mhurhangee/patent-ind-claim-en huggingface dataset:
A swirl injector for a gas torch , the swirl injector comprising: an injector body adapted to be disposed in use in a head of the torch , the injector body comprising: a central passageway running between first and second ends of the injector body , a first portion of said central passageway enclosing a swirl baffle ; a second portion of said central passageway including an injector orifice having a diameter that is smaller than a diameter of the first portion of said central passageway ; a third portion of said central passageway comprising a mixing chamber , the mixing chamber having a diameter larger than a diameter of the injector orifice and smaller than the diameter of the first portion of said central passageway ; and a gas inlet port extending from the mixing chamber to an exterior of the injector body, the gas inlet port for receiving in use fuel gas from a fuel gas supply and for directing said fuel gas to said mixing chamber ; characterised in that the swirl injector further comprises an annular flange extending from the exterior of the injector body ; wherein the first end of the injector body has external threads ; and wherein the injector body has a gas inlet portion between the external threads and the annular flange , the gas inlet portion containing the gas inlet port and having an external diameter which is less than that of both the external threads and the annular flange. a central passageway running between first and second ends of the injector body , a first portion of said central passageway enclosing a swirl baffle ; a second portion of said central passageway including an injector orifice having a diameter that is smaller than a diameter of the first portion of said central passageway ; a third portion of said central passageway comprising a mixing chamber , the mixing chamber having a diameter larger than a diameter of the injector orifice and smaller than the diameter of the first portion of said central passageway ; and a gas inlet port extending from the mixing chamber to an exterior of the injector body, the gas inlet port for receiving in use fuel gas from a fuel gas supply and for directing said fuel gas to said mixing chamber ; characterised in that the swirl injector further comprises an annular flange extending from the exterior of the injector body ; wherein the first end of the injector body has external threads ; and wherein the injector body has a gas inlet portion between the external threads and the annular flange , the gas inlet portion containing the gas inlet port and having an external diameter which is less than that of both the external threads and the annular flange.
A method for performing channel state information, CSI, reporting in a wireless communication system, said wireless communication system comprising a user equipment, UE , and a base station , the method comprising: receiving (S1305), by the UE from the base station , CSI reporting setting information related to the CSI reporting; receiving (S1310), by the UE from the base station , at least one CSI-reference signal, CSI-RS; and performing (S1315), by the UE , the CSI reporting to the base station by using a measurement value for at least one specific CSI-RS among the at least one CSI-RS, wherein the at least one specific CSI-RS is received by the UE before a performing timing of the CSI reporting minus a timing indicated by gap information, wherein the gap information is a processing time interval required for the UE to perform the CSI reporting using the at least one specific CSI-RS, wherein the gap information is configured by the base station based on the CSI reporting setting information and UE capability; and wherein the CSI reporting setting information includes information for a frequency granularity for a channel quality indicator, CQI, and a precoding matrix indicator, PMI, and information for a CSI codebook type. receiving (S1305), by the UE from the base station , CSI reporting setting information related to the CSI reporting; receiving (S1310), by the UE from the base station , at least one CSI-reference signal, CSI-RS; and performing (S1315), by the UE , the CSI reporting to the base station by using a measurement value for at least one specific CSI-RS among the at least one CSI-RS, wherein the at least one specific CSI-RS is received by the UE before a performing timing of the CSI reporting minus a timing indicated by gap information, wherein the gap information is a processing time interval required for the UE to perform the CSI reporting using the at least one specific CSI-RS, wherein the gap information is configured by the base station based on the CSI reporting setting information and UE capability; and wherein the CSI reporting setting information includes information for a frequency granularity for a channel quality indicator, CQI, and a precoding matrix indicator, PMI, and information for a CSI codebook type.
System of a Host IC connected via a wired data interface to a Client IC to initiate the communication between the Host IC and the Client IC after power-on, wherein the Client IC comprises a PLL stage with a closed loop of a phase detector a filter and a voltage controlled oscillator for the generation of the clock (C-clk) for the Client IC , which PLL stage needs to be locked to the clock (H-clk) of the Host IC for regular data communication via the wired data interface, which system is characterized in, that the Client IC comprises a power-on stage to steer a switch in the connection between the input of the clock (H-clk) of the Host IC for the PLL stage and the voltage controlled oscillator of the PLL stage to open the connection and to use the unregulated output clock of the free-running voltage controlled oscillator in a time period after power-on for a power-on data communication via the wired data interface and to close the switch after that time period for regular data communication.
A focus adjustment method for a charged particle beam device having a magnetic field lens used for focus adjustment and an astigmatism corrector, the focus adjustment method comprising: acquiring a plurality of first images having different focuses by varying an excitation current of the magnetic field lens within a focus search range, and determining a reference value of the excitation current of the magnetic field lens based on the plurality of first images; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range before varying the excitation current of the magnetic field lens within the focus search range; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range after varying the excitation current of the magnetic field lens within the focus search range; and acquiring a plurality of second images having different focuses and different astigmatisms by varying the excitation current of the magnetic field lens using the reference value as a reference and varying a stigma correction value of the astigmatism corrector at each excitation current, and then determining an optimum value of the excitation current of the magnetic field lens and an optimum value of the stigma correction value based on the plurality of second images. acquiring a plurality of first images having different focuses by varying an excitation current of the magnetic field lens within a focus search range, and determining a reference value of the excitation current of the magnetic field lens based on the plurality of first images; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range before varying the excitation current of the magnetic field lens within the focus search range; removing hysteresis from the magnetic field lens by setting the excitation current of the magnetic field lens outside the focus search range after varying the excitation current of the magnetic field lens within the focus search range; and acquiring a plurality of second images having different focuses and different astigmatisms by varying the excitation current of the magnetic field lens using the reference value as a reference and varying a stigma correction value of the astigmatism corrector at each excitation current, and then determining an optimum value of the excitation current of the magnetic field lens and an optimum value of the stigma correction value based on the plurality of second images.
A method of manufacturing an organic light-emitting display apparatus, the method comprising: forming a pixel electrode ; forming a pixel definition layer covering at least a portion of an edge of the pixel electrode ; forming a patterned sacrificial layer to correspond to at least a portion of an upper surface of the pixel definition layer ; forming a patterned emission layer to correspond to the pixel electrode , using the patterned sacrificial layer as a spacer; forming a first intermediate layer over the pixel electrode and the pixel definition layer ; removing the patterned sacrificial layer to form a through hole in the first intermediate layer exposing the at least a portion of the upper surface of the pixel definition layer , after forming the patterned emission layer and forming the first intermediate layer; and then forming a thin film encapsulation layer such that at least a portion of a lower surface of the thin film encapsulation layer contacts the at least a portion of the upper surface of the pixel definition layer exposed via the through hole . forming a pixel electrode ; forming a pixel definition layer covering at least a portion of an edge of the pixel electrode ; forming a patterned sacrificial layer to correspond to at least a portion of an upper surface of the pixel definition layer ; forming a patterned emission layer to correspond to the pixel electrode , using the patterned sacrificial layer as a spacer; forming a first intermediate layer over the pixel electrode and the pixel definition layer ; removing the patterned sacrificial layer to form a through hole in the first intermediate layer exposing the at least a portion of the upper surface of the pixel definition layer , after forming the patterned emission layer and forming the first intermediate layer; and then forming a thin film encapsulation layer such that at least a portion of a lower surface of the thin film encapsulation layer contacts the at least a portion of the upper surface of the pixel definition layer exposed via the through hole .
A computer implemented image processing method, comprising: receiving an image , the image including frames captured over time in a light environment including an alternating current AC light ; extracting AC pixels corresponding to the AC light from pixels in the image; wherein the extracting of the AC pixels comprises: modeling values of the pixels in the frames into a sinusoid; calculating respective differences between the pixel values of the modeled sinusoid and the values of the pixels in the frames; and extracting, as the AC pixels from the pixels, pixels having a sum of the calculated differences lesser than a threshold, estimating visual spaces of the AC pixels based on values of the AC pixels in the frames, wherein the estimating of the visual spaces comprises estimating visual spaces indicating illumination components and diffuse components of the AC pixels in the frames; estimating information of the AC light included in the image based on the visual spaces; and processing the image based on the information of the AC light. receiving an image , the image including frames captured over time in a light environment including an alternating current AC light ; extracting AC pixels corresponding to the AC light from pixels in the image; wherein the extracting of the AC pixels comprises: modeling values of the pixels in the frames into a sinusoid; calculating respective differences between the pixel values of the modeled sinusoid and the values of the pixels in the frames; and extracting, as the AC pixels from the pixels, pixels having a sum of the calculated differences lesser than a threshold, estimating visual spaces of the AC pixels based on values of the AC pixels in the frames, wherein the estimating of the visual spaces comprises estimating visual spaces indicating illumination components and diffuse components of the AC pixels in the frames; estimating information of the AC light included in the image based on the visual spaces; and processing the image based on the information of the AC light. modeling values of the pixels in the frames into a sinusoid; calculating respective differences between the pixel values of the modeled sinusoid and the values of the pixels in the frames; and extracting, as the AC pixels from the pixels, pixels having a sum of the calculated differences lesser than a threshold, estimating visual spaces of the AC pixels based on values of the AC pixels in the frames, wherein the estimating of the visual spaces comprises estimating visual spaces indicating illumination components and diffuse components of the AC pixels in the frames; estimating information of the AC light included in the image based on the visual spaces; and processing the image based on the information of the AC light.
A drug delivery molecule for use in treating triple-negative breast cancer in a patient, the drug delivery molecule comprising: (a) a polypeptide adapted to target and penetrate a type of cell, the polypeptide comprising a Her segment obtained from the receptor binding domain of heregulin-a and that binds HER3; and (b) (i) a nucleic acid molecule bound to the polypeptide sequence via electrostatic interactions; and a chemotherapeutic agent non-covalently linked to the nucleic acid molecule; or (ii) a corrole molecule bound to the polypeptide molecule. (a) a polypeptide adapted to target and penetrate a type of cell, the polypeptide comprising a Her segment obtained from the receptor binding domain of heregulin-a and that binds HER3; and (b) (i) a nucleic acid molecule bound to the polypeptide sequence via electrostatic interactions; and a chemotherapeutic agent non-covalently linked to the nucleic acid molecule; or (ii) a corrole molecule bound to the polypeptide molecule. (i) a nucleic acid molecule bound to the polypeptide sequence via electrostatic interactions; and a chemotherapeutic agent non-covalently linked to the nucleic acid molecule; or (ii) a corrole molecule bound to the polypeptide molecule.
A method for consumption control for chargers (C1, C2), particularly for chargers of electric vehicles (V1, V2) adapted to start a charging process after connecting an electric vehicle to the charger, said chargers being connected to a mains with a pre-set maximum consumption level (I MAX ), wherein there may be other connected loads (L1, L2), and the chargers having a pre-set individual maximum consumption level (I C1MAX , I C2MAX ) that determines their consumption limit, the method comprising a sequence with a step of transmitting a current control signal (i) from an emitter device provided with means for detecting an instantaneous consumption level of the mains to receiver devices of the chargers with a magnitude proportional to the instantaneous consumption level (I) of the mains with a predetermined reference value that corresponds to the maximum consumption level (I MAX ) of the mains, characterised in that the sequence also comprises the step of varying the consumption in all the chargers in the charging process, within their limits of consumption, by a same value or percentage, which is determined from the current control signal received, reducing the consumption of the chargers so that the overall consumption is below the maximum consumption level of the mains, wherein the step of transmitting the current control signal from the emitter device to the receiver devices of the chargers is performed by a current loop , wherein the current loop interconnects all the chargers.
A computer-implemented method comprising: receiving data characterizing a sector to assign a physical cell identifier, PCID, the sector being associated with a base station in a communications network , wherein the data characterizing the sector to assign the PCID is received as a result of a PCID collision; determining , based on a set of PCIDs presently available to the sector for assignment, a reuse distance for each of the PCIDs in the set of PCIDs presently available to the sector for assignment, the reuse distance being a distance between the sector and a nearest sector having the PCID, wherein the set of PCIDs presently available to the sector for assignment include PCIDs that have been used in the network by other sectors, and wherein PCIDs that have not been used in the network are assigned a reuse distance of zero; selecting , based on the determined reuse distance for each PCID in the set of PCIDs presently available to the sector for assignment that have different physical layer IDs than other sectors of the base station, a PCID having a largest reuse distance of PCIDs having a physical layer ID that is different from a physical layer ID of at least another sector associated with the base station; and assigning the selected PCID to the sector . receiving data characterizing a sector to assign a physical cell identifier, PCID, the sector being associated with a base station in a communications network , wherein the data characterizing the sector to assign the PCID is received as a result of a PCID collision; determining , based on a set of PCIDs presently available to the sector for assignment, a reuse distance for each of the PCIDs in the set of PCIDs presently available to the sector for assignment, the reuse distance being a distance between the sector and a nearest sector having the PCID, wherein the set of PCIDs presently available to the sector for assignment include PCIDs that have been used in the network by other sectors, and wherein PCIDs that have not been used in the network are assigned a reuse distance of zero; selecting , based on the determined reuse distance for each PCID in the set of PCIDs presently available to the sector for assignment that have different physical layer IDs than other sectors of the base station, a PCID having a largest reuse distance of PCIDs having a physical layer ID that is different from a physical layer ID of at least another sector associated with the base station; and assigning the selected PCID to the sector .
Apparatus for applying drinking straws to packaging containers , said apparatus comprises a drive means adapted for conveying drinking straws wrapped in protective envelopes to a picking position (A), a first conveyor adapted for conveying packaging containers , at a substantially constant velocity (v c ), along a packaging container moving direction, and an application device which comprises at least one applicator arm , which applicator arm comprises a drinking straw carrier adapted to carry a drinking straw , said at least one applicator arm is adapted to pick a drinking straw from the drive means at the picking position (A) and carry, with the drinking straw carrier , the drinking straw to an application position (F) where the drinking straw is adapted to come into contact with a wall of the packaging container , and further to a leaving position (G) where the at least one applicator arm leaves the drinking straw on the packaging container , wherein the drinking straw carrier is adapted to keep the drinking straw towards the wall of the packaging container while moving along a lengthwise direction (K) of the drinking straw , from the application position (F) to the leaving position (G), characterized in that the drinking straw carrier comprises a rotatable roller having an axis (R) of rotation arranged substantially perpendicular to the lengthwise direction (K) of the drinking straw , which roller is adapted to rotate in contact with the protective envelope and drinking straw , wherein the roller is shaped as an axisymmetric, concave cylinder adapted to carry the drinking straw with a concave centre bounded by two end flanges .
Method for manufacturing a rail comprising a head, the method comprising the following successive steps: - casting a steel so as to obtain a semi-product, said steel having a chemical composition comprising, by weight percent: 0.20% ≤ C ≤ 0.60%, 1.0% ≤ Si ≤ 2.0%, 0.60% ≤ Mn ≤ 1.60%, and 0.5 ≤ Cr ≤ 2.2%, and optionally one or more elements chosen among 0.01% ≤ Mo ≤ 0.3%, 0.01% ≤ V ≤ 0.30%; the remainder being Fe and unavoidable impurities resulting from the smelting; - hot rolling the semi-product into a hot rolled semi-product having the shape of the rail and comprising a head, with a final rolling temperature T FRT higher than Ar3; - cooling the head of the hot rolled semi-product from the final rolling temperature T FRT down to a cooling stop temperature T CS comprised between 200°C and 520°C, such that the temperature of the head of the hot rolled semi-product over time is comprised between a upper boundary and a lower boundary, the upper boundary having the coordinates of time and temperature defined by A1 (0 second, 780°C), B1 (50 seconds, 600°C), and C1 (110 seconds, 520°C), the lower boundary having the coordinates of time and temperature defined by A2 (0 second, 675°C), B2 (50 seconds, 510°C), and C2 (110 seconds, 300°C); - maintaining the head of the hot rolled semi-product in a temperature range comprised between 300°C and 520°C during a holding time t hold of at least 12 minutes, and; - cooling down the hot rolled semi-product to room temperature to obtain the rail. - casting a steel so as to obtain a semi-product, said steel having a chemical composition comprising, by weight percent: 0.20% ≤ C ≤ 0.60%, 1.0% ≤ Si ≤ 2.0%, 0.60% ≤ Mn ≤ 1.60%, and 0.5 ≤ Cr ≤ 2.2%, and optionally one or more elements chosen among 0.01% ≤ Mo ≤ 0.3%, 0.01% ≤ V ≤ 0.30%; the remainder being Fe and unavoidable impurities resulting from the smelting; 0.20% ≤ C ≤ 0.60%, 1.0% ≤ Si ≤ 2.0%, 0.60% ≤ Mn ≤ 1.60%, and 0.5 ≤ Cr ≤ 2.2%, and optionally one or more elements chosen among 0.01% ≤ Mo ≤ 0.3%, 0.01% ≤ V ≤ 0.30%; - hot rolling the semi-product into a hot rolled semi-product having the shape of the rail and comprising a head, with a final rolling temperature T FRT higher than Ar3; - cooling the head of the hot rolled semi-product from the final rolling temperature T FRT down to a cooling stop temperature T CS comprised between 200°C and 520°C, such that the temperature of the head of the hot rolled semi-product over time is comprised between a upper boundary and a lower boundary, the upper boundary having the coordinates of time and temperature defined by A1 (0 second, 780°C), B1 (50 seconds, 600°C), and C1 (110 seconds, 520°C), the lower boundary having the coordinates of time and temperature defined by A2 (0 second, 675°C), B2 (50 seconds, 510°C), and C2 (110 seconds, 300°C); - maintaining the head of the hot rolled semi-product in a temperature range comprised between 300°C and 520°C during a holding time t hold of at least 12 minutes, and; - cooling down the hot rolled semi-product to room temperature to obtain the rail.