mhurhangee/ep-ind-claims huggingface dataset:
An electronic device (101, 1501, 1601) comprising: a display panel including a plurality of pixels; a random access memory, RAM,; an application processor, AP, configured to execute an application; a first chip including a first display driving integrated circuit, wherein the first display driving integrated circuit includes a processor and a graphics memory; and a second chip including a second display driving integrated circuit, wherein the second chip is connected to the display panel; wherein the first chip is configured to receive first image data from the AP and output second image data to a second chip; wherein the second display driving integrated circuit includes source drivers, gate drivers and a timing controller, configured to control the plurality of pixels according to the second image data output by the first chip; wherein the timing controller is configured to generate a source control signal for controlling an operation timing of the source drivers and a gate control signal for controlling an operation timing of the gate drivers; and wherein the processor is configured to: when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip. a display panel including a plurality of pixels; a random access memory, RAM,; an application processor, AP, configured to execute an application; a first chip including a first display driving integrated circuit, wherein the first display driving integrated circuit includes a processor and a graphics memory; and a second chip including a second display driving integrated circuit, wherein the second chip is connected to the display panel; wherein the first chip is configured to receive first image data from the AP and output second image data to a second chip; wherein the second display driving integrated circuit includes source drivers, gate drivers and a timing controller, configured to control the plurality of pixels according to the second image data output by the first chip; wherein the timing controller is configured to generate a source control signal for controlling an operation timing of the source drivers and a gate control signal for controlling an operation timing of the gate drivers; and wherein the processor is configured to: when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip. when the AP is in a sleep state, compose the first image data based at least on at least one image stored in the graphics memory based on a control signal received from the AP or post-process the first image data, to generate the second image data, and output the second image data to the second chip.
An integrated circuit, comprising: a photodetection region configured to receive incident photons, the photodetection region being configured to produce a plurality of charge carriers in response to the incident photons; at least one charge carrier storage region; a charge carrier segregation structure configured to selectively direct charge carriers of the plurality of charge carriers into the at least one charge carrier storage region based upon times at which the charge carriers are produced; and a control circuit configured to control the charge carrier segregation structure to perform a measurement, the measurement comprising: a charge carrier capture phase in which the charge carrier segregation structure forms at least one potential barrier; and after the charge carrier capture phase, a charge carrier transfer phase in which a charge carrier, if captured during the charge carrier capture phase, is transferred to the at least one charge carrier storage region. a photodetection region configured to receive incident photons, the photodetection region being configured to produce a plurality of charge carriers in response to the incident photons; at least one charge carrier storage region; a charge carrier segregation structure configured to selectively direct charge carriers of the plurality of charge carriers into the at least one charge carrier storage region based upon times at which the charge carriers are produced; and a control circuit configured to control the charge carrier segregation structure to perform a measurement, the measurement comprising: a charge carrier capture phase in which the charge carrier segregation structure forms at least one potential barrier; and after the charge carrier capture phase, a charge carrier transfer phase in which a charge carrier, if captured during the charge carrier capture phase, is transferred to the at least one charge carrier storage region. a charge carrier capture phase in which the charge carrier segregation structure forms at least one potential barrier; and after the charge carrier capture phase, a charge carrier transfer phase in which a charge carrier, if captured during the charge carrier capture phase, is transferred to the at least one charge carrier storage region.
A method for reporting a resource, comprising: obtaining, by a terminal device (20, 30), first configuration information configured by a network device; determining, by the terminal device (20, 30), a first wireless time-frequency resource according to the first configuration information, the first wireless time-frequency resource being used for terminal-to-terminal communication; obtaining, by the terminal device, second configuration information configured by the network device; determining, by the terminal device, a second wireless time-frequency resource according to the second configuration information; obtaining, by the terminal device, a measurement result of the first wireless time-frequency resource by sensing the second wireless time-frequency resource; and reporting, by the terminal device (20, 30), the measurement result of the first wireless time-frequency resource to the network device, wherein the terminal device (20, 30) is a terminal device that supports a network scheduled terminal-to-terminal communication resource mode, and wherein a time position or range of the first wireless time-frequency resource to be reported by the terminal device is indicated by a first index. obtaining, by a terminal device (20, 30), first configuration information configured by a network device; determining, by the terminal device (20, 30), a first wireless time-frequency resource according to the first configuration information, the first wireless time-frequency resource being used for terminal-to-terminal communication; obtaining, by the terminal device, second configuration information configured by the network device; determining, by the terminal device, a second wireless time-frequency resource according to the second configuration information; obtaining, by the terminal device, a measurement result of the first wireless time-frequency resource by sensing the second wireless time-frequency resource; and reporting, by the terminal device (20, 30), the measurement result of the first wireless time-frequency resource to the network device, wherein the terminal device (20, 30) is a terminal device that supports a network scheduled terminal-to-terminal communication resource mode, and wherein a time position or range of the first wireless time-frequency resource to be reported by the terminal device is indicated by a first index.
A device comprising: a first heterostructure epitaxially grown on a bulk crystalline AlN substrate, the first heterostructure having a first and second surface (101, 142), the first surface being an initial surface of epitaxial growth of the first heterostructure; a light emitting layer epitaxially grown above the second surface of the first heterostructure; a second heterostructure epitaxially grown above the light emitting layer; and wherein the substrate is at least in part removed from the device, characterized in that the defect density at the initial surface of epitaxial growth is less than 10 8 cm -3 within about 100 nm of the initial surface of epitaxial growth. a first heterostructure epitaxially grown on a bulk crystalline AlN substrate, the first heterostructure having a first and second surface (101, 142), the first surface being an initial surface of epitaxial growth of the first heterostructure; a light emitting layer epitaxially grown above the second surface of the first heterostructure; a second heterostructure epitaxially grown above the light emitting layer; and wherein the substrate is at least in part removed from the device, characterized in that the defect density at the initial surface of epitaxial growth is less than 10 8 cm -3 within about 100 nm of the initial surface of epitaxial growth.
An interrupt controller, comprising: a fabric slave circuit to connect to a fabric for a computing system, the fabric slave circuit configured to receive, from the fabric, an MMIO write request including an MMIO address and MMIO write data, wherein the MMIO write data includes an indication of a task to be done for an MMIO interrupt, and wherein MMIO stands for Memory Mapped Input/Output; a plurality of output interrupt lines that connect to different interrupt targets; a plurality of interrupt registers, each interrupt register corresponds to at least one output interrupt line of the plurality of output interrupt lines; and a MMIO routing circuit connected to the fabric slave and the plurality of interrupt registers, the MMIO routing circuit configured to route the received MMIO write data to a targeted interrupt register corresponding to a targeted output interrupt line identified by the received MMIO address so that the targeted interrupt register stores the indication of the task to be done for the MMIO interrupt, storing of the indication of the task to be done for the MMIO interrupt in the targeted interrupt register triggers assertion of the targeted output interrupt line. a fabric slave circuit to connect to a fabric for a computing system, the fabric slave circuit configured to receive, from the fabric, an MMIO write request including an MMIO address and MMIO write data, wherein the MMIO write data includes an indication of a task to be done for an MMIO interrupt, and wherein MMIO stands for Memory Mapped Input/Output; a plurality of output interrupt lines that connect to different interrupt targets; a plurality of interrupt registers, each interrupt register corresponds to at least one output interrupt line of the plurality of output interrupt lines; and a MMIO routing circuit connected to the fabric slave and the plurality of interrupt registers, the MMIO routing circuit configured to route the received MMIO write data to a targeted interrupt register corresponding to a targeted output interrupt line identified by the received MMIO address so that the targeted interrupt register stores the indication of the task to be done for the MMIO interrupt, storing of the indication of the task to be done for the MMIO interrupt in the targeted interrupt register triggers assertion of the targeted output interrupt line.
A method for producing an antigen specific T regulatory cell, comprising (a) transducing a T regulatory cell with an expression vector comprising a nucleotide sequence encoding a T cell receptor that specifically recognizes an antigen, and (b) expanding the transduced T regulatory cell ex vivo, wherein (i) the antigen is the C2 domain of human clotting factor VIII, and the T cell receptor has the amino acid sequence of SEQ ID NO: 1; or (ii) the antigen is myelin basic protein, and the T cell receptor has the amino acid sequence of SEQ ID NO: 2. (a) transducing a T regulatory cell with an expression vector comprising a nucleotide sequence encoding a T cell receptor that specifically recognizes an antigen, and (b) expanding the transduced T regulatory cell ex vivo, (i) the antigen is the C2 domain of human clotting factor VIII, and the T cell receptor has the amino acid sequence of SEQ ID NO: 1; or (ii) the antigen is myelin basic protein, and the T cell receptor has the amino acid sequence of SEQ ID NO: 2.
A disk diffusion assay for determining susceptibility of bacteria to oritavancin, said assay comprising: a) impregnating a paper disk with a solution comprising oritavancin, polysorbate 80 and Span 80, b) placing the impregnated disk on the surface of a bacteria-coated media plate, c) incubating the plate of b) under conditions promoting bacterial growth, and d) measuring a zone of inhibition around the disk, wherein the assay yields an inhibition zone diameter ≥15mm when the CLSI quality control strain methicillin-susceptible Staphylococcus aureus (MSSA) 25923 is used. a) impregnating a paper disk with a solution comprising oritavancin, polysorbate 80 and Span 80, b) placing the impregnated disk on the surface of a bacteria-coated media plate, c) incubating the plate of b) under conditions promoting bacterial growth, and d) measuring a zone of inhibition around the disk, wherein the assay yields an inhibition zone diameter ≥15mm when the CLSI quality control strain methicillin-susceptible Staphylococcus aureus (MSSA) 25923 is used.
Method for grinding spring ends of helical compression springs using a numerically controlled spring end grinding machine, which has a grinding unit, a loading unit and a control unit for controlling the loading unit and the grinding unit, wherein the grinding unit has a pair of grinding wheels comprising two rotatable grinding wheels (130, 140), between which there is formed a grinding space, and the loading unit has at least one loading plate (160, 170), which is rotatable substantially axially parallel to the grinding wheels and has a plurality of out-of-axis spring receptacles, each for receiving a helical compression spring, wherein, during a grinding operation, helical compression springs that have been received in spring receptacles are successively transported through the grinding space between the rotating grinding wheels by rotation of the loading plate and, as this happens, both spring ends of the helical compression springs located in the grinding space are in each case simultaneously machined by grinding, characterized in that a temperature signal representing the temperature is determined by a temperature measurement on at least one of the helical compression springs during the grinding operation and the spring end grinding machine is controlled in dependence on the temperature signal, wherein one of the grinding wheels is infed in the direction of the other grinding wheel during the grinding operation at an infeed rate that can be predetermined by the control unit and wherein the infeed rate is controlled in dependence on the temperature signal.
A method for locating a tag by a sensor network, the sensor network comprising a reference anchor and a plurality of anchors synchronised with said reference anchor, the reference anchor emitting a Ultra Wide Band, UWB, signal, comprising first beacons at regular intervals, the interval between two first successive beacons defining a first time frame comprising elementary time intervals during which the sensors and the tag can access to UWB channel, said method further comprising: - transmitting by the reference anchor a narrowband signal on an auxiliary channel, the narrowband signal comprises second beacons at regular intervals, the interval between two second successive beacons defining a second time frame, the second beacons being synchronous with the first beacons, the reference anchor transmitting during the second time frame an elementary interval index to said tag; - receiving by said tag said index on the auxiliary channel and transmitting by the same a clap message, that is a pulse or a brief message, on the UWB channel during an elementary interval associated with said index; - receiving by said anchors the clap message and determining time differences of arrival of this message to the different anchors; - calculating the position of the tag from the time differences of arrival thus determined. - transmitting by the reference anchor a narrowband signal on an auxiliary channel, the narrowband signal comprises second beacons at regular intervals, the interval between two second successive beacons defining a second time frame, the second beacons being synchronous with the first beacons, the reference anchor transmitting during the second time frame an elementary interval index to said tag; - receiving by said tag said index on the auxiliary channel and transmitting by the same a clap message, that is a pulse or a brief message, on the UWB channel during an elementary interval associated with said index; - receiving by said anchors the clap message and determining time differences of arrival of this message to the different anchors; - calculating the position of the tag from the time differences of arrival thus determined.
Guiding and calibration device of a blown plastic film, comprising a bearing structure (1, 2) which provides along an ideal circumference equidistant rotation fulcrums of rotating structures, each rotating structure comprises a rotating vertical upright and at least one arm (44, 45) fixed to said rotating vertical upright, a vertical floating element is rotatably fixed to the at least one arm (44, 45), guide means of the blown plastic film are fixed to the vertical floating element, the rotating structures are connected to each other through motion synchronization means (8, 9) operated by at least one motor, characterized in that the device further comprises groups of rectilinear bars (12a, 12b) formed by at least one pair of rectilinear bars (12a, 12b) parallel to each other and slidingly side by side along respective external edges, each bar (12a, 12b) of each pair of bars (12a, 12b) being integrally fixed to respective adjacent vertical floating elements. each rotating structure comprises a rotating vertical upright and at least one arm (44, 45) fixed to said rotating vertical upright, a vertical floating element is rotatably fixed to the at least one arm (44, 45), guide means of the blown plastic film are fixed to the vertical floating element, the rotating structures are connected to each other through motion synchronization means (8, 9) operated by at least one motor, characterized in that the device further comprises groups of rectilinear bars (12a, 12b) formed by at least one pair of rectilinear bars (12a, 12b) parallel to each other and slidingly side by side along respective external edges, each bar (12a, 12b) of each pair of bars (12a, 12b) being integrally fixed to respective adjacent vertical floating elements.
A method of forming a lithiated transition metal oxide comprising the steps of: immersing a working electrode into a non-aqueous electrolyte comprising electrodepositable material having a chemical composition capable of forming the lithiated transition metal oxide by electrodeposition, and including a lithium source and a transition metal source, electrodepositing a lithiated transition metal oxide onto a surface of the working electrode from the electrolyte at a temperature in excess of the melting temperature of the non-aqueous electrolyte, removing the working electrode from the bath and rinsing the electrodeposited lithiated transition metal oxide. immersing a working electrode into a non-aqueous electrolyte comprising electrodepositable material having a chemical composition capable of forming the lithiated transition metal oxide by electrodeposition, and including a lithium source and a transition metal source, electrodepositing a lithiated transition metal oxide onto a surface of the working electrode from the electrolyte at a temperature in excess of the melting temperature of the non-aqueous electrolyte, removing the working electrode from the bath and rinsing the electrodeposited lithiated transition metal oxide.
An inhalation device controller comprising: a holding portion configured to hold an atomizer including a heater configured to heat an aerosol source; a power supply unit configured to supply power to the heater of the atomizer attached to the holding portion; an amplifier to which a voltage according to a voltage of a node on a current path configured to supply the power to the heater is input; and a processor configured to acquire information from the amplifier and execute control according to the information, wherein a first range within which a value of the information falls in a holding state in which the holding portion holds the atomizer and a second range within which the value of the information falls in a non-holding state in which the holding portion does not hold the atomizer do not include ranges overlapping each other, the upper limit of the first range is smaller than a power supply voltage supplied to the power supply terminal of the amplifier, and the lower limit of the second range is larger than the upper limit of the first range, and the processor determines, based on the value of the information, whether a state of the holding portion is the holding state or the non-holding state. a holding portion configured to hold an atomizer including a heater configured to heat an aerosol source; a power supply unit configured to supply power to the heater of the atomizer attached to the holding portion; an amplifier to which a voltage according to a voltage of a node on a current path configured to supply the power to the heater is input; and a processor configured to acquire information from the amplifier and execute control according to the information, wherein a first range within which a value of the information falls in a holding state in which the holding portion holds the atomizer and a second range within which the value of the information falls in a non-holding state in which the holding portion does not hold the atomizer do not include ranges overlapping each other, the upper limit of the first range is smaller than a power supply voltage supplied to the power supply terminal of the amplifier, and the lower limit of the second range is larger than the upper limit of the first range, and the processor determines, based on the value of the information, whether a state of the holding portion is the holding state or the non-holding state.
A dustpan formed from sheet material, the dustpan having: a handle portion; a receptacle portion into which dust and/or waste can be swept; and a fold-line provided between the handle portion and the receptacle portion, wherein the fold-line extends in a straight line across the sheet material forming the dustpan, such that, in an unassembled configuration, the handle portion can be folded to lie flat against the receptacle portion by folding along the fold-line, wherein the handle portion comprises a plurality of handle fold-lines (223, 225, 227, 229), whereby to form the handle portion, and characterized in that the handle portion is formed of at least four panels (222, 224, 226, 228, 230), separated by at least three handle fold-lines (223, 225, 227, 229). a handle portion; a receptacle portion into which dust and/or waste can be swept; and a fold-line provided between the handle portion and the receptacle portion, wherein the fold-line extends in a straight line across the sheet material forming the dustpan, such that, in an unassembled configuration, the handle portion can be folded to lie flat against the receptacle portion by folding along the fold-line, wherein the handle portion comprises a plurality of handle fold-lines (223, 225, 227, 229), whereby to form the handle portion, and characterized in that the handle portion is formed of at least four panels (222, 224, 226, 228, 230), separated by at least three handle fold-lines (223, 225, 227, 229).