mhurhangee/ep-ind-claims huggingface dataset:
A LED collimator element for a vehicle headlight with a low-beam function, which emits at least visible light of one color from at least one region of a light source, wherein the LED collimator element has at least one LED as such a light source, whose predominant part of the light radiated in operation can be directly radiated in a radiation angular range of the LED collimator element, and comprises a collimator deflecting the light which is not radiated in the radiation angular range of the LED collimator element into the radiation angular range, wherein the LED collimator element is asymmetrically structured at least regarding a collimator cutting plane in such a way that a defined non-uniform brightness distribution is achievable in a radiation plane of the LED collimator element defined orthogonally with respect to the collimator cutting plane and with respect to a main direction of radiation of the LED collimator element, characterized in that at least one filter is arranged at least in one region of the collimator in such a way that, when realizing the low-beam function, the area of the traffic space which lies below the bright-dark cut-off can be illuminated in defined areas with visible light of different colors.
A data access method, wherein the method is applied to a distributed storage system, the distributed storage system comprises m storage nodes (1110, 1120, 1200, 1300), the m storage nodes comprise a first storage node, each storage node comprises at least one memory (1320, 1330), each memory comprises a non-volatile storage medium, and m is an integer greater than 1; and the method comprises: receiving, by the first storage node, a first data read request from a terminal, wherein the first data read request carries first location information, and the first location information is used to describe a location of first data in a data body to which the first data belongs; and if the first storage node determines, based on the first location information, that a memory (1320, 1330) in which the first data is located is a first memory, and the first memory belongs to the first storage node, when a state information set currently records that the first memory is in a trusted access state, reading, by the first storage node, the first data directly from the first memory, and when a state information set currently records that the first memory (1320, 1330) is in an untrusted access state, collecting other strips of a stripe to which the first data belongs, and obtaining the first data by using the other strips, which comprise one or more parity strips, and performing a correctness check, and sending a first data read response used for responding to the first data read request to the terminal, wherein the first data read response carries the read or obtained first data. receiving, by the first storage node, a first data read request from a terminal, wherein the first data read request carries first location information, and the first location information is used to describe a location of first data in a data body to which the first data belongs; and if the first storage node determines, based on the first location information, that a memory (1320, 1330) in which the first data is located is a first memory, and the first memory belongs to the first storage node, when a state information set currently records that the first memory is in a trusted access state, reading, by the first storage node, the first data directly from the first memory, and when a state information set currently records that the first memory (1320, 1330) is in an untrusted access state, collecting other strips of a stripe to which the first data belongs, and obtaining the first data by using the other strips, which comprise one or more parity strips, and performing a correctness check, and sending a first data read response used for responding to the first data read request to the terminal, wherein the first data read response carries the read or obtained first data.
A light emitting diode operating under AC power, comprising: a substrate; a buffer layer formed on the substrate; and a plurality of light emitting cells (100-1,..., 100-16) formed on the buffer layer to have different sizes and to be electrically isolated from one another, the plurality of light emitting cells (100-1,..., 100-16) being connected in series through metal wires (180-1,..., 180-6), wherein the plurality of light emitting cells (100-1,..., 100-16) are arranged in two parallel rows (100-1, 100-2,..., 100-6; 100-11, 100-12,..., 100-16), and polarities of the first (100-1, 100-2,..., 100-6) and second (100-11, 100-12,..., 100-16) rows are arranged to be opposite to each other, characterised in that the light emitting cells (100-1,..., 100-16) arranged in each row have first and second sizes and at least part of the light emitting cells (100-1,..., 100-16) are alternately arranged adjacent to each other in the corresponding row, and when the light emitting cell formed at a position in the first row has the first size, the light emitting cell formed at a position in the second row corresponding to the position in the first row has the second size. a substrate; a buffer layer formed on the substrate; and a plurality of light emitting cells (100-1,..., 100-16) formed on the buffer layer to have different sizes and to be electrically isolated from one another, the plurality of light emitting cells (100-1,..., 100-16) being connected in series through metal wires (180-1,..., 180-6),
A method for sounding reference signal transmission in a cellular telecommunication system, the method performed by a terminal device of the cellular telecommunication system and comprising: receiving, from a base station of the cellular communication system and by using radio resource control signaling, communication parameters of a first sounding reference signal configuration used for transmitting sounding reference signals periodically in a semi-static manner from the terminal device to the base station, and communication parameters of a second sounding reference signal configuration used for transmitting dynamically scheduled sounding reference signals from the terminal device to the base station, wherein the first and second sounding reference signal configurations are in parallel use at the terminal device, and the communication parameters of the first and second sounding reference signal configurations are configured in a semi-static manner; applying the communication parameters of the first and second sounding reference signal configurations; receiving, from the base station, a physical downlink control channel message comprising information indicating scheduling of transmission of a dynamically scheduled sounding reference signal from the terminal device to the base station, wherein the physical downlink control message does not schedule uplink data transmission at the same time to the terminal device. receiving, from a base station of the cellular communication system and by using radio resource control signaling, communication parameters of a first sounding reference signal configuration used for transmitting sounding reference signals periodically in a semi-static manner from the terminal device to the base station, and communication parameters of a second sounding reference signal configuration used for transmitting dynamically scheduled sounding reference signals from the terminal device to the base station, wherein the first and second sounding reference signal configurations are in parallel use at the terminal device, and the communication parameters of the first and second sounding reference signal configurations are configured in a semi-static manner; applying the communication parameters of the first and second sounding reference signal configurations; receiving, from the base station, a physical downlink control channel message comprising information indicating scheduling of transmission of a dynamically scheduled sounding reference signal from the terminal device to the base station, wherein the physical downlink control message does not schedule uplink data transmission at the same time to the terminal device.
A method for producing a coated part by press hardening, comprising the following steps: A) the provision of a steel sheet coated with a metallic coating comprising from 1.0 to 22.0% by weight of zinc, from 0.1 to 1.0% by weight of titanium, from 1.6 to 15.0% by weight of silicon, below 0.5% by weight of magnesium, below 0.05% by weight of La or Ce or both, below 0.2% by weight of Sn and optionally additional elements chosen from Sb, Pb, Ca, Mn, Cr, Ni, Zr, In, Hf or Bi, the content by weight of each additional element being inferior to 0.3% by weight, the balance being aluminum and optionally unavoidable impurities and residuals elements and wherein the microstructure of the coating does not comprise Al-Zn binary phases. B) the cutting of the coated steel sheet to obtain a blank, C) the thermal treatment of the blank at a temperature between 840 and 950°C to obtain a fully austenitic microstructure in the steel, D) the transfer of the blank into a press tool, E) the hot-forming of the blank to obtain a part, F) the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75% of equiaxed ferrite, from 5 to 20% of martensite and bainite in amount less than or equal to 10%. A) the provision of a steel sheet coated with a metallic coating comprising from 1.0 to 22.0% by weight of zinc, from 0.1 to 1.0% by weight of titanium, from 1.6 to 15.0% by weight of silicon, below 0.5% by weight of magnesium, below 0.05% by weight of La or Ce or both, below 0.2% by weight of Sn and optionally additional elements chosen from Sb, Pb, Ca, Mn, Cr, Ni, Zr, In, Hf or Bi, the content by weight of each additional element being inferior to 0.3% by weight, the balance being aluminum and optionally unavoidable impurities and residuals elements and wherein the microstructure of the coating does not comprise Al-Zn binary phases. B) the cutting of the coated steel sheet to obtain a blank, C) the thermal treatment of the blank at a temperature between 840 and 950°C to obtain a fully austenitic microstructure in the steel, D) the transfer of the blank into a press tool, E) the hot-forming of the blank to obtain a part, F) the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75% of equiaxed ferrite, from 5 to 20% of martensite and bainite in amount less than or equal to 10%.
A method of determining corrected color values from image data acquired, during a base calling cycle, by a nucleic acid sequencer comprising an image acquisition system, one or more processors, and memory preferably having a storage capacity of about 512 Gigabytes or less, the method being performed on the one or more processors and comprising: (a) obtaining an image of a substrate comprising a plurality of sites where nucleic acid bases are read, wherein the sites exhibit colors representing nucleic acid base types; (b) measuring color values of the plurality of sites from the image of the substrate; (c) storing the color values in a processor buffer of the sequencer's one or more processors; (d) retrieving phase-corrected color values of the plurality of sites, wherein the phase-corrected color values were stored in the sequencer's memory during an immediately preceding base calling cycle; (e) determining a prephasing correction from the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and (f) determining the corrected color values from the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction. (a) obtaining an image of a substrate comprising a plurality of sites where nucleic acid bases are read, wherein the sites exhibit colors representing nucleic acid base types; (b) measuring color values of the plurality of sites from the image of the substrate; (c) storing the color values in a processor buffer of the sequencer's one or more processors; (d) retrieving phase-corrected color values of the plurality of sites, wherein the phase-corrected color values were stored in the sequencer's memory during an immediately preceding base calling cycle; (e) determining a prephasing correction from the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and the phase-corrected color values stored during the immediately preceding base calling cycle, and the color values stored in the processor buffer; and (f) determining the corrected color values from the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction. the color values in the processor buffer, the phase corrected values stored during the immediately preceding cycle, and the prephasing correction.
Hydraulic mount, having - a load-bearing spring, - a working chamber which is at least partially surrounded by the load-bearing spring and which is filled with a hydraulic fluid, - a first equalization chamber, and - a first throttle duct which is formed between the working chamber and the first equalization chamber and which serves for the exchange of hydraulic fluid, - wherein the hydraulic mount has a controllable valve for shutting off or throttling a throughflow of hydraulic fluid through the first throttle duct, - a control diaphragm which is designed for the variation of a working chamber volume of the working chamber, and - an actuator for the deflection of the control diaphragm, - wherein the valve is controllable by way of the actuator, characterized by - a second equalization chamber and a second throttle duct which is formed between the working chamber and the second equalization chamber and which serves for the exchange of hydraulic fluid. - a load-bearing spring, - a working chamber which is at least partially surrounded by the load-bearing spring and which is filled with a hydraulic fluid, - a first equalization chamber, and - a first throttle duct which is formed between the working chamber and the first equalization chamber and which serves for the exchange of hydraulic fluid, - wherein the hydraulic mount has a controllable valve for shutting off or throttling a throughflow of hydraulic fluid through the first throttle duct, - a control diaphragm which is designed for the variation of a working chamber volume of the working chamber, and - an actuator for the deflection of the control diaphragm, - wherein the valve is controllable by way of the actuator, - a second equalization chamber and a second throttle duct which is formed between the working chamber and the second equalization chamber and which serves for the exchange of hydraulic fluid.
A system for monitoring resin flow during resin infusion into a fiber preform for the manufacturing of composites, the system comprising: - an optical reflectometer device configured to emit light pulses through optic fibers and to measure the light reflected backwards; and - at least one optic fiber connected to the reflectometer and arranged on or within at least a portion of the fiber preform over a determined length (A, B, C), - the fiber preform, wherein a plurality of the optic fibers is distributed so as to form a resin infusion mesh on or within the at least a portion of the fiber preform; and wherein the reflectometer is further configured to: - calibrate the timed light pulses with distance based on the determined length (A, B, C) of the optic fiber arranged on or within the fiber preform; - measure the variation in the light which is reflected backwards for each light pulse emitted; and - correlate the distance at which the resin reaches the at least one optic fiber of the resin infusion mesh along its determined length (A, B, C) as resin flow advances. - an optical reflectometer device configured to emit light pulses through optic fibers and to measure the light reflected backwards; and - at least one optic fiber connected to the reflectometer and arranged on or within at least a portion of the fiber preform over a determined length (A, B, C), - the fiber preform, wherein a plurality of the optic fibers is distributed so as to form a resin infusion mesh on or within the at least a portion of the fiber preform; and wherein the reflectometer is further configured to: wherein a plurality of the optic fibers is distributed so as to form a resin infusion mesh on or within the at least a portion of the fiber preform; and wherein the reflectometer is further configured to: - calibrate the timed light pulses with distance based on the determined length (A, B, C) of the optic fiber arranged on or within the fiber preform; - measure the variation in the light which is reflected backwards for each light pulse emitted; and - correlate the distance at which the resin reaches the at least one optic fiber of the resin infusion mesh along its determined length (A, B, C) as resin flow advances.
A pixel circuit comprising: - a light-sensing element; - a first transistor having its control node coupled to a sense node and its source coupled to a readout path of the pixel circuit; and - a reset voltage correction circuit comprising: a first switch configured to selectively couple an input node of the reset voltage correction circuit to a correction node, the input node being connected to the sense node or to the source of the first transistor, the correction node being coupled by a capacitance to the sense node; and a second switch configured to selectively couple the correction node to a reset voltage (VRST, VRST2), wherein the capacitance coupling the correction node to the sense node is implemented at least partially by a capacitance present between the control node of the first transistor and a bulk of the first transistor. - a light-sensing element; - a first transistor having its control node coupled to a sense node and its source coupled to a readout path of the pixel circuit; and - a reset voltage correction circuit comprising: a first switch configured to selectively couple an input node of the reset voltage correction circuit to a correction node, the input node being connected to the sense node or to the source of the first transistor, the correction node being coupled by a capacitance to the sense node; and a second switch configured to selectively couple the correction node to a reset voltage (VRST, VRST2), wherein the capacitance coupling the correction node to the sense node is implemented at least partially by a capacitance present between the control node of the first transistor and a bulk of the first transistor.
A method of modifying a shoe-last, comprising: acquiring current digital data (F-D) representing a foot shape; providing reference digital data (R-D) representing a shoe-last shape to be modified; comparing the current digital data with the reference digital data to design patch shapes and patch positions; providing a shoe-last corresponding to the reference digital data; characterized in that the method further comprises the following steps: producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique. acquiring current digital data (F-D) representing a foot shape; providing reference digital data (R-D) representing a shoe-last shape to be modified; comparing the current digital data with the reference digital data to design patch shapes and patch positions; providing a shoe-last corresponding to the reference digital data; characterized in that the method further comprises the following steps: producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique. producing patch elements corresponding to said patch shapes; applying the patch elements on the shoe-last in accordance with said patch positions obtaining a modified shoe-last; wherein the production and the application of the patch elements on the shoe-last is performed by employing an additive manufacturing technique.
A power control method, comprising: receiving from a base station, by a user equipment, UE, power control indication information; identifying a power control mode indicating that a mechanism for power control is selected by the base station or the UE, based on the power control indication information; when the power control mode is identified that the mechanism for power control is selected by the base station, performing (304, 306), by the UE, power control for an uplink transmission of the UE on an unlicensed band according to a first power control mechanism or a second power control mechanism selected by the base station; and when the power control mode is identified that the mechanism for power control is selected by the UE, performing, by the UE, power control for the uplink transmission of the UE on the unlicensed band according to the first power control mechanism or a third power control mechanism selected by the UE based on a signal energy level of other device detected by the UE. receiving from a base station, by a user equipment, UE, power control indication information; identifying a power control mode indicating that a mechanism for power control is selected by the base station or the UE, based on the power control indication information; when the power control mode is identified that the mechanism for power control is selected by the base station, performing (304, 306), by the UE, power control for an uplink transmission of the UE on an unlicensed band according to a first power control mechanism or a second power control mechanism selected by the base station; and when the power control mode is identified that the mechanism for power control is selected by the UE, performing, by the UE, power control for the uplink transmission of the UE on the unlicensed band according to the first power control mechanism or a third power control mechanism selected by the UE based on a signal energy level of other device detected by the UE.
An injectable device comprising a cryogel composition comprising open interconnected macropores, wherein said cryogel composition comprises at least 75% pores, wherein said cryogel composition is characterized by shape memory following deformation by compression through a needle, and wherein said cryogel composition comprises a crosslinked gelatin polymer or a crosslinked alginate polymer.