mhurhangee/patent-ind-claim-en huggingface dataset:
A reception apparatus comprising: a reception portion configured to receive Audio-Video, AV, content from a digital TV broadcast; a trigger extraction portion configured to extract trigger information from said AV content for operating an application program executed in interlocked relation to said AV content; characterised by a table acquisition portion configured to acquire a correspondence table from a server via the Internet, and retain said correspondence table in memory, wherein the correspondence table associates said trigger information with commands for controlling the operation of said application program, the commands including at least one of suspension and termination of said application program; a command determination portion configured to determine, based on the acquired correspondence table, at least one command associated with the extracted trigger information among said commands; and a control portion configured to access an application server via the Internet, receive said application program from the application server, retain said application program in memory, execute said application program, and control the operation of said application program in response to the determined at least one command. a reception portion configured to receive Audio-Video, AV, content from a digital TV broadcast; a trigger extraction portion configured to extract trigger information from said AV content for operating an application program executed in interlocked relation to said AV content; characterised by a table acquisition portion configured to acquire a correspondence table from a server via the Internet, and retain said correspondence table in memory, wherein the correspondence table associates said trigger information with commands for controlling the operation of said application program, the commands including at least one of suspension and termination of said application program; a command determination portion configured to determine, based on the acquired correspondence table, at least one command associated with the extracted trigger information among said commands; and a control portion configured to access an application server via the Internet, receive said application program from the application server, retain said application program in memory, execute said application program, and control the operation of said application program in response to the determined at least one command.
An electromagnetic valve comprising: a fixed core having a closed end and forming a magnetic circuit in an inner periphery of an electromagnetic coil ; and a moveable core configured to be sucked to the fixed core and allowed to be axially displaced, wherein a magnetic void is formed between the moveable core and a suction surface of the fixed core to which the moveable core is sucked, a magnetic resistance increasing part is provided around the magnetic void, the magnetic resistance increasing part is formed of a member different from the fixed core and the moveable core , and a cylindrical void is provided at the magnetic resistance increasing part , and the cylindrical void surrounds the magnetic void and extends axially on both sides of the fixed core and the moveable core , wherein a center of the fixed core facing the moveable core is provided with a cavity communicating with the magnetic void, wherein the magnetic void is configured to store a spring, characterized in that the moveable core is configured to be sucked into the fixed core . a fixed core having a closed end and forming a magnetic circuit in an inner periphery of an electromagnetic coil ; and a moveable core configured to be sucked to the fixed core and allowed to be axially displaced, wherein a magnetic void is formed between the moveable core and a suction surface of the fixed core to which the moveable core is sucked, a magnetic resistance increasing part is provided around the magnetic void, the magnetic resistance increasing part is formed of a member different from the fixed core and the moveable core , and a cylindrical void is provided at the magnetic resistance increasing part , and the cylindrical void surrounds the magnetic void and extends axially on both sides of the fixed core and the moveable core , wherein a center of the fixed core facing the moveable core is provided with a cavity communicating with the magnetic void, wherein the magnetic void is configured to store a spring, characterized in that the moveable core is configured to be sucked into the fixed core .
A method for producing a Spar Cap, trailing edge and/or other reinforced laminate structural parts of wind turbine blade, comprising the steps of: a) preparing a preform of the Spar Cap, trailing edge or other reinforced laminate structural part of wind turbine blade by a polyurethane pultrusion process; b) placing at least one layer of the preform and at least one reinforced material, preferably a fiber reinforced material into a vacuum infusion mold; and c) vacuum-infusing a polyurethane composition (ii), and curing it to obtain the Spar Cap, trailing edge or other reinforced laminate structural part of wind turbine blade; characterized in that step b) further comprises the step of dehumidifying the preform and the reinforced material under vacuum. a) preparing a preform of the Spar Cap, trailing edge or other reinforced laminate structural part of wind turbine blade by a polyurethane pultrusion process; b) placing at least one layer of the preform and at least one reinforced material, preferably a fiber reinforced material into a vacuum infusion mold; and c) vacuum-infusing a polyurethane composition (ii), and curing it to obtain the Spar Cap, trailing edge or other reinforced laminate structural part of wind turbine blade;
A system (100; 300; 450), comprising: a blood pressure modulation device configured to deliver a therapy to chronically maintain blood pressure within a prescribed range, the blood pressure modulation device including a neuromodulator configured to deliver neuromodulation energy to neural tissue in a spinal cord or near the spinal cord using a first parameter set; and a controller, including analyzer circuitry configured to determine an actual or anticipated blood pressure demand event indicated for a blood pressure change, and therapy parameter adjuster circuitry configured to respond to the actual or anticipated blood pressure demand event by delivering neuromodulation energy using a second parameter set to change the blood pressure, wherein the frequency of the neuromodulation energy delivered using the first parameter set is within a range between 20 Hz to 200 Hz, and the frequency of the neuromodulation energy delivered using the second parameter set is within a range between 700 Hz to 1500 Hz. a blood pressure modulation device configured to deliver a therapy to chronically maintain blood pressure within a prescribed range, the blood pressure modulation device including a neuromodulator configured to deliver neuromodulation energy to neural tissue in a spinal cord or near the spinal cord using a first parameter set; and a controller, including analyzer circuitry configured to determine an actual or anticipated blood pressure demand event indicated for a blood pressure change, and therapy parameter adjuster circuitry configured to respond to the actual or anticipated blood pressure demand event by delivering neuromodulation energy using a second parameter set to change the blood pressure, wherein the frequency of the neuromodulation energy delivered using the first parameter set is within a range between 20 Hz to 200 Hz, and the frequency of the neuromodulation energy delivered using the second parameter set is within a range between 700 Hz to 1500 Hz.
Method for transmitting, between a source terminal (T1), a first recipient terminal (T2) and a second recipient terminal (T3), digital content containing a datum representative of a number ( N ) of permitted loans of the digital content by the source terminal, comprising the following steps: - modifying the digital content, which modification comprises the insertion into said digital content, by the source terminal, of a datum representative of a number ( N ') of permitted loans of the digital content by the first recipient terminal, which is lower than the number ( N ) of permitted loans of the digital content by the source terminal; and - transmitting the modified digital content to said at least one first recipient terminal, - transmitting said modified digital content from the first recipient terminal to a second recipient terminal (T3) on the basis of the datum representative of a number ( N ') of permitted loans of the digital content by the first recipient terminal. - modifying the digital content, which modification comprises the insertion into said digital content, by the source terminal, of a datum representative of a number ( N ') of permitted loans of the digital content by the first recipient terminal, which is lower than the number ( N ) of permitted loans of the digital content by the source terminal; and - transmitting the modified digital content to said at least one first recipient terminal, - transmitting said modified digital content from the first recipient terminal to a second recipient terminal (T3) on the basis of the datum representative of a number ( N ') of permitted loans of the digital content by the first recipient terminal.
A network device (SW31, SW32, SW33, SW34) for a process control system for controlling an industrial process implemented at a plant, the network device (SW31, SW32, SW33, SW34) comprising: a first detector , which is configured to detect a connection state of the network device (SW31, SW32, SW33, SW34) with a network (N1) that is provided in the plant, and a second detector , which is configured to detect a state of the network device (SW31, SW32, SW33, SW34), characterized by a first information collection unit configured to receive a first field device state information in a first coding system from a first field device , the first coding system including an information code indicating a state of the first field device , a first normalization unit configured to convert the first field device state information in the first coding system, a connection information which indicates a first detection result detected by the first detector , and a network device state information which indicates a second detection result detected by the second detector , into a first field device state information in a predetermined coding system, a connection information in the predetermined coding system, and a network device state information in the predetermined coding system, respectively, and a first communication unit configured to output, to the network (N1), the first field device state information in the predetermined coding system, the connection information in the predetermined coding system, and the network device state information in the predetermined coding system. a first detector , which is configured to detect a connection state of the network device (SW31, SW32, SW33, SW34) with a network (N1) that is provided in the plant, and a second detector , which is configured to detect a state of the network device (SW31, SW32, SW33, SW34), characterized by a first information collection unit configured to receive a first field device state information in a first coding system from a first field device , the first coding system including an information code indicating a state of the first field device , a first normalization unit configured to convert the first field device state information in the first coding system, a connection information which indicates a first detection result detected by the first detector , and a network device state information which indicates a second detection result detected by the second detector , into a first field device state information in a predetermined coding system, a connection information in the predetermined coding system, and a network device state information in the predetermined coding system, respectively, and a first communication unit configured to output, to the network (N1), the first field device state information in the predetermined coding system, the connection information in the predetermined coding system, and the network device state information in the predetermined coding system.
Rear support for coupling to a tubular structure of a frame, wherein the support comprises a U-shaped structure formed by two sides and a bottom , wherein the bottom incorporates on its upper and lower part, two holes separated from each other at an equidistant distance, and the two sides being formed by lugs on the upper and lower part, having a through-hole in their middle part, intended for connection to the towing vehicle hitch, both lugs being joined together by means of a recess formed by a radial section , characterised in that the bottom has, on its upper part, an L-shaped welded support , which has, at its free end, two through-holes , placed in line with the holes positioned on the upper part of the bottom .
An inorganic fiber comprising the fiberization product of 65 to 86 weight percent silica, 14 to 35 weight percent magnesia, 0.5 weight percent or less calcia, greater than 0 to 0.45 weight percent lithium oxide, and greater than 0 to 2 weight percent alumina, the fiberization product comprises greater than 0 to 11 weight percent zirconia; and which does not contain or contains more than 5 weight percent strontium oxide.
A method of wireless communication performed by a user equipment, UE, comprising: operating using a first configuration during a first stage of a discontinuous reception, DRX, cycle where the UE is in a DRX active state, wherein the first configuration is based at least in part on a first set of parameter values associated with a first power consumption rate; and operating using a second configuration during a second stage of the DRX cycle where the UE is in the DRX active state, wherein the second configuration is based at least in part on a second set of parameter values associated with a second power consumption rate, wherein the second power consumption rate is different to the first power consumption rate. operating using a first configuration during a first stage of a discontinuous reception, DRX, cycle where the UE is in a DRX active state, wherein the first configuration is based at least in part on a first set of parameter values associated with a first power consumption rate; and operating using a second configuration during a second stage of the DRX cycle where the UE is in the DRX active state, wherein the second configuration is based at least in part on a second set of parameter values associated with a second power consumption rate, wherein the second power consumption rate is different to the first power consumption rate.
A vehicle side structure comprising: a hollow beam structure disposed along a lateral side of the vehicle; wherein a tapered lateral push element comprising an inclined outer support side arranged at an angle with respect to a longitudinal axis of the vehicle, the inclined outer support side is adapted to guide colliding components away from the vehicle body, and to generate lateral force towards the vehicle body , the tapered lateral push element further comprising an inclined inner side , the tapered lateral push element is arranged and mechanically attached inside the hollow beam structure to maintain its position inside the hollow beam structure , wherein the lateral push element is configured to provide a lateral load path in the event of a partial overlap collision involving the vehicle, wherein the lateral push element is plate-shaped with the lateral load path in the main plane of the plate-shaped lateral push element, wherein the lateral push element comprises reinforcing structures included in a main body of the lateral push element. a hollow beam structure disposed along a lateral side of the vehicle; wherein a tapered lateral push element comprising an inclined outer support side arranged at an angle with respect to a longitudinal axis of the vehicle, the inclined outer support side is adapted to guide colliding components away from the vehicle body, and to generate lateral force towards the vehicle body , the tapered lateral push element further comprising an inclined inner side , the tapered lateral push element is arranged and mechanically attached inside the hollow beam structure to maintain its position inside the hollow beam structure , wherein the lateral push element is configured to provide a lateral load path in the event of a partial overlap collision involving the vehicle, wherein the lateral push element is plate-shaped with the lateral load path in the main plane of the plate-shaped lateral push element, wherein the lateral push element comprises reinforcing structures included in a main body of the lateral push element.
Ventilation device for living beings , who cannot breathe self-dependently and need medical assistance in the form of artificial or machine ventilation, consisting of: - a ventilator having an air outlet channel and an air inlet channel , - two hoses connected with one of the two channels of the ventilator , - an air distributor at which three openings are provided that are coupled with one of the two hoses of the ventilator and with a tubus , which can be inserted into the oral or nasal area of a living being , characterised in that an airway therapy device is inserted in the inhalation hose by means of which mucus is loosened and removed, the ventilator generates an airflow by means of which an intermitting air pressure fluctuation is created through the airway therapy device and in that the air pressure fluctuation generated is passed on or transmitted into the lung area of the living being , the airway therapy device consists of a curved tube that is integrated into the ventilation hose or connected therewith in an airtight manner, a flexurally elastic hose is mounted to the breathing-air entrance side of the airway therapy device and in that the opposite end of the hose oscillates in the tube and through the injected airflow , the airway therapy device consists of a curved tube that is integrated into the ventilation hose or connected therewith in an airtight manner, and that within the tube , a valve in the form of a throttle valve or a ball is inserted that is caused to oscillate by the injected airflow . - a ventilator having an air outlet channel and an air inlet channel , - two hoses connected with one of the two channels of the ventilator , - an air distributor at which three openings are provided that are coupled with one of the two hoses of the ventilator and with a tubus , which can be inserted into the oral or nasal area of a living being , an airway therapy device is inserted in the inhalation hose by means of which mucus is loosened and removed, the ventilator generates an airflow by means of which an intermitting air pressure fluctuation is created through the airway therapy device and in that the air pressure fluctuation generated is passed on or transmitted into the lung area of the living being , the airway therapy device consists of a curved tube that is integrated into the ventilation hose or connected therewith in an airtight manner, a flexurally elastic hose is mounted to the breathing-air entrance side of the airway therapy device and in that the opposite end of the hose oscillates in the tube and through the injected airflow , the airway therapy device consists of a curved tube that is integrated into the ventilation hose or connected therewith in an airtight manner, and that within the tube , a valve in the form of a throttle valve or a ball is inserted that is caused to oscillate by the injected airflow .
A method of performing remote subsea inspection of subsea structures , the method comprising: receiving mission data acquired by a subsea inspection platform ; characterised in that the method further comprises: processing the mission data at an offshore location automatically and substantially in real time during a mission to produce a low-resolution image data output and a high-resolution image data output ; storing the high-resolution output at the offshore location ; and transmitting the low-resolution output wirelessly across a communication link between the offshore location and an onshore or inshore location automatically and substantially in real time during the mission. receiving mission data acquired by a subsea inspection platform ; characterised in that the method further comprises: processing the mission data at an offshore location automatically and substantially in real time during a mission to produce a low-resolution image data output and a high-resolution image data output ; storing the high-resolution output at the offshore location ; and transmitting the low-resolution output wirelessly across a communication link between the offshore location and an onshore or inshore location automatically and substantially in real time during the mission. processing the mission data at an offshore location automatically and substantially in real time during a mission to produce a low-resolution image data output and a high-resolution image data output ; storing the high-resolution output at the offshore location ; and transmitting the low-resolution output wirelessly across a communication link between the offshore location and an onshore or inshore location automatically and substantially in real time during the mission.