mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: an electrical harness; and a rigid electrical raft, the rigid electrical raft comprising: electrical conductors embedded in a rigid material, the electrical conductors being arranged to form part of an electrical system; and electrical heating elements (410, 420, 430) embedded in the rigid material and arranged to provide electrical heating, wherein the electrical heating elements are constructed and arranged to output more heat energy per unit length than the electrical conductors; characterized in that the rigid electrical raft forms part of said electrical harness of the gas turbine engine; and the cross-sectional area of the electrical heating elements is smaller than the cross-sectional area of the electrical conductors and/or the electrical heating elements are constructed from a higher resistance material than the electrical conductors. an electrical harness; and a rigid electrical raft, the rigid electrical raft comprising: electrical conductors embedded in a rigid material, the electrical conductors being arranged to form part of an electrical system; and electrical heating elements (410, 420, 430) embedded in the rigid material and arranged to provide electrical heating, wherein the electrical heating elements are constructed and arranged to output more heat energy per unit length than the electrical conductors; characterized in that the rigid electrical raft forms part of said electrical harness of the gas turbine engine; and the cross-sectional area of the electrical heating elements is smaller than the cross-sectional area of the electrical conductors and/or the electrical heating elements are constructed from a higher resistance material than the electrical conductors. electrical conductors embedded in a rigid material, the electrical conductors being arranged to form part of an electrical system; and electrical heating elements (410, 420, 430) embedded in the rigid material and arranged to provide electrical heating, wherein the electrical heating elements are constructed and arranged to output more heat energy per unit length than the electrical conductors; characterized in that the rigid electrical raft forms part of said electrical harness of the gas turbine engine; and the cross-sectional area of the electrical heating elements is smaller than the cross-sectional area of the electrical conductors and/or the electrical heating elements are constructed from a higher resistance material than the electrical conductors.
Method for increasing the reactivity of lignin which method comprises the following steps: - providing a mixture comprising lignin and an alkali solution wherein the concentration of the alkali solution of the mixture is between 5-50% by weight, - storing said mixture for a period of at least 1 day at room temperature whereby the reactivity of the lignin is increased. - providing a mixture comprising lignin and an alkali solution wherein the concentration of the alkali solution of the mixture is between 5-50% by weight, - storing said mixture for a period of at least 1 day at room temperature whereby the reactivity of the lignin is increased.
Process for producing a sandwich component according to the following steps: - providing a number of webs of material (1, 2, 3, 4), - applying at least one matrix material to the upper side and/or the underside of at least one of the webs of material (1, 2, 3, 4), wherein matrix material is applied in different ways to at least two of the webs of material (1, 2, 3, 4), wherein the application of matrix material takes place in different ways by applying a different type of matrix material, - arranging at least one core layer on one of the webs of material (1, 2, 3, 4), and - pressing the webs of material (1, 2, 3, 4) and the core layer to form the sandwich component, wherein the core layer is arranged between at least two of the webs of material (1, 2, 3, 4), characterized in that fibres are admixed with the matrix material. - providing a number of webs of material (1, 2, 3, 4), - applying at least one matrix material to the upper side and/or the underside of at least one of the webs of material (1, 2, 3, 4), wherein matrix material is applied in different ways to at least two of the webs of material (1, 2, 3, 4), wherein the application of matrix material takes place in different ways by applying a different type of matrix material, - arranging at least one core layer on one of the webs of material (1, 2, 3, 4), and - pressing the webs of material (1, 2, 3, 4) and the core layer to form the sandwich component, wherein the core layer is arranged between at least two of the webs of material (1, 2, 3, 4), characterized in that fibres are admixed with the matrix material.
A system configured to fulfill component requests received from applications, said system executing on a device having a processor and at least one component, the system comprising: a component service configured to associate one or more hardware components on the device with a respective address and to expose said address within a domain of a webserver on the device, said component service further configured to, upon receiving from an application executing within a virtual environment comprising a web browser on the device a component request specifying a component and a callback of the application: store the callback associated with the component request and the application, and send the component request to the component, and resume execution of the application within the virtual environment; and a callback invoking component configured to, upon detecting a completion of the component request by the component: retrieve the callback associated with the component request, and invoke the callback on behalf of the application to notify the application of the completion of the component request. a component service configured to associate one or more hardware components on the device with a respective address and to expose said address within a domain of a webserver on the device, said component service further configured to, upon receiving from an application executing within a virtual environment comprising a web browser on the device a component request specifying a component and a callback of the application: store the callback associated with the component request and the application, and send the component request to the component, and store the callback associated with the component request and the application, and send the component request to the component, and resume execution of the application within the virtual environment; and a callback invoking component configured to, upon detecting a completion of the component request by the component: retrieve the callback associated with the component request, and invoke the callback on behalf of the application to notify the application of the completion of the component request.
Coating method aimed at limiting the self-heating of activated catalysts in particle form, wherein the catalyst particles are placed in motion either in a perforated drum traversed continuously by a gas flow of temperature greater than 25°C or in a fluidised bed by means of a gas flow of temperature greater than 25°C, whereas a liquid composition containing one or more film-forming polymer(s) is sprayed onto the particles in motion, until a protective layer containing said film-forming polymer and having a mean thickness ranging from 0.1 to 20 μm is obtained on the surface of said particles.
A sensor for detecting radiation comprising: a substrate; and characterized in further comprising a micro antenna positioned on a membrane, the membrane stretched over a hole etched into (204, 206) said substrate; a microstructure (206, 215) formed on and suspended apart from said substrate; a means for coupling energy received by said micro antenna into said microstructure; a first thermocouple positioned on said microstructure adapted to detect temperature change and generate a temperature change signal in response thereto; (419, 420, 423, 427) and read out electronics coupled to receive said temperature change signal (205, 429, 431, 511a, 511b). a substrate; and characterized in further comprising a micro antenna positioned on a membrane, the membrane stretched over a hole etched into (204, 206) said substrate; a microstructure (206, 215) formed on and suspended apart from said substrate; a means for coupling energy received by said micro antenna into said microstructure; a first thermocouple positioned on said microstructure adapted to detect temperature change and generate a temperature change signal in response thereto; (419, 420, 423, 427) and read out electronics coupled to receive said temperature change signal (205, 429, 431, 511a, 511b). a microstructure (206, 215) formed on and suspended apart from said substrate; a means for coupling energy received by said micro antenna into said microstructure; a first thermocouple positioned on said microstructure adapted to detect temperature change and generate a temperature change signal in response thereto; (419, 420, 423, 427) and read out electronics coupled to receive said temperature change signal (205, 429, 431, 511a, 511b).
A method for transmitting consumption data by a meter intended for a meter data management system, comprising the following steps performed by said meter: - obtaining consumption data, said data being obtained by metrology software; - generating a hashcode from a quadruplet comprising said consumption data obtained and a triplet comprising a serial number of said meter, a cyclic redundancy code calculated from said metrology software and a certificate number certifying that said meter is authorised to be used for invoicing consumption; - encrypting said hashcode with a private key known solely to the meter, said encrypted hashcode being a signature; and - transmitting, to the system managing said consumption data, a frame comprising an identifier of said meter, said consumption data obtained and said signature. - obtaining consumption data, said data being obtained by metrology software; - generating a hashcode from a quadruplet comprising said consumption data obtained and a triplet comprising a serial number of said meter, a cyclic redundancy code calculated from said metrology software and a certificate number certifying that said meter is authorised to be used for invoicing consumption; - encrypting said hashcode with a private key known solely to the meter, said encrypted hashcode being a signature; and - transmitting, to the system managing said consumption data, a frame comprising an identifier of said meter, said consumption data obtained and said signature.
A pesticidal composition comprising at least one granular substrate material containing at least one metal chelate of 2-(2'-nitro-4'-methylsulphonylbenzoyl)-1,3-cyclohexanedione.
An agrochemical composition containing at least one active ingredient selected from the group consisting of pesticides, growth regulators and/or fertilizers, characterised in that it further contains a tertiary amide of formula wherein: R1 is an aliphatic group having 5-13 carbon atoms; R2, R3, R4 and R5 are independently an alkyl group with 1-3 carbon atoms. R1 is an aliphatic group having 5-13 carbon atoms; R2, R3, R4 and R5 are independently an alkyl group with 1-3 carbon atoms.
An element housing package, comprising: a base body having a rectangular shape when seen in a plan view, having a mounting region for mounting a semiconductor element; a frame body disposed on an upper surface of the base body so as to surround the mounting region; a connection conductor, to electrically connect the semiconductor element, disposed from the upper surface to a lower surface of the base body; a circuit conductor disposed on the lower surface of the base body, one end of the circuit conductor being electrically connected to the connection conductor and an other end of the circuit conductor being drawn out laterally from a first side surface of the base body; and a metal plate bonded to the lower surface of the base body, having an attachment region which is drawn out laterally from a second side surface adjacent to the first side surf ace of the base body to be attached to a mounting board, and a ground conductor region which is drawn out laterally from the first side surface of the base body so as to be parallel to the circuit conductor, the metal plate further having an outer peripheral region which is drawn out laterally from the first side surface and the second side surface of the base body, from the ground conductor region to the attachment region along an outer periphery of the base body when seen in a plan view. a base body having a rectangular shape when seen in a plan view, having a mounting region for mounting a semiconductor element; a frame body disposed on an upper surface of the base body so as to surround the mounting region; a connection conductor, to electrically connect the semiconductor element, disposed from the upper surface to a lower surface of the base body; a circuit conductor disposed on the lower surface of the base body, one end of the circuit conductor being electrically connected to the connection conductor and an other end of the circuit conductor being drawn out laterally from a first side surface of the base body; and a metal plate bonded to the lower surface of the base body, having an attachment region which is drawn out laterally from a second side surface adjacent to the first side surf ace of the base body to be attached to a mounting board, and a ground conductor region which is drawn out laterally from the first side surface of the base body so as to be parallel to the circuit conductor, the metal plate further having an outer peripheral region which is drawn out laterally from the first side surface and the second side surface of the base body, from the ground conductor region to the attachment region along an outer periphery of the base body when seen in a plan view.
A partition assembly for an aircraft cabin, the assembly comprising: a bulkhead including first and second internal compartments (28,30) with one of the first and second compartments (28,30) being located aft of the other, the first and second compartments (28,30) having respective first and second open ends (32,34) defined in a same side of the bulkhead; a sliding door slidingly supported within the first compartment and slidable out of the first compartment through the first open end; and a curtain slidingly engaged to a curtain rail, the curtain receivable in the second compartment and slidable along the curtain rail out of the second compartment through the second open end. a bulkhead including first and second internal compartments (28,30) with one of the first and second compartments (28,30) being located aft of the other, the first and second compartments (28,30) having respective first and second open ends (32,34) defined in a same side of the bulkhead; a sliding door slidingly supported within the first compartment and slidable out of the first compartment through the first open end; and a curtain slidingly engaged to a curtain rail, the curtain receivable in the second compartment and slidable along the curtain rail out of the second compartment through the second open end.
Controller for a camera device for stereoscopically recording a monitoring area containing objects (12a, 12b), wherein the camera device comprises a first camera unit and a second camera unit, wherein the first camera unit is designed to record a first monitoring image of the monitoring area, wherein the second camera unit is designed to record a second monitoring image of the monitoring area, wherein the camera device is designed to provide the first monitoring image and the second monitoring image to the controller, wherein the distance between the camera unit and the object (12a, 12b) in the monitoring area is in each case referred to as object distance, having a processing module, wherein the processing module has at least one limit object area and is designed to process the first monitoring image so as to form a first reduced image and to process the second monitoring image so as to form a second reduced image, wherein the first reduced image and the second reduced image each have a high-resolution section and a low-resolution section, wherein the high-resolution section is in each case a section that shows a remote area of the monitoring area, wherein the remote area is an area of the monitoring area that is further away from the camera device than the limit object area, wherein the low-resolution section is a section that shows a near area of the monitoring area, wherein the near area is an area of the monitoring area that is closer to the camera device than the limit object area, having an evaluation module for stereoscopically recording the monitoring area based on the first reduced image and the second reduced image.
A fabric for use in a covering for a building structure comprising in combination: a flexible vertically extending support structure, and a plurality of parallel elongated vanes (282, 288, 308, 356) supported at spaced locations along said support structure, said vanes comprising semi-rigid slats that are somewhat stiff but can be flexed or folded and having respective upper and lower edges with upper edges secured to said support structure so as to form an acute angle with said support structure wherein movement of said vanes is totally dependant on movement of said support structure, wherein the slats or vanes (282, 288, 308, 356) are slightly arcuate in transverse cross-section and each slat or vane has a height such that the respective lower edge overlaps the next adjacent lower vane with the fabric in fully extended condition such that the fabric can be rolled around and unrolled from a roller. a flexible vertically extending support structure, and a plurality of parallel elongated vanes (282, 288, 308, 356) supported at spaced locations along said support structure, said vanes comprising semi-rigid slats that are somewhat stiff but can be flexed or folded and having respective upper and lower edges with upper edges secured to said support structure so as to form an acute angle with said support structure wherein movement of said vanes is totally dependant on movement of said support structure, wherein the slats or vanes (282, 288, 308, 356) are slightly arcuate in transverse cross-section and each slat or vane has a height such that the respective lower edge overlaps the next adjacent lower vane with the fabric in fully extended condition such that the fabric can be rolled around and unrolled from a roller.
A foot and mouth disease virus having improved stability compared to the field isolate of the same subtype, wherein the virus comprises at least the following mutations: (i) L78S, E79A, K80R, T88A, S110T, E131K and A193S in VP2 with reference to the position numbering of VP2 from A strain FMDV shown as SEQ ID No. 1; and (ii) H85P and E196A in VP3 with reference to the position numbering of VP3 from A strain FMDV shown as SEQ ID No. 2. (i) L78S, E79A, K80R, T88A, S110T, E131K and A193S in VP2 with reference to the position numbering of VP2 from A strain FMDV shown as SEQ ID No. 1; and (ii) H85P and E196A in VP3 with reference to the position numbering of VP3 from A strain FMDV shown as SEQ ID No. 2.
An enclave identification method performed by a computing device comprising a processor and memory, the method comprising: receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated, wherein the identity value is determined as an output of a hash function, and wherein the enclave image includes references to additional dependent enclave images; and performing the operation with the identity value, wherein the method further comprises: determining, based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining, based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function. receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated, wherein the identity value is determined as an output of a hash function, and wherein the enclave image includes references to additional dependent enclave images; and performing the operation with the identity value, wherein the method further comprises: determining, based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining, based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function. determining, based at least in part on the identity type, an identity portion of the enclave image; computing the hash function over the identity portion; and determining, based at least in part on the identity type, which of the additional dependent enclave images are included in as input to the hash function.
A delivery system (10, 60, 160, 260) for delivery of a radially expandable device (12, 20, 20', 40, 80, 280, 502) to an implantation site in the heart of a patient, the delivery system (10, 60, 160, 260,) comprising: an elongated tubular member (62, 162) comprising a distal tip (64, 92) and an outer surface; a first balloon portion (70, 170) spaced proximally from the distal tip (64, 92) along a length of the tubular member (62, 162); a second balloon portion (72, 172) spaced proximally from the first balloon portion (70, 170, 406) along the length of the tubular member (62, 162); an annular space between the first and second balloon portions (70, 72, 170, 172); characterized by a plurality of clip deployment tubes (68, 168) extendably moveable relative to the outer surface of the tubular member (62, 162), wherein each clip deployment tube (68, 168) comprises a distal end; and a plurality of clips (82, 504), wherein each clip (82, 504) is moveable within a length of one of the clip deployment tubes (68, 168) between a retracted position and a deployed position. an elongated tubular member (62, 162) comprising a distal tip (64, 92) and an outer surface; a first balloon portion (70, 170) spaced proximally from the distal tip (64, 92) along a length of the tubular member (62, 162); a second balloon portion (72, 172) spaced proximally from the first balloon portion (70, 170, 406) along the length of the tubular member (62, 162); an annular space between the first and second balloon portions (70, 72, 170, 172); characterized by a plurality of clip deployment tubes (68, 168) extendably moveable relative to the outer surface of the tubular member (62, 162), wherein each clip deployment tube (68, 168) comprises a distal end; and a plurality of clips (82, 504), wherein each clip (82, 504) is moveable within a length of one of the clip deployment tubes (68, 168) between a retracted position and a deployed position.
A process for preparing cortexolone-17α-propionate in hydrate crystalline form IV characterized by a DRX spectrum as represented in Figure 28, which comprises crystallizing the cortexolone-17α-propionate from a propylene glycol/water mixture or from a polyethylene glycol/water mixture, to give cortexolone-17α-propionate in hydrate crystalline form IV.