mhurhangee/ep-ind-claims huggingface dataset:
DSSC photovoltaic device comprising at least one photoelectrochemical cell provided with a negative electrode or photo-electrode and a positive electrode or counter electrode, said at least one photoelectrochemical cell being interposed between two substrates, a first substrate on the side of said positive electrode and a second substrate on the side of said negative electrode, each one of said substrates (9, 10) having a respective first face (2, 3), a respective second face (22, 33), opposed with respect to said first face, the first face of said first substrate being faced toward said first face of said second substrate, and a respective substrate lateral surface interposed between the first face (2, 3) and the second face (22, 33) of the respective substrate (9, 10); said substrates (9, 10) being faced towards each other so that at least one portion of said first substrate lateral surface is aligned with a portion of said second substrate lateral surface; said DSSC photovoltaic device being characterized in that it further comprises: - integrated bypass means on said substrates, said bypass means comprising a bypass diode (5, 5') for said at least one photoelectrochemical cell, said bypass diode being provided on one lateral surface part of the photovoltaic device, wherein said photovoltaic device lateral surface is defined by at least two portions, a substrate lateral surface portion of said first substrate and a substrate lateral surface portion of said second substrate, and by an encapsulating material, comprised of electrically insulating material, interposed between said two portions; - two conductive tracks (6, 7) connecting the anode and cathode of said bypass diode (5, 5') to the negative and positive electrode of said cell, respectively, and - UV filtering means to at least partially filter UV radiation, applied on at least a face (2, 22, 3, 33) of said substrates (9, 10), at least in correspondence of said at least one cell. - integrated bypass means on said substrates, said bypass means comprising a bypass diode (5, 5') for said at least one photoelectrochemical cell, said bypass diode being provided on one lateral surface part of the photovoltaic device, wherein said photovoltaic device lateral surface is defined by at least two portions, a substrate lateral surface portion of said first substrate and a substrate lateral surface portion of said second substrate, and by an encapsulating material, comprised of electrically insulating material, interposed between said two portions; - two conductive tracks (6, 7) connecting the anode and cathode of said bypass diode (5, 5') to the negative and positive electrode of said cell, respectively, and - UV filtering means to at least partially filter UV radiation, applied on at least a face (2, 22, 3, 33) of said substrates (9, 10), at least in correspondence of said at least one cell.
A mains electrical supply outlet comprising: a socket, connectable, in use, to an electricity-consuming device, to supply mains electricity thereto; and a connection sensor, to sense the connection of an electricity-consuming device to said socket and to disconnect power from a controller in the absence of such a connection; characterised in that the supply outlet comprises a signal-receiving means to receive an encoded wireless signal; and further characterised in that the supply outlet comprises a controller, powered by mains electricity, to decode said received encoded signal and, in response to said signal, to control switching of electrical power to said socket. a socket, connectable, in use, to an electricity-consuming device, to supply mains electricity thereto; and a connection sensor, to sense the connection of an electricity-consuming device to said socket and to disconnect power from a controller in the absence of such a connection; characterised in that the supply outlet comprises a signal-receiving means to receive an encoded wireless signal; and further
A parking control device, comprising: a storage for storing an electronic map of a parking lot; a collector configured to collect sensor data from a sensor in the parking lot; a communicator configured to receive vehicle information from an autonomous vehicle which enters the parking lot; and a controller configured to monitor a location and movement of the autonomous vehicle based on the electronic map, calculate a driving trajectory to a parking space selected by a driver of the vehicle based on the sensor data and the vehicle information, and provide information about the calculated driving trajectory to the autonomous vehicle, characterized in that the controller is configured to: calculate the driving trajectory in consideration of movement of an obstruction as well as a location and movement state of each of all the autonomous vehicles in the parking lot, when another autonomous vehicle is moving to park in the parking space, stop moving the other autonomous vehicle, assign a new parking space to the other autonomous vehicle, calculate a driving trajectory from a current location of the other autonomous vehicle to the new parking space, and transmit information about the calculated driving trajectory to the other autonomous vehicle. a storage for storing an electronic map of a parking lot; a collector configured to collect sensor data from a sensor in the parking lot; a communicator configured to receive vehicle information from an autonomous vehicle which enters the parking lot; and a controller configured to monitor a location and movement of the autonomous vehicle based on the electronic map, calculate a driving trajectory to a parking space selected by a driver of the vehicle based on the sensor data and the vehicle information, and provide information about the calculated driving trajectory to the autonomous vehicle, characterized in that the controller is configured to: calculate the driving trajectory in consideration of movement of an obstruction as well as a location and movement state of each of all the autonomous vehicles in the parking lot, when another autonomous vehicle is moving to park in the parking space, stop moving the other autonomous vehicle, assign a new parking space to the other autonomous vehicle, calculate a driving trajectory from a current location of the other autonomous vehicle to the new parking space, and transmit information about the calculated driving trajectory to the other autonomous vehicle. calculate the driving trajectory in consideration of movement of an obstruction as well as a location and movement state of each of all the autonomous vehicles in the parking lot, when another autonomous vehicle is moving to park in the parking space, stop moving the other autonomous vehicle, assign a new parking space to the other autonomous vehicle, calculate a driving trajectory from a current location of the other autonomous vehicle to the new parking space, and transmit information about the calculated driving trajectory to the other autonomous vehicle.
Method for producing a component for aerospace, with the following method steps: - supplying a structural arrangement comprising a structure which is made of metal and is preimpregnated with a resin matrix, wherein the structure being formed as a metal net which has a diamond-shaped, rectangular and/or honeycomb-shaped recesses filled with the resin matrix; - laying the structural arrangement (1; 12) on a laminating apparatus by means of a tape-laying machine, and - curing the structural arrangement (1; 12) to form the component. - supplying a structural arrangement comprising a structure which is made of metal and is preimpregnated with a resin matrix, wherein the structure being formed as a metal net which has a diamond-shaped, rectangular and/or honeycomb-shaped recesses filled with the resin matrix; - laying the structural arrangement (1; 12) on a laminating apparatus by means of a tape-laying machine, and - curing the structural arrangement (1; 12) to form the component.
A hydrocarbon processing vessel, the vessel comprising: - an elongate hull comprising longitudinal sides (4, 6), a base extending between the sides, a deck being located atop the hull and between the sides, and a longitudinal mid-plane in between the longitudinal sides; - a plurality of first storage tanks arranged on the starboard side of the longitudinal mid-plane; - a plurality of second storage tanks arranged on the port side of the longitudinal mid-plane in symmetrical side-by-side arrangement with the plurality of first storage tanks; and - at least one longitudinal bulkhead extending along the mid-plane and located between adjacent first and second storage tanks, wherein the at least one bulkhead comprises a first longitudinal bulkhead and a second longitudinal bulkhead spaced apart from and parallel to the first longitudinal bulkhead, characterized in that a container or a duct to contain ballasting water is arranged within a space between the first and second bulkhead near the base of the vessel, wherein the maximum width of the vessel is 70 meters or more. - an elongate hull comprising longitudinal sides (4, 6), a base extending between the sides, a deck being located atop the hull and between the sides, and a longitudinal mid-plane in between the longitudinal sides; - a plurality of first storage tanks arranged on the starboard side of the longitudinal mid-plane; - a plurality of second storage tanks arranged on the port side of the longitudinal mid-plane in symmetrical side-by-side arrangement with the plurality of first storage tanks; and - at least one longitudinal bulkhead extending along the mid-plane and located between adjacent first and second storage tanks, wherein the at least one bulkhead comprises a first longitudinal bulkhead and a second longitudinal bulkhead spaced apart from and parallel to the first longitudinal bulkhead, - at least one longitudinal bulkhead extending along the mid-plane and located between adjacent first and second storage tanks, wherein the at least one bulkhead comprises a first longitudinal bulkhead and a second longitudinal bulkhead spaced apart from and parallel to the first longitudinal bulkhead,
A method of controlling a reset procedure for a 3GPP radio communication link between a sender and a receiver, wherein receiving status reports are sent from the receiver to the sender to inform the sender about which packed data units have been received and not received, the method comprises the steps of: (a) the sender receiving at least a first receiving status report sent from the receiver, determining that the receiving status report contains protocol error, transmitting a RESET PDU to the receiver for activating a corresponding reset procedure, and starting a timer for clocking a predetermined period of time; (b) before the number of transmissions of the RESET PDUs reaches a predetermined value, called M hereafter, the sender outputting a RESET PDU to the receiver each time the timer expires (c) when the number of transmissions of the RESET PDUs reaches M and either the timer expires or a RESET PDU is triggered to be transmitted by step (b), the sender detecting an unrecoverable protocol error; and (d) the sender recognizing the reset procedure as ongoing before the sender receives a RESET ACK PDU outputted from the receiver; characterised in that step (d) further comprises that the sender ignores a second receiving status report outputted from the receiver when the reset procedure is ongoing, wherein the second receiving status report is received later than the first receiving status report. (a) the sender receiving at least a first receiving status report sent from the receiver, determining that the receiving status report contains protocol error, transmitting a RESET PDU to the receiver for activating a corresponding reset procedure, and starting a timer for clocking a predetermined period of time; (b) before the number of transmissions of the RESET PDUs reaches a predetermined value, called M hereafter, the sender outputting a RESET PDU to the receiver each time the timer expires (c) when the number of transmissions of the RESET PDUs reaches M and either the timer expires or a RESET PDU is triggered to be transmitted by step (b), the sender detecting an unrecoverable protocol error; and (d) the sender recognizing the reset procedure as ongoing before the sender receives a RESET ACK PDU outputted from the receiver;
A composition being the reaction product of (a) an unsaturated or branched carboxylic acid or ester; (b) 2-aminoethylethanolamine; and (c) glycidol; or (a) a carboxylic acid or ester; (b) alkyloxypropyl-1,3-diaminopropane; and (c) glycidol. (a) an unsaturated or branched carboxylic acid or ester; (b) 2-aminoethylethanolamine; and (c) glycidol; or (a) a carboxylic acid or ester; (b) alkyloxypropyl-1,3-diaminopropane; and (c) glycidol.
An ultrasonic liquid delivery device comprising: a housing having an internal chamber, at least one inlet in fluid communication with the internal chamber for receiving liquid into the internal chamber and at least one exhaust port in fluid communication with the internal chamber whereby liquid within the chamber exits the housing at said at least one exhaust port; an ultrasonic waveguide separate from the housing and disposed at least in part within the internal chamber of the housing to ultrasonically energize liquid within the internal chamber prior to said liquid being exhausted from the housing through the at least one exhaust port; an excitation device operable to ultrasonically excite said ultrasonic waveguide; and a control system for controlling operation of the liquid delivery device between an excitation mode in which the excitation device is operated at an ultrasonic excitation frequency to ultrasonically excite the ultrasonic waveguide and a ring down mode in which the excitation device is inoperable to excite the ultrasonic waveguide such that the ultrasonic waveguide is allowed to ring down, characterised in that the control system is operated to monitor a ring down frequency of said ring down with a feedback sensor and further being responsive to said ring down of the ultrasonic waveguide to adjust the excitation frequency of the excitation device in the excitation mode thereof based at least in part on the ring down frequency. a housing having an internal chamber, at least one inlet in fluid communication with the internal chamber for receiving liquid into the internal chamber and at least one exhaust port in fluid communication with the internal chamber whereby liquid within the chamber exits the housing at said at least one exhaust port; an ultrasonic waveguide separate from the housing and disposed at least in part within the internal chamber of the housing to ultrasonically energize liquid within the internal chamber prior to said liquid being exhausted from the housing through the at least one exhaust port; an excitation device operable to ultrasonically excite said ultrasonic waveguide; and a control system for controlling operation of the liquid delivery device between an excitation mode in which the excitation device is operated at an ultrasonic excitation frequency to ultrasonically excite the ultrasonic waveguide and a ring down mode in which the excitation device is inoperable to excite the ultrasonic waveguide such that the ultrasonic waveguide is allowed to ring down, characterised in that the control system is operated to monitor a ring down frequency of said ring down with a feedback sensor and further being responsive to said ring down of the ultrasonic waveguide to adjust the excitation frequency of the excitation device in the excitation mode thereof based at least in part on the ring down frequency.
An elevator system (1, 1') comprising: a portable emergency stop switch (2, 2'), arranged to transmit a signal when activated; a first signal receiver (6, 6'), arranged to receive the signal (4, 4') transmitted by the portable emergency stop switch (2, 2'); and an elevator safety actuator (8, 8') and an elevator safety brake (10, 10'), wherein in response to receipt of the signal (4, 4'), the first signal receiver (6, 6') is arranged to trigger the elevator safety actuator (8, 8') to deploy the elevator safety brake (10, 10') characterised in that: the system (1, 1') further comprises a second signal receiver arranged to disconnect a power supply to an elevator car and/or to an elevator drive system in response to the receipt of the signal (4, 4'). a portable emergency stop switch (2, 2'), arranged to transmit a signal when activated; a first signal receiver (6, 6'), arranged to receive the signal (4, 4') transmitted by the portable emergency stop switch (2, 2'); and an elevator safety actuator (8, 8') and an elevator safety brake (10, 10'), wherein in response to receipt of the signal (4, 4'), the first signal receiver (6, 6') is arranged to trigger the elevator safety actuator (8, 8') to deploy the elevator safety brake (10, 10') characterised in that: the system (1, 1') further comprises a second signal receiver arranged to disconnect a power supply to an elevator car and/or to an elevator drive system in response to the receipt of the signal (4, 4').
Method for automatic positioning of a patient relative to a medical device, wherein the patient is positioned on a patient setup device of the medical device in a detection area of an optical position determining device of the medical device, said optical position determining device comprising at least one three-dimensional light curtain arrangement, wherein a start position of the patient is detected by the optical position determining device and a position deviation between the start position detected and a target position stored in a control device is determined, wherein, depending on the position deviation, the patient setup device is automatically positioned in the target position in up to three dimensions, characterised in that a three-dimensional light curtain arrangement is used which comprises a plurality of light curtains (4, 5), the detection areas of which at least partially intersect at an angle, wherein a first light curtain having a detection area disposed essentially parallel to a patient setup device surface provided for patient positioning and a second light curtain having a detection area disposed at an angle to the patient setup device surface provided for patient positioning are used.
A method of operating a communication device, the method comprising: sending a transmit signal; generating a local oscillator signal; processing the local oscillator signal in a local oscillator path of the receiver of the communication device to obtain a processed oscillator signal; determining power level of the transmit signal; and characterised by varying the drive level of the local oscillator path as a predefined function of the power level of the transmit signal, the step of varying being performed while the receiver of the communication device is operational. sending a transmit signal; generating a local oscillator signal; processing the local oscillator signal in a local oscillator path of the receiver of the communication device to obtain a processed oscillator signal; determining power level of the transmit signal; and characterised by varying the drive level of the local oscillator path as a predefined function of the power level of the transmit signal, the step of varying being performed while the receiver of the communication device is operational.
Spreading device for dispensing material to be spread, in particular fertilizer spreader, having - a spreading unit, which has at least one container for storing the material to be spread, at least one centrifugal disc (18a, 18b), able to be driven in rotation, for ejecting the material to be spread, and at least one feeding device (16a, 16b) for feeding the material to be spread onto the at least one centrifugal disc (18a, 18b); and - an adjusting device, by means of which the spreading pattern of the spreading device is able to be altered, and which is designed to pivot the spreading unit in order to alter the spreading pattern of the spreading device, characterized in that the adjusting device is designed to pivot the spreading unit in such a way that the middle of the spreading pattern remains substantially at the middle of a tramline during the pivoting operation. - a spreading unit, which has at least one container for storing the material to be spread, at least one centrifugal disc (18a, 18b), able to be driven in rotation, for ejecting the material to be spread, and at least one feeding device (16a, 16b) for feeding the material to be spread onto the at least one centrifugal disc (18a, 18b); and - an adjusting device, by means of which the spreading pattern of the spreading device is able to be altered, and which
An electric resistance welded steel pipe for a high-strength hollow stabilizer, the steel pipe having: a chemical composition containing, by mass%, C: 0.20% to 0.40%, Si: 0.1% to 1.0%, Mn: 0.1% to 2.0%, P: 0.1% or less, S: 0.01% or less, Al: 0.01% to 0.10%, Cr: 0.01% to 0.5%, Ti: 0.01% to 0.05%, B: 0.0005% to 0.005%, Ca: 0.0001% to 0.0050%, N: 0.0050% or less, REM: 0.02% or less, further one, two, or all selected from Nb: 0.001% to 0.05%, W: 0.01% to 0.05%, V: 0.05% to 0.5%, and the balance being Fe and inevitable impurities; and a microstructure in which each of the amounts of TiS particles having a particle size of 10 μm or more and MnS particles having a particle size of 10 μm or more is 0.1% or less, including 0%, in terms of cleanliness determined by a point counting method in accordance with JIS G 0555, the steel pipe has, when subjected to cold forming followed by a quenching and tempering treatment, a microstructure in which the average grain size of prior austenite grains is 50 μm or less and a hardness of 400 HV or more and less than 550 HV in terms of Vickers hardness, wherein, in the quenching and tempering treatment, a quenching treatment is conducted by heating to a temperature in a range of Ac 3 transformation temperature to 1100°C, holding for one second or more and then rapid cooling at a cooling rate of 10°C/s to 100°C/s, and thereafter a tempering treatment is performed at a temperature of 200°C to 450°C. a chemical composition containing, by mass%, C: 0.20% to 0.40%, Si: 0.1% to 1.0%, Mn: 0.1% to 2.0%, P: 0.1% or less, S: 0.01% or less, Al: 0.01% to 0.10%, Cr: 0.01% to 0.5%, Ti: 0.01% to 0.05%, B: 0.0005% to 0.005%, Ca: 0.0001% to 0.0050%, N: 0.0050% or less, REM: 0.02% or less, further one, two, or all selected from Nb: 0.001% to 0.05%, W: 0.01% to 0.05%, V: 0.05% to 0.5%, and the balance being Fe and inevitable impurities; and C: 0.20% to 0.40%, Si: 0.1% to 1.0%, Mn: 0.1% to 2.0%, P: 0.1% or less, S: 0.01% or less, Al: 0.01% to 0.10%, Cr: 0.01% to 0.5%, Ti: 0.01% to 0.05%, B: 0.0005% to 0.005%, Ca: 0.0001% to 0.0050%, N: 0.0050% or less, REM: 0.02% or less, further one, two, or all selected from Nb: 0.001% to 0.05%, W: 0.01% to 0.05%, V: 0.05% to 0.5%, and the balance being Fe and inevitable impurities; and a microstructure in which each of the amounts of TiS particles having a particle size of 10 μm or more and MnS particles having a particle size of 10 μm or more is 0.1% or less, including 0%, in terms of cleanliness determined by a point counting method in accordance with JIS G 0555, the steel pipe has, when subjected to cold forming followed by a quenching and tempering treatment, a microstructure in which the average grain size of prior austenite grains is 50 μm or less and a hardness of 400 HV or more and less than 550 HV in terms of Vickers hardness, wherein, in the quenching and tempering treatment, a quenching treatment is conducted by heating to a temperature in a range of Ac 3 transformation temperature to 1100°C, holding for one second or more and then rapid cooling at a cooling rate of 10°C/s to 100°C/s, and thereafter a tempering treatment is performed at a temperature of 200°C to 450°C.