate ratio (FFR; MFR 21 /MFR 5 ) in the range from 11 to 23.4, wherein the MFR 5 is the melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133. (a) a first polyethylene fraction (PE-F1), said fraction is an ethylene homopolymer, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1 -butene, wherein (c) said ethylene copolymer (PE-C) has a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 60 g/10min; (d) said first polyethylene fraction (PE-F1) has a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 200 to 400 g/10min; and (e) said ethylene copolymer (PE-C) has a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.919 to 0.954 g/cm 3 ; (f) said ethylene copolymer (PE-C) has a melt flow rate MFR 2 (190°C; 2.16 kg) measured according to ISO 1133 in the range of from 0.01 to 0.3 g/10min; (g) said ethylene copolymer (PE-C) has flow rate ratio (FFR; MFR 21 /MFR 5 ) in the range from 11 to 23.4, wherein the MFR 5 is the melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133.
A method for selective catalytic reduction of NOx comprising : providing an exhaust stream from a combustion operation , the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream to a catalytic reactor comprising at least one activated-carbon-supported metal catalyst , wherein the activated-carbon-supported metal catalyst is activated carbon loaded with a metal and the exhaust stream is free of an effective amount of fluid reductant, heating the exhaust stream to maintain an operating temperature of the catalytic reactor being between 500 °C and 750 °C to reduce the amount of NOx in the exhaust stream (step 120); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140). providing an exhaust stream from a combustion operation , the exhaust stream containing an amount of NOx (step 110); introducing at least a portion of the exhaust stream to a catalytic reactor comprising at least one activated-carbon-supported metal catalyst , wherein the activated-carbon-supported metal catalyst is activated carbon loaded with a metal and the exhaust stream is free of an effective amount of fluid reductant, heating the exhaust stream to maintain an operating temperature of the catalytic reactor being between 500 °C and 750 °C to reduce the amount of NOx in the exhaust stream (step 120); and directing the NOx-reduced exhaust stream from the catalytic reactor (step 140).
A protective circuit comprising an input for providing a first supply voltage (U E ), a voltage regulator for providing a second supply voltage (U A ) based on the first supply voltage (U E ), a measuring device for determining an impedance of the voltage regulator , and a self-locking switching element configured to connect the first supply voltage (U E ) with the voltage regulator if an impedance of the voltage regulator exceeds a predefined impedance value, wherein the measuring device comprises a test resistor bridging the switching element so that the test resistor and the voltage regulator form a voltage divider, and the measuring device further comprises a comparator which is configured to compare a test voltage (U T ) at a node between the test resistor and the voltage regulator to a reference voltage (U R ) and to provide a control signal for the switching element at an output of the comparator if the test voltage (U T ) exceeds the reference voltage (U R ).