mhurhangee/patent-ind-claim-en huggingface dataset:
Optoelectronic sensor device, comprising: an optoelectronic detection device configured to detect light and configured to provide an electrical signal as a function of detected light based on a detected light intensity a signal detection device configured to store at least one signal value of the electrical signal in a memory during a time interval of repeating time intervals (T), and a communication interface, characterized in that the signal detection device is configured to output a display signal , which is different from the at least one signal value, via the communication interface of the sensor device after the time interval (T) has elapsed and at the beginning of a subsequent time interval in order to signal that the at least one signal value can be read out from the memory . an optoelectronic detection device configured to detect light and configured to provide an electrical signal as a function of detected light based on a detected light intensity a signal detection device configured to store at least one signal value of the electrical signal in a memory during a time interval of repeating time intervals (T), and a communication interface,
A brazing sheet comprising a core layer made of a first aluminium alloy, attached to one side of said core layer a sacrificial cladding made of a second aluminium alloy, attached to the other side of said core layer a braze cladding made of a third aluminium alloy, wherein said first aluminium alloy consists of: Si 0.2-1.0 wt% Fe 0.15-1.0 wt% Cu 0.2-0.9 wt% Mn 1.0-1.6 wt% Mg ≤0.3 wt% Cr 0.05-0.15 wt% Zr 0.05-0.25 wt% Ti 0.05-0.25 wt% Other elements ≤0.05 wt% each and ≤0.2 wt% in total Al balance up to 100 wt%; said second aluminium alloy consists of: Si 0.45-1.0 wt% Fe ≤0.4 wt% Cu ≤0.05 wt% Mn 1.2-1.8 wt% Ti ≤0.10 wt% Zn 1.3-5.5 wt% Zr 0.05-0.20 wt% Other elements ≤0.05 wt% each and ≤0.2 wt% in total Al balance up to 100 wt%; and, said third aluminium alloy has a melting point lower than said first and second aluminium alloys.
A fuel assembly configured to be positioned in a nuclear water reactor, wherein the fuel assembly comprises an upstream end , a downstream end , a flow interspace between the upstream end and the downstream end , a plurality of fuel rods provided in the flow interspace between the upstream end and the downstream end (1 b), the flow interspace being configured to permit a flow of coolant through the fuel assembly along a flow direction (F) from the upstream end to the downstream end in contact with the fuel rods , a filter device configured to catch debris particles in the flow of coolant, wherein the filter device comprises a first filter zone provided in the flow of coolant between the upstream end and the fuel rods , and a second filter zone , wherein the first filter zone and the second filter zone are configured to catch said debris particles, wherein the first filter zone comprises a plurality of passages arranged to guide at least a part of the flow of coolant to pass the first filter zone through the passages towards the downstream end , wherein the second filter zone comprises a plurality of passages arranged to guide at most a part of the flow of coolant to pass the second filter zone through the passages towards the downstream end , wherein the first filter zone has a first filtering efficiency and the second filter zone has a second filtering efficiency, wherein the second filtering efficiency is higher than the first filtering efficiency, and wherein the passages of the first filter zone and the second filter zone are formed by a plurality of sheets , which are arranged beside each other and oriented along the flow direction (F), characterized in that adjacent sheets of the first filter zone are provided at a larger distance from each other than adjacent sheets of the second filter zone .
A computer-implemented method of determining the shape of a radiation beam of a radiotherapy system at a target position, the system comprising: a radiation source for projecting the radiation beam towards the target position along a beam axis; and a multi-leaf collimator disposed between the radiation source and the target position, the multi-leaf collimator comprising an array of moveable leaves that may be positioned to intersect and block parts of the radiation beam so as to define the shape of the radiation beam at the target position, wherein at least some of the leaves in the array are aligned such that the planes of those leaves converge at a point that is displaced laterally from the radiation source; the method comprising: for each leaf in the array that is positioned to intersect the radiation beam, determining a projected width with respect to the radiation beam, wherein the projected width is greater than the thickness of the respective leaf, and for leaves of substantially the same thickness, determining a wider projected width for a leaf further from the beam axis than the projected width for a leaf closer to the beam axis; and using the projected leaf width to determine the shape of the radiation beam at the target position. a radiation source for projecting the radiation beam towards the target position along a beam axis; and a multi-leaf collimator disposed between the radiation source and the target position, the multi-leaf collimator comprising an array of moveable leaves that may be positioned to intersect and block parts of the radiation beam so as to define the shape of the radiation beam at the target position, wherein at least some of the leaves in the array are aligned such that the planes of those leaves converge at a point that is displaced laterally from the radiation source; the method comprising: for each leaf in the array that is positioned to intersect the radiation beam, determining a projected width with respect to the radiation beam, wherein the projected width is greater than the thickness of the respective leaf, and for leaves of substantially the same thickness, determining a wider projected width for a leaf further from the beam axis than the projected width for a leaf closer to the beam axis; and using the projected leaf width to determine the shape of the radiation beam at the target position. for each leaf in the array that is positioned to intersect the radiation beam, determining a projected width with respect to the radiation beam, wherein the projected width is greater than the thickness of the respective leaf, and for leaves of substantially the same thickness, determining a wider projected width for a leaf further from the beam axis than the projected width for a leaf closer to the beam axis; and using the projected leaf width to determine the shape of the radiation beam at the target position.
An energy storage module , comprising: a plurality of energy storage elements arranged in a holding frame , wherein the energy storage elements are adapted for storing electric energy and are electrically interconnected via their poles between inputs of the energy storage module ; a sensor board comprising a rigid circuit board with an electronic circuit for evaluating voltage measurements in the energy storage module ; a flexprint with conductor lines on or in a flexible plastics substrate for interconnecting the sensor board with electrical conducting parts of the energy storage module ; wherein the flexprint comprises connector elements , the connector elements comprising conductor areas printed on the flexible plastics substrate for connecting the flexprint to the electrical conducting parts of the energy storage module and to the sensor board ; wherein the flexprint comprises a main branch connected to the connector element of the sensor board , the main branch comprising a plurality of parallel running conductor lines characterised in that the flexprint comprises strip sections with ends providing connector elements , which strip sections interconnect the connector elements and which comprise at least one conductor line connecting the conductor areas at different connector elements ; wherein the flexprint comprises a plurality of strip sections branching off the main branch . a plurality of energy storage elements arranged in a holding frame , wherein the energy storage elements are adapted for storing electric energy and are electrically interconnected via their poles between inputs of the energy storage module ; a sensor board comprising a rigid circuit board with an electronic circuit for evaluating voltage measurements in the energy storage module ; a flexprint with conductor lines on or in a flexible plastics substrate for interconnecting the sensor board with electrical conducting parts of the energy storage module ; wherein the flexprint comprises connector elements , the connector elements comprising conductor areas printed on the flexible plastics substrate for connecting the flexprint to the electrical conducting parts of the energy storage module and to the sensor board ; wherein the flexprint comprises a main branch connected to the connector element of the sensor board , the main branch comprising a plurality of parallel running conductor lines characterised in that the flexprint comprises strip sections with ends providing connector elements , which strip sections interconnect the connector elements and which comprise at least one conductor line connecting the conductor areas at different connector elements ; wherein the flexprint comprises a plurality of strip sections branching off the main branch .
A solar cell string comprising: a plurality of solar cells including electrodes ; and an electrically conductive member electrically connecting respective electrodes of said solar cells adjacent to each other, said electrically conductive member including at least two connecting portions connected to electrodes provided on one of a light receiving surface and a rear surface of one of said solar cells, said electrically conductive member being provided with a non-connecting portion located between said connecting portions and not physically connected to the electrodes of the solar cells, and said non-connecting portion includes at least one opening formed in said electrically conductive member, the opening having a configuration with its circumference closed. a plurality of solar cells including electrodes ; and an electrically conductive member electrically connecting respective electrodes of said solar cells adjacent to each other, said electrically conductive member including at least two connecting portions connected to electrodes provided on one of a light receiving surface and a rear surface of one of said solar cells, said electrically conductive member being provided with a non-connecting portion located between said connecting portions and not physically connected to the electrodes of the solar cells, and said non-connecting portion includes at least one opening formed in said electrically conductive member, the opening having a configuration with its circumference closed.
A discharge lamp lighting device comprising: a resonance circuit unit for connection to a discharge lamp , the resonance circuit unit having a resonant frequency (fr, fsr); a power converting unit configured to convert direct-current power into alternating-current power and supply the alternating-current power to the discharge lamp via the resonance circuit unit ; and a control unit configured to control the power converting unit to supply the alternating-current power to the discharge lamp such that the alternating-current power has a waveform including a plurality of first frequency periods alternating with a plurality of second frequency periods, wherein the alternating current power has a first frequency (fd) in each first frequency period and has a second frequency (fo) in each second frequency period, the second frequency being different from the first frequency, in a lighting start period (P1) up to a time when the discharge lamp reaches a steady lighting state, wherein the control unit is configured to change the first frequency (fd) stepwise between first frequency periods in the alternating current power waveform to decrease from a frequency higher than the resonant frequency (fr, fsr) of the resonance circuit unit to the resonant frequency (fr, fsr), and characterized in that the second frequency (fo) is higher than the resonant frequency (fr, fsr) and is equal to or higher than 145 kHz. a resonance circuit unit for connection to a discharge lamp , the resonance circuit unit having a resonant frequency (fr, fsr); a power converting unit configured to convert direct-current power into alternating-current power and supply the alternating-current power to the discharge lamp via the resonance circuit unit ; and a control unit configured to control the power converting unit to supply the alternating-current power to the discharge lamp such that the alternating-current power has a waveform including a plurality of first frequency periods alternating with a plurality of second frequency periods, wherein the alternating current power has a first frequency (fd) in each first frequency period and has a second frequency (fo) in each second frequency period, the second frequency being different from the first frequency, in a lighting start period (P1) up to a time when the discharge lamp reaches a steady lighting state, wherein the control unit is configured to change the first frequency (fd) stepwise between first frequency periods in the alternating current power waveform to decrease from a frequency higher than the resonant frequency (fr, fsr) of the resonance circuit unit to the resonant frequency (fr, fsr), and characterized in that the second frequency (fo) is higher than the resonant frequency (fr, fsr) and is equal to or higher than 145 kHz.
Method for manufacturing a vehicle, in which add-on parts are mounted on a vehicle body in a production line (P) of a vehicle construction plant, attached to each of which add-on parts is an add-on part transponder which, after installation of the respective add-on part in the vehicle, is detected by means of an RFID reader device for construction state documentation, wherein, in the production line (P), a belt retractor of a safety belt assembly is fitted as an add-on part into a cavity of a vehicle body column formed as a hollow beam, characterized in that the belt retractor is assigned at least one belt retractor transponder , and in that the belt retractor transponder is not attached directly to the belt retractor , but rather to a belt strap of the belt retractor outside the body column cavity .
Coating composition for the production of a dust-repelling coating on a substrate, comprising a polylkylsiloxane with terminal hydroxyl groups or a mixture of different polyalkylsiloxanes with terminal hydroxyl groups, silicon tetrahalide, alkyl halogen silane chosen from methyltrichlorosilane, dimethyldichlorosilane, chloropropyltrichlorosilane or the corresponding bromide compounds, or mixtures thereof, and an inert aprotic solvent.
A razor cartridge comprising: a plurality of razor blades installed in one direction of a cartridge frame ; and a trimmer installed in the other direction of the cartridge frame , wherein the trimmer includes: a trimming blade seated in a seating groove formed in the cartridge frame ; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge. a plurality of razor blades installed in one direction of a cartridge frame ; and a trimmer installed in the other direction of the cartridge frame , wherein the trimmer includes: a trimming blade seated in a seating groove formed in the cartridge frame ; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge. a trimming blade seated in a seating groove formed in the cartridge frame ; and a trimmer cap coupled to the cartridge frame so that the trimming blade is fixed, wherein the plurality of razor blades are formed at the front surface of the razor cartridge and the seating groove is formed at the rear surface of the razor cartridge.
A method comprising: receiving, by a persistent storage device , a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device, the method further comprising receiving a first write command, for the first logical block of data, the first write command including the first threshold value, wherein: the persistent storage device comprises flash memory and a logical to physical address mapping table ; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table ; and the row in which the first threshold value is stored corresponds to the first logical block of data. receiving, by a persistent storage device , a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device, the method further comprising receiving a first write command, for the first logical block of data, the first write command including the first threshold value, wherein: the persistent storage device comprises flash memory and a logical to physical address mapping table ; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table ; and the row in which the first threshold value is stored corresponds to the first logical block of data. the persistent storage device comprises flash memory and a logical to physical address mapping table ; the method further comprises storing the first threshold value in a row of the logical to physical address mapping table ; and the row in which the first threshold value is stored corresponds to the first logical block of data.
A data sending method, comprising: determining , by a first device, a first time-frequency resource used to transmit first data, wherein the first time-frequency resource occupies at least two subbands in frequency domain, the at least two subbands comprise a first subband and a second subband, and the first data is data obtained after a first transport block is encoded; determining , by the first device from the first time-frequency resource, a second time-frequency resource that can be used by the first device by performing channel detection on the at least two subbands, wherein the second time-frequency resource occupies K of the at least two subbands in frequency domain, K≥1; and sending , by the first device, the first data by using the second time-frequency resource; wherein the first data comprises at least two pieces of subdata, and the at least two pieces of subdata comprise the first subdata and the second subdata; the first transport block comprises a code block, the first subdata comprises high-priority data obtained after the code block is encoded, and the second subdata comprises low-priority data obtained after the code block is encoded, wherein the high-priority data comprises data formed by continuous bit streams output first after the code block is encoded, and the low-priority data comprises data formed by continuous bit streams output subsequently after the code block is encoded, with the continuous bit streams output first after the code block is encoded located in front of the continuous bit streams output subsequently after the code block is encoded. determining , by a first device, a first time-frequency resource used to transmit first data, wherein the first time-frequency resource occupies at least two subbands in frequency domain, the at least two subbands comprise a first subband and a second subband, and the first data is data obtained after a first transport block is encoded; determining , by the first device from the first time-frequency resource, a second time-frequency resource that can be used by the first device by performing channel detection on the at least two subbands, wherein the second time-frequency resource occupies K of the at least two subbands in frequency domain, K≥1; and sending , by the first device, the first data by using the second time-frequency resource; wherein the first data comprises at least two pieces of subdata, and the at least two pieces of subdata comprise the first subdata and the second subdata; the first transport block comprises a code block, the first subdata comprises high-priority data obtained after the code block is encoded, and the second subdata comprises low-priority data obtained after the code block is encoded, wherein the high-priority data comprises data formed by continuous bit streams output first after the code block is encoded, and the low-priority data comprises data formed by continuous bit streams output subsequently after the code block is encoded, with the continuous bit streams output first after the code block is encoded located in front of the continuous bit streams output subsequently after the code block is encoded.
A power factor measurement apparatus arranged to measure a power factor of power consumed at a load connected to a power source via a connection line , the apparatus comprising: a pair of coupling ends which are arranged to couple to the power source in parallel with the load ; a power factor sensor comprising first and second magnetic elements , wherein due to an external magnetic field, a resistance of the first magnetic element increases while a resistance of the second magnetic element decreases, and an increase amount of the resistance of the first magnetic element is substantially equal to a decrease amount of the second magnetic element, and power is supplied to both of the first and second magnetic elements from the power source ; a voltage detector configured to detect a differential voltage between the first and second magnetic elements ; a low pass filter connected with an output of the voltage detector ; a high pass filter connected with the output of the voltage detector ; a rectifier connected with an output of the high pass filter ; and a divider arranged to divide an output of the low pass filter by an output of the rectifier . a pair of coupling ends which are arranged to couple to the power source in parallel with the load ; a power factor sensor comprising first and second magnetic elements , wherein due to an external magnetic field, a resistance of the first magnetic element increases while a resistance of the second magnetic element decreases, and an increase amount of the resistance of the first magnetic element is substantially equal to a decrease amount of the second magnetic element, and power is supplied to both of the first and second magnetic elements from the power source ; a voltage detector configured to detect a differential voltage between the first and second magnetic elements ; a low pass filter connected with an output of the voltage detector ; a high pass filter connected with the output of the voltage detector ; a rectifier connected with an output of the high pass filter ; and a divider arranged to divide an output of the low pass filter by an output of the rectifier .