mhurhangee/patent-ind-claim-en huggingface dataset:
A method of orchestrating services across at least two different service domains in a communication network , the method comprising the following steps carried out by a processing unit of a first service provider, referred to as a home operator, managing a first service domain : • receiving a data structure for a service definition object from a second service provider, referred to hereinafter as a sponsor service provider, managing a second service domain , the home operator being identified by a home operator identifier ; • receiving a list of available services from the sponsor service provider, the services on the list being individually identified by a service identifier ; • receiving a subscriber selection of at least one service on the list from a subscriber of the home operator, the subscriber being identified by a subscription identifier ; • adding a first set of data to the service definition object to obtain a populated service definition object , the first set of data comprising at least subscriber specific data; • sending a service creation request to the sponsor service provider for subscribing to the selected service, the request comprising the home operator identifier , the subscription identifier , a service identifier of the selected service , the populated service definition object and a service instance identifier ; and • receiving a response from the sponsor service provider, the response comprising the populated service definition object complemented with a second set of data to allow the selected service to be executed. • receiving a data structure for a service definition object from a second service provider, referred to hereinafter as a sponsor service provider, managing a second service domain , the home operator being identified by a home operator identifier ; • receiving a list of available services from the sponsor service provider, the services on the list being individually identified by a service identifier ; • receiving a subscriber selection of at least one service on the list from a subscriber of the home operator, the subscriber being identified by a subscription identifier ; • adding a first set of data to the service definition object to obtain a populated service definition object , the first set of data comprising at least subscriber specific data; • sending a service creation request to the sponsor service provider for subscribing to the selected service, the request comprising the home operator identifier , the subscription identifier , a service identifier of the selected service , the populated service definition object and a service instance identifier ; and • receiving a response from the sponsor service provider, the response comprising the populated service definition object complemented with a second set of data to allow the selected service to be executed.
A nucleic acid molecule encoding a T-cell receptor (TCR) molecule directed against a mutated TGFβRII protein which comprises the sequence of SEQ ID NO: 1, wherein said TCR molecule is capable of binding a peptide of SEQ ID NO: 1 when said peptide is presented by a Class I Major Histocompatibility Complex (MHC) comprising HLA-A2, wherein said TCR molecule, when expressed by an immune effector cell, is located on the surface of the cell, and wherein said TCR molecule comprises an α-chain domain and a β-chain domain, wherein said α-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and said β-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14. wherein said α-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 8; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 9, or a murinised version of SEQ ID NO: 9; and said β-chain domain comprises: i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14. i) a variable region comprising the amino acid sequence set forth in SEQ ID NO: 13; and ii) a constant region comprising the amino acid sequence set forth in SEQ ID NO: 14, or a murinised version of SEQ ID NO: 14.
An automated performance management system for a digital mobile phone network, the system comprising: a rule input configured to receive rules for operating on data from said network; a data input configured to receive one or both of performance and configuration data from said network; and a rules engine coupled to said rule input and to said data input configured to operate on said data from said network using said rules, and wherein said rules engine comprises: an event generator configured to identify changes in one or both of said performance and configuration data and in response to generate events; and a correlator configured to use said rules to group said events to form a hierarchy of events to identify potential faults, exceptions, or optimisations of said network, wherein a lowest level of the hierarchy of events comprises the group of said events and at least one higher level of the hierarchy of events comprises new events generated by said rules based on the group of said events. a rule input configured to receive rules for operating on data from said network; a data input configured to receive one or both of performance and configuration data from said network; and a rules engine coupled to said rule input and to said data input configured to operate on said data from said network using said rules, and wherein said rules engine comprises: an event generator configured to identify changes in one or both of said performance and configuration data and in response to generate events; and a correlator configured to use said rules to group said events to form a hierarchy of events to identify potential faults, exceptions, or optimisations of said network, wherein a lowest level of the hierarchy of events comprises the group of said events and at least one higher level of the hierarchy of events comprises new events generated by said rules based on the group of said events. an event generator configured to identify changes in one or both of said performance and configuration data and in response to generate events; and a correlator configured to use said rules to group said events to form a hierarchy of events to identify potential faults, exceptions, or optimisations of said network, wherein a lowest level of the hierarchy of events comprises the group of said events and at least one higher level of the hierarchy of events comprises new events generated by said rules based on the group of said events.
Computer-implemented method for checking a predefined route that is planned by means of a path planning algorithm in a building (B) for a mobile technical system (TS), having the method steps of: - reading in (S1) a computer-aided spatial model (BIM) of the building, comprising building data, a predefined route (W) that is planned by means of a path planning algorithm for the mobile technical system (TS) in the building (B) and parameters of the mobile technical system (TS), - deriving (S2) a boundary condition for the route (W) depending on the parameters, - checking, for a predefined point of the route (W) on the basis of the model of the building (BIM), whether the building data satisfy (S3) the boundary condition at the predefined point of the route (W), wherein positional information of the building model with positional information of the route is utilized for the check, and wherein current data of the mobile technical system (TS) are detected by a sensor (S) and these current data of the mobile technical system (TS) are communicated to a management system and the data of the mobile technical system are taken into account when checking the route (W), and - outputting a result of the check (S4), wherein, in the case of a positive checking result, the route or at least parts of the route for the mobile technical system (TS) are released and the release of the route is communicated to a control unit of the mobile technical system (S5), wherein the route is executed by the mobile technical system after the route has been released, or the mobile technical system (TS) is stopped (S7) in the case of a negative checking result. - reading in (S1) a computer-aided spatial model (BIM) of the building, comprising building data, a predefined route (W) that is planned by means of a path planning algorithm for the mobile technical system (TS) in the building (B) and parameters of the mobile technical system (TS), - deriving (S2) a boundary condition for the route (W) depending on the parameters, - checking, for a predefined point of the route (W) on the basis of the model of the building (BIM), whether the building data satisfy (S3) the boundary condition at the predefined point of the route (W), wherein positional information of the building model with positional information of the route is utilized for the check, and wherein current data of the mobile technical system (TS) are detected by a sensor (S) and these current data of the mobile technical system (TS) are communicated to a management system and the data of the mobile technical system are taken into account when checking the route (W), and - outputting a result of the check (S4), wherein, in the case of a positive checking result, the route or at least parts of the route for the mobile technical system (TS) are released and the release of the route is communicated to a control unit of the mobile technical system (S5), wherein the route is executed by the mobile technical system after the route has been released,
A method of manufacturing , comprising: compressing a non-dielectric, elastically-deformable component , a wire mesh component , and a dielectric, contoured object between first and second forming tools , with the contoured object between the first forming tool and the wire mesh component , and with the elastically-deformable component between the wire mesh component and the second forming tool ; wherein said compressing is with sufficient pressure such that the elastically-deformable component elastically deforms and the wire mesh component is flexibly compressed against a contoured surface of the contoured object by the elastically-deformable component ; and supplying radio frequency energy to the first forming tool , thereby causing a radio frequency electromagnetic field between the first forming tool and the wire mesh component that results in a contoured weld of the contoured object, wherein the wire mesh component is a first wire mesh component and the contoured weld is a first contoured weld; characterized in that said compressing includes compressing a second wire mesh component between the elastically-deformable component and the contoured object; wherein the second wire mesh component is spaced from the first wire mesh component such that said supplying radio frequency energy results in a second contoured weld of the contoured object. compressing a non-dielectric, elastically-deformable component , a wire mesh component , and a dielectric, contoured object between first and second forming tools , with the contoured object between the first forming tool and the wire mesh component , and with the elastically-deformable component between the wire mesh component and the second forming tool ; wherein said compressing is with sufficient pressure such that the elastically-deformable component elastically deforms and the wire mesh component is flexibly compressed against a contoured surface of the contoured object by the elastically-deformable component ; and supplying radio frequency energy to the first forming tool , thereby causing a radio frequency electromagnetic field between the first forming tool and the wire mesh component that results in a contoured weld of the contoured object, wherein the wire mesh component is a first wire mesh component and the contoured weld is a first contoured weld; characterized in that said compressing includes compressing a second wire mesh component between the elastically-deformable component and the contoured object; wherein the second wire mesh component is spaced from the first wire mesh component such that said supplying radio frequency energy results in a second contoured weld of the contoured object.
A method to produce a veneered element, the method comprising - applying a first layer on a substrate, - applying a second layer on the first layer, - applying a veneer layer on the second layer, - pressing the first layer, the second layer and the veneer layer together to form a veneered element, wherein, after pressing, the second layer is transparent or translucent such that the first layer is visible through a defect of the veneer layer such as a crack, cavity, hole and/or knot, and wherein, during pressing, any defect of the veneer layer such as a crack, cavity, hole and/or knot is at least partially filled with material originating from both the first and the second layer. - applying a first layer on a substrate, - applying a second layer on the first layer, - applying a veneer layer on the second layer, - pressing the first layer, the second layer and the veneer layer together to form a veneered element, wherein, after pressing, the second layer is transparent or translucent such that the first layer is visible through a defect of the veneer layer such as a crack, cavity, hole and/or knot, and wherein, during pressing, any defect of the veneer layer such as a crack, cavity, hole and/or knot is at least partially filled with material originating from both the first and the second layer.
Sodium thiosulfate for use in a method for preventing myocardial infarction, stroke, angina characterized by tissue ischemia, atherosclerosis, sudden cardiac death, high blood pressure, pulmonary hypertension, renal hypertension, or cardiovascular disease that is characterized by tissue ischemia including cerebral vasospasm, claudication, critical limb ischemia, peripheral vascular disease and sickle cell crisis, in a subject undergoing dialysis, wherein the method comprises intradialytically contacting said subject's blood with a dialyzer membrane that is also in contact with a thiosulfate-spiked dialysate, wherein an aqueous solution comprising the sodium thiosulfate is added to an unspiked dialysate as the unspiked dialysate flows from a dialysis machine to a dialyzer membrane, wherein said unspiked dialysate comprises a mixture of water, an acid concentrate solution, and a bicarbonate concentrate solution, and wherein said thiosulfate-spiked dialysate has a pH greater than 7.0, and wherein the concentration of thiosulfate in said thiosulfate-spiked dialysate is no more than 100 micromolar.
An assembly for rotational equipment, comprising: a seal land extending circumferentially around and configured to rotate about an axial centerline ; and a seal element abutted against and sealingly engaged with the seal land , the seal element extending circumferentially around the axial centerline , and the seal element comprising porous material , an exterior surface and a seal element passage , wherein the seal element is configured to flow lubricant from the seal element passage , through the porous material , to the exterior surface , characterised in that the assembly further comprises: a guide rail ; and a seal carrier mated with and translatable along the guide rail , wherein the seal element is mounted to the seal carrier . a seal land extending circumferentially around and configured to rotate about an axial centerline ; and a seal element abutted against and sealingly engaged with the seal land , the seal element extending circumferentially around the axial centerline , and the seal element comprising porous material , an exterior surface and a seal element passage , wherein the seal element is configured to flow lubricant from the seal element passage , through the porous material , to the exterior surface , characterised in that the assembly further comprises: a guide rail ; and a seal carrier mated with and translatable along the guide rail , wherein the seal element is mounted to the seal carrier . a guide rail ; and a seal carrier mated with and translatable along the guide rail , wherein the seal element is mounted to the seal carrier .
A computer-implemented method of analysing the consistency of stool, comprising the steps of: - providing stool of an infant, - capturing, with a portable device comprising a camera, an image of the stool, - providing the captured image to an input layer of a pre-trained convolutional neural network, CNN; - processing, by the portable device, the captured image using the CNN to obtain, from a final layer of the CNN, a classification vector and to obtain information about a predicted score from the classification vector; wherein the CNN has been obtained by transfer learning, by customizing at least the final layer of the CNN so that each element of the classification vector corresponds to a respective score of a stool consistency analysis scale, and - storing information about the predicted score, - wherein the image is a colour image, and wherein the method further comprises automatically detecting, by the portable device, the colour of the stool and analysing the colour to provide additional information. - providing stool of an infant, - capturing, with a portable device comprising a camera, an image of the stool, - providing the captured image to an input layer of a pre-trained convolutional neural network, CNN; - processing, by the portable device, the captured image using the CNN to obtain, from a final layer of the CNN, a classification vector and to obtain information about a predicted score from the classification vector; wherein the CNN has been obtained by transfer learning, by customizing at least the final layer of the CNN so that each element of the classification vector corresponds to a respective score of a stool consistency analysis scale, and - storing information about the predicted score, - wherein the image is a colour image, and wherein the method further comprises automatically detecting, by the portable device, the colour of the stool and analysing the colour to provide additional information.
An apparatus for ex-vivo measurement of performance of a donor heart, comprising: a heart holder in a receptacle for holding a human donor heart ; a perfusion fluid supply conduit extending into the receptacle with a connector for connection to the heart; a perfusion discharge conduit communicating with the interior space of the receptacle for collection of perfusion fluid drained from the heart; a perfusion pump and an oxygenator connected between the perfusion supply conduit and the perfusion discharge conduit; a bag for placement into a left ventricle of the heart, the bag having a bag interior space ; and a fluid tight, compressible and expandable container having a container interior space communicating with the bag interior space : characterized by: a sensor for measuring compression and expansion of the container ; an actuator for exerting a compression force on the container ; and an actuator control for varying the compression force. a heart holder in a receptacle for holding a human donor heart ; a perfusion fluid supply conduit extending into the receptacle with a connector for connection to the heart; a perfusion discharge conduit communicating with the interior space of the receptacle for collection of perfusion fluid drained from the heart; a perfusion pump and an oxygenator connected between the perfusion supply conduit and the perfusion discharge conduit; a bag for placement into a left ventricle of the heart, the bag having a bag interior space ; and a fluid tight, compressible and expandable container having a container interior space communicating with the bag interior space : characterized by: a sensor for measuring compression and expansion of the container ; an actuator for exerting a compression force on the container ; and an actuator control for varying the compression force. a sensor for measuring compression and expansion of the container ; an actuator for exerting a compression force on the container ; and an actuator control for varying the compression force.
A manufacturing method of an electrode assembly, the method comprising: blanking a first electrode from a first base (S1) comprising a first coated region and a first uncoated region ; blanking a second electrode from a second base comprising a second coated region and a second uncoated region , wherein the blanking of the second electrode comprises initially notching the second base in an edge region thereof, setting a cut position adjacent the notch by partially blanking the second base in the operation of notching, and subsequently cutting the notched second base to form the second electrode, before laminating the second electrode with the separator; laminating the second electrode with a separator ; cutting the laminated second electrode; then stacking the laminated second electrode and the first electrode together; and wherein the cutting of the laminated second electrode comprises cutting the separator so that the cut separator protrudes beyond an edge of the second electrode. blanking a first electrode from a first base (S1) comprising a first coated region and a first uncoated region ; blanking a second electrode from a second base comprising a second coated region and a second uncoated region , wherein the blanking of the second electrode comprises initially notching the second base in an edge region thereof, setting a cut position adjacent the notch by partially blanking the second base in the operation of notching, and subsequently cutting the notched second base to form the second electrode, before laminating the second electrode with the separator; laminating the second electrode with a separator ; cutting the laminated second electrode; then stacking the laminated second electrode and the first electrode together; and wherein the cutting of the laminated second electrode comprises cutting the separator so that the cut separator protrudes beyond an edge of the second electrode.