mhurhangee/ep-ind-claims huggingface dataset:
A method of power management for use with a lighting facility, the lighting facility including: a lighting source coupled to a light switch, a controller and battery module, and a connection to an external power source, the method comprising: supplying power to a load of the lighting source from the external power source; subsequently, determining that the light switch is open and the external power source is not supplying power to the controller and battery module or the external power source is not supplying usable power to the controller and battery module; transferring the power to the load from the external power source to a battery of the controller and battery module; and supplying the power to the load of the lighting source from the battery, characterised in that: the transferring the power to the load from the external power source to a battery of the controller and battery module is carried out in response to the determining. a lighting source coupled to a light switch, a controller and battery module, and a connection to an external power source, supplying power to a load of the lighting source from the external power source; subsequently, determining that the light switch is open and the external power source is not supplying power to the controller and battery module or the external power source is not supplying usable power to the controller and battery module; transferring the power to the load from the external power source to a battery of the controller and battery module; and supplying the power to the load of the lighting source from the battery, characterised in that: the transferring the power to the load from the external power source to a battery of the controller and battery module is carried out in response to the determining. transferring the power to the load from the external power source to a battery of the controller and battery module; and supplying the power to the load of the lighting source from the battery,
Thermoplastic molding composition comprising (or consisting of) components (a) (b), (c) and optionally (d): (a) 97 to 99.85 wt.-% of at least one copolymer (a) comprising (or consisting of) repeating units derived from a vinylaromatic monomer, in particular styrene, and methyl methacrylate; (b) 0.1 to 1.5 wt.-% of a hindered amine light stabilizer (HALS) combination (b) consisting of: at least one high molecular weight hindered amine light stabilizer (HMW-HALS) having a number average molecular weight (Mn) of ≥ 1800 g/mol, preferably ≥ 1900 g/mol; and at least one low molecular weight hindered amine light stabilizer (LMW-HALS) having a number average molecular weight of ≤ 800 g/mol; (c) 0.05 to 1.0 wt.-%, preferably 0.05 to 0.5 wt.-%, more preferably 0.1 to 0.4 wt.-%, most preferred 0.2 to 0.3 wt.-%, of at least one organic UV absorber (c); (d) optionally up to 0.5 wt.-%, preferably 0.15 to 0.30 wt.-% of at least one further additive (d) different from (b) and (c), provided that pigments and fillers are excluded; wherein: copolymer (a) comprises from 30 to 60 wt.-% of repeating units derived from methyl methacrylate; the weight ratio: is 12:1 to 1:2; and the weight ratio (b):(c) is 5:1 to 1:5. (a) 97 to 99.85 wt.-% of at least one copolymer (a) comprising (or consisting of) repeating units derived from a vinylaromatic monomer, in particular styrene, and methyl methacrylate; (b) 0.1 to 1.5 wt.-% of a hindered amine light stabilizer (HALS) combination (b) consisting of: at least one high molecular weight hindered amine light stabilizer (HMW-HALS) having a number average molecular weight (Mn) of ≥ 1800 g/mol, preferably ≥ 1900 g/mol; and at least one low molecular weight hindered amine light stabilizer (LMW-HALS) having a number average molecular weight of ≤ 800 g/mol; (c) 0.05 to 1.0 wt.-%, preferably 0.05 to 0.5 wt.-%, more preferably 0.1 to 0.4 wt.-%, most preferred 0.2 to 0.3 wt.-%, of at least one organic UV absorber (c); (d) optionally up to 0.5 wt.-%, preferably 0.15 to 0.30 wt.-% of at least one further additive (d) different from (b) and (c), provided that pigments and fillers are excluded; wherein: copolymer (a) comprises from 30 to 60 wt.-% of repeating units derived from methyl methacrylate; the weight ratio: is 12:1 to 1:2; and the weight ratio (b):(c) is 5:1 to 1:5.
Device for generating ion beams with defined ion beam profiles comprising: at least one ion source with a plasma vessel and with an ion optics, the ion optics comprising at least two extraction gratings (251, 252), electrically separated from one another, for generating an ion beam, the device having a grating control for moving the at least two extraction gratings (251, 252), so that the positions of the extraction gratings (251, 252) can be changed relative to one another and the ion beam profile can thereby be changed, characterized in that each extraction grid (251, 252) has in each case a plurality of sub-grids and the grid control is designed in such a way that it can also move the sub-grids of the at least two extraction grids (251, 252), so that the positions of the sub-grids relative to one another can be changed and the ion beam profile can also thereby be changed. at least one ion source with a plasma vessel and with an ion optics, the ion optics comprising at least two extraction gratings (251, 252), electrically separated from one another, for generating an ion beam, the device having a grating control for moving the at least two extraction gratings (251, 252), so that the positions of the extraction gratings (251, 252) can be changed relative to one another and the ion beam profile can thereby be changed, characterized in that each extraction grid (251, 252) has in each case a plurality of sub-grids and the grid control is designed in such a way that it can also move the sub-grids of the at least two extraction grids (251, 252), so that the positions of the sub-grids relative to one another can be changed and the ion beam profile can also thereby be changed.
A method for receiving physical downlink control channel, PDCCH, signaling, in a scenario that a physically overlapped region exists between a first search space and a second search space, comprising: receiving, by a user equipment, UE, in the physically overlapped region, a second PDCCH signaling sent by a base station, within a time interval from sending radio resource control, RRC, signaling to the UE to a time after receiving RRC connection reconfiguration complete signaling returned by the UE, the second PDCCH signaling including a carrier indication field, CIF, and an added bit, if a length of a first PDCCH signaling with no CIF in the first search space is equal to a length of the second PDCCH signaling including a CIF without the added bit in the second search space; parsing, by the UE, the second PDCCH signaling according to a set rule. receiving, by a user equipment, UE, in the physically overlapped region, a second PDCCH signaling sent by a base station, within a time interval from sending radio resource control, RRC, signaling to the UE to a time after receiving RRC connection reconfiguration complete signaling returned by the UE, the second PDCCH signaling including a carrier indication field, CIF, and an added bit, if a length of a first PDCCH signaling with no CIF in the first search space is equal to a length of the second PDCCH signaling including a CIF without the added bit in the second search space; parsing, by the UE, the second PDCCH signaling according to a set rule.
A microchannel plate (100; 100A; 200) comprising a main body comprised of lead glass which exhibits electric insulation before a reduction treatment and exhibits electric conduction after the reduction treatment, the main body comprising: first cladding glasses (110; 210) with a predetermined resistivity each of which has a hollow structure extending along a predetermined direction; and a second cladding glass (120; 220) which is located at least in part in spaces among outer peripheral surfaces of the first cladding glasses in a state in which the second cladding glass is in contact with the outer peripheral surfaces of the respective first cladding glasses, characterized in that a lead content of the second cladding glass is larger than a lead content of the first cladding glasses, and the second cladding glass having a resistivity lower than the resistivity of the first cladding glasses. first cladding glasses (110; 210) with a predetermined resistivity each of which has a hollow structure extending along a predetermined direction; and a second cladding glass (120; 220) which is located at least in part in spaces among outer peripheral surfaces of the first cladding glasses in a state in which the second cladding glass is in contact with the outer peripheral surfaces of the respective first cladding glasses, characterized in that a lead content of the second cladding glass is larger than a lead content of the first cladding glasses, and the second cladding glass having a resistivity lower than the resistivity of the first cladding glasses.
A method comprising: determining, by one or more processors, whether a vaporizer device (100A, 200A, 100B, 200B) is within a communication range of a beacon configured to disable vaporizer devices within a communication range of the beacon, the beacon being configured to transmit a broadcast message while the beacon is within certain geographic locations, and the one or more processors being configured to respond to receiving the broadcast message from the beacon by at least locking the vaporizer device (100A, 200A, 100B, 200B); locking, by the one or more processors, the vaporizer device (100A, 200A, 100B, 200B) to deactivate an operation of the vaporizer device (100A, 200A, 100B, 200B) in response to the vaporizer device (100A, 200A, 100B, 200B) being within the communication range of the beacon; receiving, by the one or more processors, information associated with a user of the vaporizer device (100A, 200A, 100B, 200B); determining, by the one or more processors and based on the received information, an age of the user; and in response to the one or more processors determining that the age of the user satisfies a threshold, overriding the broadcast message received from the beacon to unlock the vaporizer device (100A, 200A, 100B, 200B) and activate the operation of the vaporizer device (100A, 200A, 100B, 200B). determining, by one or more processors, whether a vaporizer device (100A, 200A, 100B, 200B) is within a communication range of a beacon configured to disable vaporizer devices within a communication range of the beacon, the beacon being configured to transmit a broadcast message while the beacon is within certain geographic locations, and the one or more processors being configured to respond to receiving the broadcast message from the beacon by at least locking the vaporizer device (100A, 200A, 100B, 200B); locking, by the one or more processors, the vaporizer device (100A, 200A, 100B, 200B) to deactivate an operation of the vaporizer device (100A, 200A, 100B, 200B) in response to the vaporizer device (100A, 200A, 100B, 200B) being within the communication range of the beacon; receiving, by the one or more processors, information associated with a user of the vaporizer device (100A, 200A, 100B, 200B); determining, by the one or more processors and based on the received information, an age of the user; and in response to the one or more processors determining that the age of the user satisfies a threshold, overriding the broadcast message received from the beacon to unlock the vaporizer device (100A, 200A, 100B, 200B) and activate the operation of the vaporizer device (100A, 200A, 100B, 200B).
An automatic air suspension control system for use in combination with a vehicle having a non-driven rear axle (14,16) configured to be moved between a lifted condition and a deployed condition, a driven rear axle (14,16), a parking brake, and an air suspension associated with the rear axles (14,16) to apply a load to each of the rear axles (14,16), wherein the automatic air suspension control system is programmed to command the air suspension to apply load to one or both of the rear axles (14,16) and to move the non-driven rear axle (14,16) between the lifted and deployed conditions under selected load conditions, and prevent movement of the non-driven rear axle (14,16) from the lifted condition to the deployed condition when the parking brake is engaged or prevent movement of the non-driven rear axle (14,16) from the deployed condition to the lifted condition when the parking brake is engaged.
A system for clinical decision support during a medical event, the system comprising: a patient monitoring device (154, 212); at least one display screen (155, 156); and a plurality of physiological sensors configured to couple to a patient during the medical event, wherein the patient monitoring device is configured to couple to the at least one display screen and the plurality of physiological sensors, and wherein the patient monitoring device (154, 212) is configured to: collect physiologic data from the patient at a first frequency via the plurality of physiological sensors, wherein said physiologic data comprise blood pressure, SpO2, heart rate, and respiratory rate; guide a user through a clinical decision support process with the at least one display screen during the medical event, determine, with the clinical decision support process, a status of the patient, based on the determined status of the patient being indicative of traumatic brain injury, automatically adjust the first frequency to a second frequency based on the status of the patient, wherein the second frequency is selected to be greater than the first frequency and collect the physiological data from the patient at the second frequency. a patient monitoring device (154, 212); at least one display screen (155, 156); and a plurality of physiological sensors configured to couple to a patient during the medical event, wherein the patient monitoring device is configured to couple to the at least one display screen and the plurality of physiological sensors, and wherein the patient monitoring device (154, 212) is configured to: collect physiologic data from the patient at a first frequency via the plurality of physiological sensors, wherein said physiologic data comprise blood pressure, SpO2, heart rate, and respiratory rate; guide a user through a clinical decision support process with the at least one display screen during the medical event, determine, with the clinical decision support process, a status of the patient, based on the determined status of the patient being indicative of traumatic brain injury, automatically adjust the first frequency to a second frequency based on the status of the patient, wherein the second frequency is selected to be greater than the first frequency and collect the physiological data from the patient at the second frequency. collect physiologic data from the patient at a first frequency via the plurality of physiological sensors, wherein said physiologic data comprise blood pressure, SpO2, heart rate, and respiratory rate; guide a user through a clinical decision support process with the at least one display screen during the medical event, determine, with the clinical decision support process, a status of the patient, based on the determined status of the patient being indicative of traumatic brain injury, automatically adjust the first frequency to a second frequency based on the status of the patient, wherein the second frequency is selected to be greater than the first frequency and collect the physiological data from the patient at the second frequency.
An apparatus for artificial weathering or lightfastness testing of samples, comprising a weathering chamber in which at least one sample can be arranged; a plurality of radiation sources which are arranged in the weathering chamber and which can be operated independently of one another, wherein the apparatus is configured such that the at least one sample is movable on a closed path about the plurality of radiation sources, characterized in that the radiation sources are formed by xenon gas discharge lamps, the radiation sources can be operated successively in time and/or at least partially simultaneously, and further comprising control means configured to generate control signals for driving said radiation sources and having a plurality of outputs connectable to said plurality of radiation sources, wherein the control device is configured to determine an optimum operating mode on the basis of a combined radiation power of the radiation sources desired by the user, in which the radiation sources are exposed to the lowest possible loads.
An arc flash detection apparatus (52;52') for an electrical system (2;2') comprising a first power bus, a second power bus, a third power bus, a first circuit interrupter electrically connected between the first power bus and the second power bus, a second circuit interrupter electrically connected between the second power bus and the third power bus, and at least one of: (a) a shorting apparatus operatively associated with the second power bus, and (b) the first circuit interrupter comprising a trip coil, the arc flash detection apparatus comprising: a current sensor structured to sense a fault current (19,35) of at least a predetermined magnitude flowing in the second power bus and responsively output a first logical signal; and a number of light sensors structured to sense an arc flash (24,36) operatively associated with a number of the second power bus and the third power bus and responsively output a second logical signal; said arc flash detection apparatus being characterized by a circuit (28;28') structured to delay and invert the first logical signal, or a fourth logical signal corresponding to a sensed fault current of at least a predetermined magnitude flowing in the third power bus, to provide a third logical signal (30;44), and to operate the at least one of the shorting apparatus and the trip coil responsive to a logical AND of the first logical signal, the second logical signal and the third logical signal. a current sensor structured to sense a fault current (19,35) of at least a predetermined magnitude flowing in the second power bus and responsively output a first logical signal; and a number of light sensors structured to sense an arc flash (24,36) operatively associated with a number of the second power bus and the third power bus and responsively output a second logical signal; said arc flash detection apparatus being characterized by a circuit (28;28') structured to delay and invert the first logical signal, or a fourth logical signal corresponding to a sensed fault current of at least a predetermined magnitude flowing in the third power bus, to provide a third logical signal (30;44), and to operate the at least one of the shorting apparatus and the trip coil responsive to a logical AND of the first logical signal, the second logical signal and the third logical signal.
Process for manufacturing a fibrous substrate in which the fibrous substrate comprises an assembly of one or more continuous fibres such as fabrics, or an assembly of short fibres such as felts and nonwovens that may be in the form of strips, laps, braids, locks or pieces, characterized in that it comprises: - impregnation of the said fibrous substrate with an organic polymer or a mixture of organic polymers containing carbon nanotubes (CNTs), and then: - heating the said impregnated fibrous substrate up to the softening point of the polymer, the heating being performed by microwave irradiation or by induction, said organic polymer(s) being thermoplastic. - impregnation of the said fibrous substrate with an organic polymer or a mixture of organic polymers containing carbon nanotubes (CNTs), and then: - heating the said impregnated fibrous substrate up to the softening point of the polymer, the heating being performed by microwave irradiation or by induction,
A method of selecting a wireless access for use in a user equipment of a wireless communication system, comprising: transmitting user equipment information including information on a battery of the user equipment, to a network node; receiving a routing policy information from the network node; wherein the routing policy information is determined based on the user equipment information received by the network node; discriminating data based on the routing policy information and selecting the wireless access for a transmission of the discriminated data; and transmitting the discriminated data through the selected wireless access, wherein the routing policy information includes an application identification information for discrimination of the data and an operating system, OS, identification information. transmitting user equipment information including information on a battery of the user equipment, to a network node; receiving a routing policy information from the network node; wherein the routing policy information is determined based on the user equipment information received by the network node; discriminating data based on the routing policy information and selecting the wireless access for a transmission of the discriminated data; and transmitting the discriminated data through the selected wireless access, wherein the routing policy information includes an application identification information for discrimination of the data and an operating system, OS, identification information.
A double seated valve arrangement for a fluid power equipment, having: - a housing; - two or more control valves at least partially accommodated within the housing and displaceable between a closed position and an open position for controlling flow of a fluid in the fluid power equipment; - two or more actuating mechanisms (203, 206, or 209) actuating the two or more control valves, wherein the two or more actuating mechanisms (203, 206, 209) are in an operable connection with the two or more control valves, respectively, the double seated valve arrangement being characterised in that: each of the two or more actuating mechanisms (203, 206, 209) are configured to be operable independent of one another, and in that each of the actuating mechanisms (203, 206, 209) is positioned generally axially perpendicular to a direction in which the fluid flows in the housing and a direction in which the fluid flows out of the housing, and wherein the direction of fluid flowing in the housing is positioned generally axially perpendicular to the direction of fluid flowing out of the housing. - a housing; - two or more control valves at least partially accommodated within the housing and displaceable between a closed position and an open position for controlling flow of a fluid in the fluid power equipment; - two or more actuating mechanisms (203, 206, or 209) actuating the two or more control valves, wherein the two or more actuating mechanisms (203, 206, 209) are in an operable connection with the two or more control valves, respectively, each of the two or more actuating mechanisms (203, 206, 209) are configured to be operable independent of one another, and in that each of the actuating mechanisms (203, 206, 209) is positioned generally axially perpendicular to a direction in which the fluid flows in the housing and a direction in which the fluid flows out of the housing, and wherein the direction of fluid flowing in the housing is positioned generally axially perpendicular to the direction of fluid flowing out of the housing.