mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting control data between a vehicle data recording device arranged in a motor vehicle and a test device arranged outside the motor vehicle, wherein the control data comprise driver data and are stored in the vehicle data recording device, characterized - in that a random code is generated by the vehicle data recording device or by the test device as a connection code comprising a connection identification identifier, - in that the random code is indicated by the device generating the random code, - in that the random code indicated is detected and input into the device not generating the random code, - in that after the random code has been input into the device not generating the random code, coupling is effected automatically via a short-distance radio link between the device not generating the random code and the device generating the random code, - in that subsequently the control data are transmitted by the vehicle data recording device to the test device via the short-distance radio link, - in that after the control data transmission has ended, the short-distance radio link between the vehicle data recording device and the test device is separated and - in that subsequently the random code is deleted in the vehicle data recording device and in the test device, wherein a device identification identifier is permanently allocated to the vehicle data recording device and wherein the device identification identifier is transmitted by radio to the test device for setting up the short-distance radio link before the random code is generated, and wherein, after the short-distance radio link is separated, the device identification identifier is deleted in the test device. - in that a random code is generated by the vehicle data recording device or by the test device as a connection code comprising a connection identification identifier, - in that the random code is indicated by the device generating the random code, - in that the random code indicated is detected and input into the device not generating the random code, - in that after the random code has been input into the device not generating the random code, coupling is effected automatically via a short-distance radio link between the device not generating the random code and the device generating the random code, - in that subsequently the control data are transmitted by the vehicle data recording device to the test device via the short-distance radio link, - in that after the control data transmission has ended, the short-distance radio link between the vehicle data recording device and the test device is separated and - in that subsequently the random code is deleted in the vehicle data recording device and in the test device,
A method comprising: receiving, at a network of interconnected computer system nodes (16, 18, 20, 22), a request from a first user system linked to the network of interconnected computer system nodes (16, 18, 20, 22) to store at least one data item, the first user system executing a real-time communications client program that establishes a real-time communications session with a second user system executing a real-time communications client program; determining an address of a node (16, 18, 20, 22) that is available to receive the at least one data item in its memory by determining which of the nodes (16, 18, 20, 22) has the least traffic and/or has the largest available node memory; receiving the at least one data item at the node having the determined address; continuously forwarding the at least one data item among the nodes (16, 18, 20, 22) in the network, the forwarded at least one data item being continuously routed within the network from node memory to node memory; receiving, at the network of interconnected computer system nodes (16, 18, 20, 22), a request from the second user system linked to the network of interconnected computer system nodes (16, 18, 20, 22) to retrieve the at least one data item being continuously forwarded among the nodes (16, 18, 20, 22) in the network; retrieving the at least one data item from a node (16, 18, 20, 22) in response to the request from the second user system to retrieve the at least one data item; and forwarding, from a node (16, 18, 20, 22), the retrieved at least one data item to the second user system. receiving, at a network of interconnected computer system nodes (16, 18, 20, 22), a request from a first user system linked to the network of interconnected computer system nodes (16, 18, 20, 22) to store at least one data item, the first user system executing a real-time communications client program that establishes a real-time communications session with a second user system executing a real-time communications client program; determining an address of a node (16, 18, 20, 22) that is available to receive the at least one data item in its memory by determining which of the nodes (16, 18, 20, 22) has the least traffic and/or has the largest available node memory; receiving the at least one data item at the node having the determined address; continuously forwarding the at least one data item among the nodes (16, 18, 20, 22) in the network, the forwarded at least one data item being continuously routed within the network from node memory to node memory; receiving, at the network of interconnected computer system nodes (16, 18, 20, 22), a request from the second user system linked to the network of interconnected computer system nodes (16, 18, 20, 22) to retrieve the at least one data item being continuously forwarded among the nodes (16, 18, 20, 22) in the network; retrieving the at least one data item from a node (16, 18, 20, 22) in response to the request from the second user system to retrieve the at least one data item; and forwarding, from a node (16, 18, 20, 22), the retrieved at least one data item to the second user system.
A refrigerator unit and/or freezer unit having a cooled inner space (110, 120) in which a cold storage compartment is located, wherein the unit comprises: a cold air passage; and an evaporator for generating cold air in the cold air passage; and wherein the cold air passage is connected to the cold storage compartment via an opening (O1, O2) so that cold air can flow out of the cold air passage into the cold storage compartment; the cold storage compartment is divided into a first compartment and into a second compartment by means of a separating means; the first compartment is connected to the cold air passage via a first opening and the second compartment is connected to said cold air passage via a second opening; and a means for varying the cold air volume flow flowing through the opening (O1, O2) is present that is configured or settable such that the cold air volume flow through the first opening differs from the cold air volume flow through the second opening in an operating state of the unit, characterized in that the separating means is variably arrangeable in its position and the means for varying the cold air volume flow is present in the first opening or in the second opening, is configured in the form of one or more flaps and/or fans, and is only present in one of the openings (O1, O2). a cold air passage; and an evaporator for generating cold air in the cold air passage; and wherein the cold air passage is connected to the cold storage compartment via an opening (O1, O2) so that cold air can flow out of the cold air passage into the cold storage compartment; the cold storage compartment is divided into a first compartment and into a second compartment by means of a separating means; the first compartment is connected to the cold air passage via a first opening and the second compartment is connected to said cold air passage via a second opening; and a means for varying the cold air volume flow flowing through the opening (O1, O2) is present that is configured or settable such that the cold air volume flow through the first opening differs from the cold air volume flow through the second opening in an operating state of the unit, characterized in that the separating means is variably arrangeable in its position and the means for varying the cold air volume flow is present in the first opening or in the second opening, is configured in the form of one or more flaps and/or fans, and is only present in one of the openings (O1, O2).
A method of generating an electromagnetic useful radiation comprising a useful frequency, the method comprising the steps of: a) generating and emitting seed light comprising a seed frequency, b) coupling the seed light into an external optical resonator, which external optical resonator comprises a resonance frequency, wherein the resonance frequency is at least initially substantially equal to the seed frequency, so that an electromagnetic resonator radiation oscillates in the resonator at the resonance frequency, c) after step b), adiabatically changing the resonance frequency of the resonator so that the resonance frequency of the resonator radiation oscillating in the resonator is changed over a tuning bandwidth, wherein the seed frequency does not follow the change of the resonance frequency, and d) decoupling the resonator radiation from the resonator as useful radiation comprising the useful frequency different from the seed frequency, characterized in that the method further comprises the steps of e) pumping an amplifying medium arranged in the resonator and f) amplifying the resonator radiation oscillating in the resonator in the amplification medium, wherein the amplification is smaller than a threshold amplification required by the resonator and the amplifying medium for a laser action of the resonator. a) generating and emitting seed light comprising a seed frequency, b) coupling the seed light into an external optical resonator, which external optical resonator comprises a resonance frequency, wherein the resonance frequency is at least initially substantially equal to the seed frequency, so that an electromagnetic resonator radiation oscillates in the resonator at the resonance frequency, c) after step b), adiabatically changing the resonance frequency of the resonator so that the resonance frequency of the resonator radiation oscillating in the resonator is changed over a tuning bandwidth, wherein the seed frequency does not follow the change of the resonance frequency, and d) decoupling the resonator radiation from the resonator as useful radiation comprising the useful frequency different from the seed frequency, e) pumping an amplifying medium arranged in the resonator and f) amplifying the resonator radiation oscillating in the resonator in the amplification medium, wherein the amplification is smaller than a threshold amplification required by the resonator and the amplifying medium for a laser action of the resonator.
A compound of formula: wherein: R 1, R 2, R 3, R 4, R 5, and R 6 are C x alkyl; x is an integer from 6 to 11; and R 1, R 2, R 3, R 4, R 5, and R 6 are the same. R 1, R 2, R 3, R 4, R 5, and R 6 are C x alkyl; x is an integer from 6 to 11; and R 1, R 2, R 3, R 4, R 5, and R 6 are the same.
An axial rotation grass-cutting head, comprising for at least one portion thereof, an upper body (11, 211, 311, 411, 511, 611), a lower body (12, 112, 212, 312, 412, 512, 612) and at least one intermediate body (14, 214, 314, 414, 514, 614) arranged between said upper and lower body, said upper, lower and intermediate bodies defining, when coupled, two channels (15, 16, 215, 216, 315', 316', 415, 416, 515', 516', 615, 616) for housing a single cutting line (17, 217, 317, 417, 517, 617), having respective end openings on the side face of the head, said channels being formed at least partly by grooves (S, 2S, 3S, 4S, 5S, 6S) produced at the surfaces of said upper and lower body facing said intermediate body or vice versa on said intermediate body, said grooves (S, 2S, 3S, 4S, 5S, 6S) being closed to delimit said channels from the surface of said intermediate body or vice versa from the surfaces of said upper and lower bodies, said cutting line (17, 217, 317, 417, 517, 617) being adapted to fit into said channels (15, 16,215, 216, 315', 316', 415, 416, 515', 516', 615, 616) with its ends exiting from the respective first end openings (15A, 16A, 1516A, 215A, 216A, 315A, 316A, 415A, 416A, 515A, 516A, 61516A) of the two channels and with the central portion (17C, 217C, 317C, 417C, 517C, 617C) of the line partially wound on the outer periphery of the head comprised between the second openings (15B, 16B, 215B, 216B, 315B, 316B, 415B, 416B, 515B, 516B, 615B, 616B) of the two channels, with the line respectively exiting and entering said second openings.
A pump head for a metering device for the metered dispensing of a fluid, comprising: a head part including an outlet opening for the fluid to be dispensed, the head part comprising an inner surface; a valve, which, at least in regions, has a geometric configuration corresponding to the inner surface of the head part; and a component having a through-opening for the fluid to be dispensed, via which an inflow of the fluid between the head part and the valve is enabled, forming an intermediate space between the valve and the head part in an actuation state; the head part and the component being connected in a form-locked and force-fit manner, enclosing the valve between the head part and the component, characterized in that the valve is elastic, the inflow of the fluid is enabled under deformation of the elastic valve, and the elastic valve, in a storage state of the pump head, rests over the entire surface in a form-locked against the inner surface of the head part so that a fluidic seal between the head part and the component is ensured. a head part including an outlet opening for the fluid to be dispensed, the head part comprising an inner surface; a valve, which, at least in regions, has a geometric configuration corresponding to the inner surface of the head part; and a component having a through-opening for the fluid to be dispensed, via which an inflow of the fluid between the head part and the valve is enabled, forming an intermediate space between the valve and the head part in an actuation state; the head part and the component being connected in a form-locked and force-fit manner, enclosing the valve between the head part and the component, characterized in that the valve is elastic, the inflow of the fluid is enabled under deformation of the elastic valve, and the elastic valve, in a storage state of the pump head, rests over the entire surface in a form-locked against the inner surface of the head part so that a fluidic seal between the head part and the component is ensured.
Method for additively manufacturing at least one three-dimensional object by means of successive layerwise selective irradiation and consolidation of build material layers by means of at least one energy beam, comprising - irradiating and thereby consolidating an irradiation area which is to be selectively irradiated and thereby consolidated of a first build material layer, whereby at least one sub-area of the irradiation area which is at least partly disposed below at least one irradiation area which is to be selectively irradiated and thereby consolidated of a second build material layer which is disposed directly above the first build material layer is excluded from being irradiated and thereby consolidated; and - irradiating the irradiation area of the second build material layer in an area above the at least one sub-area of the irradiation area of the first build material layer in such a manner that the at least one sub-area of the irradiation area of the first build material layer is consolidated, wherein by irradiating the irradiation area of the at least one second build material layer, a vertically extending structural element is generated which at least comprises selectively irradiated and thereby consolidated portions of the irradiation area of the at least one second build material layer and the at least one sub-area of the first build material layer, characterized in that a plurality of vertically extending structural elements are generated which are uniformly or non-uniformly distributed throughout the three-dimensional object which is to be additively manufactured. - irradiating and thereby consolidating an irradiation area which is to be selectively irradiated and thereby consolidated of a first build material layer, whereby at least one sub-area of the irradiation area which is at least partly disposed below at least one irradiation area which is to be selectively irradiated and thereby consolidated of a second build material layer which is disposed directly above the first build material layer is excluded from being irradiated and thereby consolidated; and - irradiating the irradiation area of the second build material layer in an area above the at least one sub-area of the irradiation area of the first build material layer in such a manner that the at least one sub-area of the irradiation area of the first build material layer is consolidated, wherein
A method, comprising: receiving transmission coordination information provided by a first wireless network node; and controlling wireless transmission from a second wireless network node in accordance with the transmission coordination information, wherein the controlling includes: refraining from transmitting data and control signals from the second wireless network node during a specified protected interval defined by the transmission coordination information; and transmitting one or more reference signals from the second wireless network node during the protected interval. receiving transmission coordination information provided by a first wireless network node; and controlling wireless transmission from a second wireless network node in accordance with the transmission coordination information, wherein the controlling includes: refraining from transmitting data and control signals from the second wireless network node during a specified protected interval defined by the transmission coordination information; and transmitting one or more reference signals from the second wireless network node during the protected interval. refraining from transmitting data and control signals from the second wireless network node during a specified protected interval defined by the transmission coordination information; and transmitting one or more reference signals from the second wireless network node during the protected interval.
A gas turbine engine comprising: a heat exchanger; a compressor section, a combustor, and a turbine section including a high pressure turbine comprising a plurality of turbine blades; a tap for tapping air that is compressed by said compressor section, to be passed through the heat exchanger to cool the air, the cooled air to be passed to the plurality of turbine blades; a sensor located downstream of a leading edge of the combustor, the sensor configured to measure a characteristic of the cooled air; and a controller configured to: compare the measured characteristic to a threshold;. maintain a current engine operating mode if the measured characteristic does not exceed the threshold; and characterised by the controller being configured to cause the gas turbine engine to enter low power mode based on the measured characteristic exceeding the threshold, wherein the low power mode restricts the gas turbine engine to operation within a portion of its normal parameters for at least one of temperature, rotor speed, and thrust. a heat exchanger; a compressor section, a combustor, and a turbine section including a high pressure turbine comprising a plurality of turbine blades; a tap for tapping air that is compressed by said compressor section, to be passed through the heat exchanger to cool the air, the cooled air to be passed to the plurality of turbine blades; a sensor located downstream of a leading edge of the combustor, the sensor configured to measure a characteristic of the cooled air; and a controller configured to: compare the measured characteristic to a threshold;. maintain a current engine operating mode if the measured characteristic does not exceed the threshold; and compare the measured characteristic to a threshold;. maintain a current engine operating mode if the measured characteristic does not exceed the threshold; and characterised by the controller being configured to cause the gas turbine engine to enter low power mode based on the measured characteristic exceeding the threshold, wherein the low power mode restricts the gas turbine engine to operation within a portion of its normal parameters for at least one of temperature, rotor speed, and thrust.
An inflatable evacuation slide for evacuating people from a first structure to a second structure, the slide comprising: at least three longitudinal beams, including two lateral lower beams and an upper beam, spaced apart transversally over their length and substantially parallel to each other in the inflated state, each beam (9,11) comprising at least one inflatable longitudinal tube (15A-C); characterized by a plurality of inflatable lateral panels (21a, b) connected to said upper beam and to said lateral lower beams; wherein the inflatable lateral panels (21a, b) comprise drop stitch material. at least three longitudinal beams, including two lateral lower beams and an upper beam, spaced apart transversally over their length and substantially parallel to each other in the inflated state, each beam (9,11) comprising at least one inflatable longitudinal tube (15A-C); characterized by a plurality of inflatable lateral panels (21a, b) connected to said upper beam and to said lateral lower beams; wherein the inflatable lateral panels (21a, b) comprise drop stitch material.
A method of transferring an RFID inlay, comprising: securing an RFID inlay to a first substrate with a first adhesive; providing a second substrate with a second adhesive and a liner (38, 64); separating the liner (38, 64) from the second substrate to expose the second adhesive; bringing the RFID inlay into the vicinity of, and securing the RFID inlay to, the second substrate using the second adhesive; dissociating the RFID inlay from the first substrate; and securing the liner (38, 64) to the RFID inlay after the RFID inlay is dissociated from the first substrate, to position the RFID inlay between the second substrate and the liner (38, 64). securing an RFID inlay to a first substrate with a first adhesive; providing a second substrate with a second adhesive and a liner (38, 64); separating the liner (38, 64) from the second substrate to expose the second adhesive; bringing the RFID inlay into the vicinity of, and securing the RFID inlay to, the second substrate using the second adhesive; dissociating the RFID inlay from the first substrate; and securing the liner (38, 64) to the RFID inlay after the RFID inlay is dissociated from the first substrate, to position the RFID inlay between the second substrate and the liner (38, 64).