mhurhangee/patent-ind-claim-en huggingface dataset:
Quality assurance system for radiation therapy for use in a treatment apparatus including a treatment table and a particle radiation device having a radiation emitter head for particle beam radiation, comprising - a detector apparatus including at least one detection module configured for the measurement of gamma radiation emitted by a target object subject to a particle radiation beam, - a support mechanism on which the at least one detection module is mounted, the support mechanism comprising a base configured for removable coupling to a treatment table of the treatment apparatus , and at least one detection module support structure pivotally coupled to the base , and - a detector transport apparatus including a trolley having a support surface for removably mounting the detector apparatus thereon, the trolley having ground engaging members allowing displacement of the trolley to and away from a treatment apparatus configured for positioning the detector apparatus for coupling to the treatment apparatus. - a detector apparatus including at least one detection module configured for the measurement of gamma radiation emitted by a target object subject to a particle radiation beam, - a support mechanism on which the at least one detection module is mounted, the support mechanism comprising a base configured for removable coupling to a treatment table of the treatment apparatus , and at least one detection module support structure pivotally coupled to the base , and - a detector transport apparatus including a trolley having a support surface for removably mounting the detector apparatus thereon, the trolley having ground engaging members allowing displacement of the trolley to and away from a treatment apparatus configured for positioning the detector apparatus for coupling to the treatment apparatus.
A method for performing a context transfer from a first session management entity to a second session management entity in a mobile communication system, the context transfer concerning a data session associated with a User Equipment, UE, wherein the data session is handled by the first session management entity via a first gateway entity and wherein, after the context transfer, the data session is to be handled by the second session management entity via a second gateway entity, the method being performed by the second session management entity and comprising: - while the UE is in an inactive state: triggering (S302) sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering (S304) providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and - when the UE enters an active state from the inactive state: triggering (S306) providing the new IP address to the UE. - while the UE is in an inactive state: triggering (S302) sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering (S304) providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and triggering (S302) sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering (S304) providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and - when the UE enters an active state from the inactive state: triggering (S306) providing the new IP address to the UE.
A modified release dosage form comprising 25-hydroxyvitamin D 2 , 25-hydroxyvitamin D 3 , or a combination thereof, for use in a method of treating secondary hyperparathyroidism, the method comprising orally administering to a human patient suffering from secondary hyperparathyroidism an effective amount of the dosage form, said administering being performed on a frequency in a range of every six weeks to every other day, wherein the effective amount is an amount that provides a rise in serum total 25-hydroxyvitamin D within the first 24 hours after said administering of at least 7 ng/ml and no greater than 30 ng/ml, as assayable using solid-phase extraction (SPE) with high performance liquid chromatography with tandem mass spectrometry (LC-MS/MS) detection, wherein the effective amount is an amount that lowers the patient's serum intact parathyroid hormone (iPTH) level by at least 10% compared to baseline.
A method for managing one-to-one short data service, SDS, communication in a mission critical data, MCData, communication system , by a MCData user equipment, UE , the method comprising: identifying, a presence of allow-to-transmit data; identifying a size of payload of a one-to-one standalone SDS message; and transmitting the one-to-one standalone SDS message to a receiving MCData UE using a signaling control plane or a media plane, wherein the size of the payload of the one-to-one standalone SDS message is not greater than maximum amount of data in a single request, and wherein the transmitting the one-to-one standalone SDS message comprises: in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane. identifying, a presence of allow-to-transmit data; identifying a size of payload of a one-to-one standalone SDS message; and transmitting the one-to-one standalone SDS message to a receiving MCData UE using a signaling control plane or a media plane, wherein the size of the payload of the one-to-one standalone SDS message is not greater than maximum amount of data in a single request, and wherein the transmitting the one-to-one standalone SDS message comprises: in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane. in case that the size of the payload is less than or equal to maximum payload size associated with a signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the signaling control plane, and in case that the size of the payload is greater than the maximum payload size associated with the signaling over the signaling control plane, transmitting the one-to-one standalone SDS message using the media plane.
A method for increasing the resonant frequency of a hexagonal ferrite material, the method comprising: providing a Y phase hexagonal ferrite material having the composition Sr 2 Co 2 Fe 12 O 22 ; and doping the hexagonal ferrite with Na, K or other univalent alkali metal on an Sr site and characterised in charge compensating with scandium or indium on a cobalt site. providing a Y phase hexagonal ferrite material having the composition Sr 2 Co 2 Fe 12 O 22 ; and doping the hexagonal ferrite with Na, K or other univalent alkali metal on an Sr site and characterised in charge compensating with scandium or indium on a cobalt site.
Use of a composition for manufacturing a worm wheel said composition comprising a polyamide resin, said polyamide resin comprises a polyamide 66 resin having a relative viscosity (RV) of 2.5 to 2.9 and a polyamide 12 resin having a relative viscosity (RV) of 1.4 to 3.3, and a polyamide 6 resin having a relative viscosity (RV) of 2.9 to 3.3, and the composition further comprises a modified nano-clay, wherein the relative viscosity (RV) is a value measured at 25°C after adding 1 wt% of the polyamide resin to 96% sulfuric acid.
Turbomachine starter-generator , comprising: - an asynchronous electric machine configured so as to operate in motor mode during a starting phase of the turbomachine while being supplied by an electrical source , and so as to operate in generator mode after the starting phase of the turbomachine in order to supply power to an electrical load , - an inverter arranged between the electrical source and the asynchronous machine, the inverter having at least two AC terminals coupled to the asynchronous machine and at least two DC terminals coupled to a DC bus , characterised in that the asynchronous machine also comprises: - an inverter control unit configured such that the inverter outputs a starting current in motor mode and a magnetisation current in generator mode, onto the at least two AC terminals (B AC1 , B AC2 , B AC3 ) coupled to the asynchronous machine; - at least one first stator winding (A1, A2, A3) connected to the alternating current terminals of the inverter in order to be supplied with the starting current in motor mode and with the magnetisation current in generator mode, and at least one second stator winding (B1, B2, B3) connected to the electrical load in generator mode. - an asynchronous electric machine configured so as to operate in motor mode during a starting phase of the turbomachine while being supplied by an electrical source , and so as to operate in generator mode after the starting phase of the turbomachine in order to supply power to an electrical load , - an inverter arranged between the electrical source and the asynchronous machine, the inverter having at least two AC terminals coupled to the asynchronous machine and at least two DC terminals coupled to a DC bus , - an inverter control unit configured such that the inverter outputs a starting current in motor mode and a magnetisation current in generator mode, onto the at least two AC terminals (B AC1 , B AC2 , B AC3 ) coupled to the asynchronous machine; - at least one first stator winding (A1, A2, A3) connected to the alternating current terminals of the inverter in order to be supplied with the starting current in motor mode and with the magnetisation current in generator mode, and at least one second stator winding (B1, B2, B3) connected to the electrical load in generator mode.
An ear gear (100; 200) comprising a pair of earpieces (102, 103; 203) being attached to a respective headband end region (106, 107; 206, 207) of an interconnecting headband (108; 208), whereby each earpiece (102, 103; 203) is adjustably associated with the headband (108; 208) for adjustment of the position of the earpieces (102, 103; 203) relative to the headband (108; 208), the ear gear (100; 200) further comprising: - at least two extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) provided at each of the headband end regions (106, 107; 206, 207) of the headband, - arm members (110, 111; 211) that at respective ends (110A, 111A; 211A) are attached to a respective earpiece (102, 103; 203), and - end caps (110E, 111E; 211E) provided at respective headband end regions (106, 107; 206, 207), wherein at least one of the extended legs is rotatably arranged with each end cap of said end caps (110E, 111E; 211E), such that the end caps can rotate relative to the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B), and wherein each end cap has recesses and each one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is inserted in respective recesses , and wherein the ear gear (100; 200) is characterized in that - at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is displaceable in a longitudinal direction (L2) extending along the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) at each end cap (110E, 111E; 211E), such that the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is moveable back and forth in said longitudinal direction (L2) within the respective recess of each end cap (110E, 111E; 211E). - at least two extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) provided at each of the headband end regions (106, 107; 206, 207) of the headband, - arm members (110, 111; 211) that at respective ends (110A, 111A; 211A) are attached to a respective earpiece (102, 103; 203), and - end caps (110E, 111E; 211E) provided at respective headband end regions (106, 107; 206, 207), wherein at least one of the extended legs is rotatably arranged with each end cap of said end caps (110E, 111E; 211E), such that the end caps can rotate relative to the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B), and wherein each end cap has recesses and each one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is inserted in respective recesses , and wherein the ear gear (100; 200) is characterized in that - at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is displaceable in a longitudinal direction (L2) extending along the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) at each end cap (110E, 111E; 211E), such that the at least one of the extended legs (106A, 106B, 107A, 107B; 206A, 206B, 207A, 207B) is moveable back and forth in said longitudinal direction (L2) within the respective recess of each end cap (110E, 111E; 211E).
A method of coating a plastic substrate, the method comprising: cleaning the substrate ; after cleaning the substrate, sensitizing the substrate using a sensitizing solution comprising tin chloride and hydrochloric acid ; after sensitizing the substrate, activating the substrate in an activating solution comprising palladium chloride and hydrochloric acid ; subsequently neutralizing the substrate using a neutralizing solution comprising ammonium hydroxide ; and after neutralizing the substrate, depositing an electroless nickel layer on the substrate . cleaning the substrate ; after cleaning the substrate, sensitizing the substrate using a sensitizing solution comprising tin chloride and hydrochloric acid ; after sensitizing the substrate, activating the substrate in an activating solution comprising palladium chloride and hydrochloric acid ; subsequently neutralizing the substrate using a neutralizing solution comprising ammonium hydroxide ; and after neutralizing the substrate, depositing an electroless nickel layer on the substrate .
Probe socket for mounting at a surface of an exhaust system which deviates in its geometry from a plane, comprising an essentially hollow cylindrically configured first body having a first planar circular ring surface on a first end face and a second end face , characterized by a second body , and in that the second body : - comprises at its first end a flat circular ring surface which has been finished with a planishing method and which within the flat circular ring surface has a passage , whose diameter corresponds to or is greater than the internal diameter of the first body , wherein the first body is in contact with the flat circular ring surface of the second body in the area of its second end face and is connected in a gastight manner to the second body by means of a weld seam extending circumferentially around the first body , - comprises a second end to be connected to a curved connection surface of an exhaust system, wherein the second end is curved to allow for a gastight connection of the probe socket to the connection surface by compensating a geometric deviation of the connection surface from a plane. - comprises at its first end a flat circular ring surface which has been finished with a planishing method and which within the flat circular ring surface has a passage , whose diameter corresponds to or is greater than the internal diameter of the first body , wherein the first body is in contact with the flat circular ring surface of the second body in the area of its second end face and is connected in a gastight manner to the second body by means of a weld seam extending circumferentially around the first body , - comprises a second end to be connected to a curved connection surface of an exhaust system, wherein the second end is curved to allow for a gastight connection of the probe socket to the connection surface by compensating a geometric deviation of the connection surface from a plane.
A process for producing a compound of formula : wherein R 1 and R 2 each independently are H, alkyl, fluoroalkyl, optionally substituted aryl, or halogen; and R 3 is alkyl, fluoroalkyl or optionally substituted aryl; the process comprising a step (A) of reacting a compound of formula : wherein R 1 and R 2 are as defined above, with carbon monoxide and an alcohol of the formula R 3 -OH wherein R 3 is as defined above, in the presence of a palladium complex catalyst containing at least one bidentate phosphine ligand and a base to obtain the compound of formula ; with the proviso that if R 1 and R 2 are both H, and R 3 is alkyl or fluoroalkyl, then the bidentate phosphine ligand is not 4,5-bis(diphenylphosphino)-9,9'-dimethyl-9H-xanthene, 1,4-bis(diphenylphosphino)butane, 1,3-bis(diphenylphosphino)propane, 1,1'-bis (diphenylphosphino)ferrocene, 2,2'-bis(diphenylphosphino)-1,1'-binaphthyl, or a ligand of the following formula, wherein PS is polystyrene and Ph is phenyl:
A method for producing an organohalosilane, the method comprising: reacting an organic compound comprising a halogen-substituted or unsubstituted alkane, a halogen-substituted or unsubstituted alkene, or an aromatic compound and at least one hydridohalosilane of formula R n SiH m X 4-m-n , wherein each R is independently C 1 -C 14 hydrocarbyl or C 1 -C 14 hologen-substituted hydrocarbyl, X is fluoro, chloro, bromo, or iodo, n is 0, 1, or 2, m is 1, 2 or 3, and m+n=1, 2 or 3, in the presence of a heterogeneous catalyst comprising an oxide of one or more of the elements Sc, Y, Ti, Zr, Hf, B, Al, Ga, In, C, Si, Ge, Sn, or Pb, at a temperature greater than 100 °C, and at a pressure of 4000 to 11000 kPa, to produce a crude reaction product comprising the organohalosilane.
An engine component that is used in a gas turbine engine and cooled by cooling air (CA), the component comprising: a cooling channel that is formed within the engine component and in which the cooling air flows (CA); a plurality of bottomed recesses that is formed on a surface of the engine component and of which each downstream-side inner wall is inclined to the surface of the engine component ; and an ejection hole that is formed on each bottom of the plurality of bottomed recesses and communicates with the cooling channel to eject the cooling air (CA), wherein the ejection hole is formed so that a central line of the ejection hole extends along or almost along the downstream-side inner wall such that an inclined angle (θ) of the central line of the ejection hole to a plane (VP) parallel to the downstream-side inner wall of the bottomed recess is set within a range of ±20 degrees, characterised in that a partition wall extending in a span direction of the engine component is formed in an inside of the engine component , configured to partition the cooling channel , and at least one of the bottomed recesses is formed, on the surface , at the position of the partition wall . a cooling channel that is formed within the engine component and in which the cooling air flows (CA); a plurality of bottomed recesses that is formed on a surface of the engine component and of which each downstream-side inner wall is inclined to the surface of the engine component ; and an ejection hole that is formed on each bottom of the plurality of bottomed recesses and communicates with the cooling channel to eject the cooling air (CA), wherein the ejection hole is formed so that a central line of the ejection hole extends along or almost along the downstream-side inner wall such that an inclined angle (θ) of the central line of the ejection hole to a plane (VP) parallel to the downstream-side inner wall of the bottomed recess is set within a range of ±20 degrees, characterised in that a partition wall extending in a span direction of the engine component is formed in an inside of the engine component , configured to partition the cooling channel , and at least one of the bottomed recesses is formed, on the surface , at the position of the partition wall .
A torque transfer assembly comprising a drive shaft and a driven shaft and a dielectric insert positioned between the drive shaft and the driven shaft, the insert comprising a dielectric adhesive or resin material injected between the drive shaft and the driven shaft to form an insulating layer and to extend into the drive shaft and into the driven shaft, the insulating layer providing a dielectric barrier and torque transfer member between the drive shaft and the driven shaft; and characterised in that : the insert further comprises a support structure embedded in the dielectric material and formed as a thin lattice or cage structure around which the dielectric material is shaped and cured.
A thrombectomy device comprising: a body having a plurality of struts defining a plurality of cells and forming a mesh, the body being expandable from a first configuration to a second configuration, the body having a working length portion (WL) in which the plurality of cells are configured to penetrate into and/or capture a thrombus when the body is expanded to the second configuration, and a proximally tapering non-working length portion (NWL) disposed proximal of the working length portion (WL); one or more electrodes each coupled to a projection extending from one of the struts of the body within the working length portion (WL); one or more conductive leads electrically coupled to the one or more electrodes , the conductive lead(s) configured to be electrically coupled to a current source , wherein the electrode(s) are configured such that, when current is supplied to the conductive lead(s) via the current source , an electrical charge density is greater in the working length portion (WL) than in the non-working length portion (NWL). a body having a plurality of struts defining a plurality of cells and forming a mesh, the body being expandable from a first configuration to a second configuration, the body having a working length portion (WL) in which the plurality of cells are configured to penetrate into and/or capture a thrombus when the body is expanded to the second configuration, and a proximally tapering non-working length portion (NWL) disposed proximal of the working length portion (WL); one or more electrodes each coupled to a projection extending from one of the struts of the body within the working length portion (WL); one or more conductive leads electrically coupled to the one or more electrodes , the conductive lead(s) configured to be electrically coupled to a current source , wherein the electrode(s) are configured such that, when current is supplied to the conductive lead(s) via the current source , an electrical charge density is greater in the working length portion (WL) than in the non-working length portion (NWL).