mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal , comprising: at least one user data communication block and a spectrum sensing control block , wherein the user data communication block is configured to transport user data, the user data communication block comprising two or more logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), wherein each of the logical sub blocks is configured to process user data on different protocol layer, and wherein the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) comprise a user data interface for transporting the user data to and from a sub block of an upper protocol layer and a sensing data interface (36-38) for outputting sensing data to a spectrum sensing control block ; and wherein the spectrum sensing control block is configured to request spectrum sensing data from at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), and to control, through the sensing data interface (36-38), spectrum sensing performed by the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) and to receive the sensing data from the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n). at least one user data communication block and a spectrum sensing control block , wherein the user data communication block is configured to transport user data, the user data communication block comprising two or more logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), wherein each of the logical sub blocks is configured to process user data on different protocol layer, and wherein the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) comprise a user data interface for transporting the user data to and from a sub block of an upper protocol layer and a sensing data interface (36-38) for outputting sensing data to a spectrum sensing control block ; and wherein the spectrum sensing control block is configured to request spectrum sensing data from at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n), and to control, through the sensing data interface (36-38), spectrum sensing performed by the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n) and to receive the sensing data from the at least one of the logical sub blocks (32-34, 32a-43a, 32b-34b, 32n-34n).
A turbofan gas turbine engine comprising a low pressure spool including a fan rotor , a low pressure turbine rotor , a low pressure drive shaft extending along an axis and rotationally coupling the fan rotor to receive driven rotation about the axis from the low pressure turbine rotor , and a low pressure motor-generator mounted on the low pressure drive shaft and adapted for selective operation between a generation mode to generate electric power from driven rotation of the low pressure turbine rotor and a drive mode to electrically drive rotation of the low pressure drive shaft , a high pressure spool including a compressor rotor , a high pressure turbine rotor , a high pressure drive shaft extending along the axis and rotationally coupling the compressor rotor to receive driven rotation about the axis from the high pressure turbine rotor , and an high pressure motor-generator adapted for selective operation between a generation mode to generate electric power from driven rotation of the high pressure turbine rotor and a drive mode to electrically drive rotation of the high pressure drive shaft , a power control module electrically connected to each of the low pressure motor- generator and the high pressure motor-generator and configured to determine operational conditions of the engine and to selectively operate each of the low pressure motor-generator and the high pressure motor-generator in either of the generation mode and the drive mode based on the determined operational conditions of the engine , and wherein in response to determination that the operational conditions are high demand operational conditions, the power control module is configured to operate the low pressure motor-generator in the generation mode and to operate the high pressure motor-generator in the drive mode to assist the rotation of the high pressure drive shaft , characterized by an energy storage device electrically connected to the power control module to selectively communicate electric power with the power control module , wherein the power control module is configured to direct electric power from the energy storage device to the low pressure motor-generator , wherein in response to determination that the operational conditions include loss of engine power including an operational shut down of the engine , the power control module is configured to selectively operate the low pressure motor-generator in the drive mode to provide thrust assist.
A rotary electric machine comprising: - a casing in which a stator and a rotor are accommodated, the stator and the rotor extending in a axial direction; and - a gas cooling unit , the gas cooling unit including: - intake ports for a cooling gas provided on both ends in the axial direction and communicating with the casing ; - a high temperature cooling gas flow path which extends between the intake ports and through which the cooling gas at high temperature sucked from the intake ports passes; - a ventilation surface exchanging heat with the cooling gas at high temperature from the high temperature cooling gas flow path and cooling the cooling gas; - a low temperature cooling gas flow path which extends between exhaust ports and through which the cooling gas having passed through the ventilation surface passes; and - the exhaust ports for the cooling gas which are provided at both ends in the axial direction and through which the cooling gas at low temperature in the low temperature cooling gas flow path flows to the casing , wherein the ventilation surface is disposed above, below, or beside a side surface of the casing so as to be parallel to a rotary shaft of the rotor , wherein the gas cooling unit is integrally attached to the casing and disposed so that the high temperature cooling gas flow path is away from the casing and the low temperature cooling gas flow path is close to the casing , wherein in the low temperature cooling gas flow path , a stream of the cooling gas flows to one exhaust port , and another stream flows to the other exhaust port , wherein the two streams flow into an air gap between the stator and the rotor into radial ports in the stator , and wherein the radial ports of the stator are connected to a third path that axially extends between the stator and the casing , and wherein the third path is connected to each of the intake ports , the rotary electric machine further comprising a heat insulating unit provided between the low temperature cooling gas flow path of the gas cooling unit and the casing , the heat insulating unit preventing transfer of heat between the low temperature cooling gas flow path and the casing . - a casing in which a stator and a rotor are accommodated, the stator and the rotor extending in a axial direction; and - a gas cooling unit , - intake ports for a cooling gas provided on both ends in the axial direction and communicating with the casing ; - a high temperature cooling gas flow path which extends between the intake ports and through which the cooling gas at high temperature sucked from the intake ports passes; - a ventilation surface exchanging heat with the cooling gas at high temperature from the high temperature cooling gas flow path and cooling the cooling gas; - a low temperature cooling gas flow path which extends between exhaust ports and through which the cooling gas having passed through the ventilation surface passes; and - the exhaust ports for the cooling gas which are provided at both ends in the axial direction and through which the cooling gas at low temperature in the low temperature cooling gas flow path flows to the casing ,
A computer-implemented method for facilitating testing of a control system for process control or process safety, and interfacing of the control system with an external dynamic process model , by means of a test and simulation tool , the control system comprising a plurality of control module types , wherein the method comprises: c) receiving, via an I/O port of the test and simulation tool , control module type data from a controller of the control system , associated with a control module type , d) converting the control module type data to simplified control module type data based on the control module type , e) providing the simplified control module type data to a simplified general control module type , the simplified general control module type being a simplified representation of the control module type , wherein the converting in step d) involves changing the format of the control module type data based on a predetermined rule of mapping from the control module type to the corresponding simplified general control module type, and f) performing, by means of the test and simulation tool without utilising the external dynamic process model , a feedback simulation using the simplified general control module type and the simplified control module type data to obtain feedback simulation data, and h) feeding the feedback simulation data back to the controller, or g) sending the simplified control module type data from the test and simulation tool to the external dynamic process model . c) receiving, via an I/O port of the test and simulation tool , control module type data from a controller of the control system , associated with a control module type , d) converting the control module type data to simplified control module type data based on the control module type , e) providing the simplified control module type data to a simplified general control module type , the simplified general control module type being a simplified representation of the control module type , wherein the converting in step d) involves changing the format of the control module type data based on a predetermined rule of mapping from the control module type to the corresponding simplified general control module type, and f) performing, by means of the test and simulation tool without utilising the external dynamic process model , a feedback simulation using the simplified general control module type and the simplified control module type data to obtain feedback simulation data, and h) feeding the feedback simulation data back to the controller, or g) sending the simplified control module type data from the test and simulation tool to the external dynamic process model .
A noise generation device comprising: a housing defining a chamber , the housing comprising a wall member moveable between a sealed position and an open position, wherein in the sealed position the chamber 103 is fluidly sealed and in the open position the chamber is open; an injection assembly for injecting combustible material into the chamber 103; a triggering assembly for triggering the combustible material to combust inside the chamber 103 to generate a noise, wherein the noise generation device is configured such that the moveable wall member moves from the sealed position to the open position on combustion of the material inside the chamber to allow material to exit the chamber ; If characterized in that the moveable wall member comprises a sleeve adapted to slide longitudinally, between the sealed position and the open position, along a sleeve guide spaced from a body portion of the noise generation device, and wherein in the sealed position the sleeve abuts the body portion and spans the space between the body portion and the sleeve guide such that the chamber is defined at least by the sleeve guide , the sleeve and the body portion , and in the open position the sleeve is spaced from the body portion to open the chamber . a housing defining a chamber , the housing comprising a wall member moveable between a sealed position and an open position, wherein in the sealed position the chamber 103 is fluidly sealed and in the open position the chamber is open; an injection assembly for injecting combustible material into the chamber 103; a triggering assembly for triggering the combustible material to combust inside the chamber 103 to generate a noise, wherein the noise generation device is configured such that the moveable wall member moves from the sealed position to the open position on combustion of the material inside the chamber to allow material to exit the chamber ; If characterized in that the moveable wall member comprises a sleeve adapted to slide longitudinally, between the sealed position and the open position, along a sleeve guide spaced from a body portion of the noise generation device, and wherein in the sealed position the sleeve abuts the body portion and spans the space between the body portion and the sleeve guide such that the chamber is defined at least by the sleeve guide , the sleeve and the body portion , and in the open position the sleeve is spaced from the body portion to open the chamber .
Method for transmitting data packets provided by at least one stationary data transmission device via at least one channel in a vehicle , characterized in that the data packets are received by a communication control unit by means of a communication module configured for reception via the at least one channel , and the data packets are temporarily stored in a memory , a permissible delivery latency being determined for each data packet, which indicates the time period, from the receipt of the data packet by the communication module , within which this data packet is to be processed and/or displayed in the vehicle , and the data packets being transmitted in a sequence to at least one further component of the vehicle via at least one data transmission path , the transmission rate of which is lower than the maximum transmission rate of the at least one channel , the sequence of the transmission of the data packets being determined in such a way that the permissible delivery latency of each data packet is adhered to. the data packets are received by a communication control unit by means of a communication module configured for reception via the at least one channel , and the data packets are temporarily stored in a memory , a permissible delivery latency being determined for each data packet, which indicates the time period, from the receipt of the data packet by the communication module , within which this data packet is to be processed and/or displayed in the vehicle , and the data packets being transmitted in a sequence to at least one further component of the vehicle via at least one data transmission path , the transmission rate of which is lower than the maximum transmission rate of the at least one channel , the sequence of the transmission of the data packets being determined in such a way that the permissible delivery latency of each data packet is adhered to.
Method for operating a drive train with a power generator, a mechanical power transmission device and a power consumer, wherein the power transmission device is monitored in order to detect mechanical damage and/or the development of mechanical damage to the power transmission device, characterised in that any detected damage and/or detected development of damage is/are located according to its/their angle of rotation or range of angles of rotation, and the power generator, the power transmission device and/or the power consumer is/are controlled such that a mechanical load is selectively reduced at the identified location of damage and/or location of developing damage.
A method for locating a position of a target object equipped with a plurality of spatially distributed antennas in a network of a plurality of anchors at fixed locations, the method comprising: assigning a plurality of anchor pairs, each anchor pair of the plurality of anchor pairs including at least two anchors of a plurality of anchors, wherein each anchor pair is configured to transmit ranging packets according to a transmission schedule by: transmitting , by a first anchor of the anchor pair, a range request, REQ, packet; receiving , by a second anchor of the anchor pair, the REQ packet; and transmitting , by the second anchor in response to the REQ packet, a range response, RSP, packet; receiving , by at least one of the plurality of antennas on the target object, the REQ packet,; receiving , by at least one of the plurality of antennas on the target object, the RSP packet; estimating for each anchor pair, distance differences from the target object to the first anchor and the second anchor, based on times at which the REQ packet and the RSP packet are received by at least two of the plurality of antennas of the target object, the at least two antennas being separated spatially on the target object by a predetermined distance; and estimating the position of a center of the target object based on the estimated distance differences for each anchor pair. transmitting , by a first anchor of the anchor pair, a range request, REQ, packet; receiving , by a second anchor of the anchor pair, the REQ packet; and transmitting , by the second anchor in response to the REQ packet, a range response, RSP, packet; receiving , by at least one of the plurality of antennas on the target object, the REQ packet,; receiving , by at least one of the plurality of antennas on the target object, the RSP packet; estimating for each anchor pair, distance differences from the target object to the first anchor and the second anchor, based on times at which the REQ packet and the RSP packet are received by at least two of the plurality of antennas of the target object, the at least two antennas being separated spatially on the target object by a predetermined distance; and estimating the position of a center of the target object based on the estimated distance differences for each anchor pair.
A material supply system , comprising: a material tank ; a spray device ; a material sensor system coupled to the material tank , wherein the material sensor system comprises: a float system coupled to an inner surface of the material tank , wherein the float system comprises a float configured to float within a float cavity ; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch , and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device , wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer ; and in that the switch is coupled to an outer surface of the material tank , wherein the switch is communicatively coupled to the float system through a wall of the material tank . a material tank ; a spray device ; a material sensor system coupled to the material tank , wherein the material sensor system comprises: a float system coupled to an inner surface of the material tank , wherein the float system comprises a float configured to float within a float cavity ; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch , and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device , wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer ; and in that the switch is coupled to an outer surface of the material tank , wherein the switch is communicatively coupled to the float system through a wall of the material tank . a float system coupled to an inner surface of the material tank , wherein the float system comprises a float configured to float within a float cavity ; and a switch configured to send one or more signals indicative of an out-of-material condition to a control system when the float engages the switch , and characterised in that the material supply system also comprises a material mixer fluidly coupled between the material tank and the spray device , wherein the material tank is configured to receive a material and to output a flow of the material toward the spray device via the material mixer ; and in that the switch is coupled to an outer surface of the material tank , wherein the switch is communicatively coupled to the float system through a wall of the material tank .
A system including: a memory configured to store a blockchain secured by an integrity code ; and blockchain phase circuitry configured to: during a rewrite-permissive phase for a trusted party , cause, on behalf of the trusted party , execution of a rewrite of content of a block within the blockchain , the rewrite coding-consistent with the integrity code ; wherein a key secret for the integrity code is used to compute collision data to perform the rewrite coding-consistent with the integrity code ; responsive to a trigger condition, pass access to rewrites away from the trusted party to initiate a rewrite-embargoed phase for the trusted party ; wherein the blockchain phase circuitry is configured to delete the key secret for the integrity code to initiate the rewrite-embargoed phase; and during the rewrite-embargoed phase for the trusted party , cause, on behalf of the trusted party , unsuccessful execution of the rewrite of the content of the block within the blockchain , the rewrite coding-inconsistent with the integrity code . during a rewrite-permissive phase for a trusted party , cause, on behalf of the trusted party , execution of a rewrite of content of a block within the blockchain , the rewrite coding-consistent with the integrity code ; wherein a key secret for the integrity code is used to compute collision data to perform the rewrite coding-consistent with the integrity code ; responsive to a trigger condition, pass access to rewrites away from the trusted party to initiate a rewrite-embargoed phase for the trusted party ; wherein the blockchain phase circuitry is configured to delete the key secret for the integrity code to initiate the rewrite-embargoed phase; and during the rewrite-embargoed phase for the trusted party , cause, on behalf of the trusted party , unsuccessful execution of the rewrite of the content of the block within the blockchain , the rewrite coding-inconsistent with the integrity code .
A composition, comprising: a polythiol; and a wetted filler, wherein the wetted filler comprises greater than 0.1 wt% water, wherein wt% is based on the total weight of the wetted filler, and wherein the composition comprises from 0.1 wt% to 10 wt% water, wherein the water is derived from the wetted filler, and wt% is based on the total weight of the composition. a polythiol; and a wetted filler, wherein the wetted filler comprises greater than 0.1 wt% water, wherein wt% is based on the total weight of the wetted filler, and wherein the composition comprises from 0.1 wt% to 10 wt% water, wherein the water is derived from the wetted filler, and wt% is based on the total weight of the composition.
A polypeptide for use in treating or preventing anemia or increasing red blood cell levels in a patient, wherein said increasing, treating or preventing comprises administering the polypeptide and an erythropoietin receptor activator in an effective amount; wherein the polypeptide comprises an amino acid sequence that is at least 90% identical to the sequence of amino acids 29-109 of SEQ ID NO: 1, and wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1; and wherein the erythropoietin receptor activator is an erythropoiesis-stimulating agent selected from the group consisting of epoetin alfa, epoetin beta, epoetin delta, epoetin omega, darbepoetin alfa, methoxy-polyethylene-glycol epoetin beta and synthetic erythropoiesis protein.