mhurhangee/patent-ind-claim-en huggingface dataset:
Coating apparatus comprising: - a tubular container that is able to rotate about a longitudinal axis (X1) so as to move bulk material (M) contained within said container and that comprises a first inlet end for receiving the bulk material (M) and a second outlet end opposite said first end to discharge the bulk material (M); - a dispensing device for dispensing coating material on the bulk material (M) in said container ; and - a regulating element arranged at or near said second outlet end for regulating the discharge of the bulk material (M) from said container ; wherein said regulating element comprises at least one annular element that is rotatable around a rotation axis (X); characterized in that said regulating element is provided with driving means for rotating said annular element independently of the rotation of said container , selectively in a first direction of rotation and in a second direction of rotation that is opposite to the first direction of rotation, said driving means being configured for operating in a first phase in which the annular element is rotated in said first direction of rotation during rotation of said container to allow the discharge of the bulk material (M) from said container , and for operating in a second phase in which the annular element is rotated in said second direction of rotation during the rotation of said container for preventing the discharge of the bulk material (M) from said container , said first direction of rotation of said annular element being according to the rotation direction of said container and said second direction of rotation being opposite to the rotation direction of said container . - a tubular container that is able to rotate about a longitudinal axis (X1) so as to move bulk material (M) contained within said container and that comprises a first inlet end for receiving the bulk material (M) and a second outlet end opposite said first end to discharge the bulk material (M); - a dispensing device for dispensing coating material on the bulk material (M) in said container ; and - a regulating element arranged at or near said second outlet end for regulating the discharge of the bulk material (M) from said container ;
A closed impeller for a centrifugal compressor, having an inlet , an outlet and a plurality of passages fluidly connecting the inlet to the outlet , wherein each of the passages being defined by a hub , a shroud and two blades , characterised in that each blade has a upstream portion having a thickness that first increases and then decreases, so as to create a converging-diverging bottleneck in the passage localized at the inlet of the passage, and a downstream portion having a substantially constant thickness, wherein the thickness decrease ends at a distance from the leading edge of the blade , said distance being more than 2 times and less than 6 times the maximum thickness of the blade . an inlet , an outlet and a plurality of passages fluidly connecting the inlet to the outlet , wherein each of the passages being defined by a hub , a shroud and two blades , characterised in that each blade has a upstream portion having a thickness that first increases and then decreases, so as to create a converging-diverging bottleneck in the passage localized at the inlet of the passage, and a downstream portion having a substantially constant thickness, wherein the thickness decrease ends at a distance from the leading edge of the blade , said distance being more than 2 times and less than 6 times the maximum thickness of the blade .
A method of performing a RACH procedure, comprising: receiving , by a user equipment, UE , one or more synchronization signals on a plurality of beams from a base station ; providing a random access channel, RACH, preamble to a first stream for a first antenna port of the UE and to a second stream for a second antenna port of the UE for transmission to the base station ; transmitting the RACH preamble to the base station using the first and second antenna ports, wherein the first and second antenna ports transmit on different tones; providing a RACH payload to the first stream for the first antenna port and to the second stream for the second antenna port for transmission to the base station; and transmitting the RACH payload to the base station using the first and second antenna ports according to a mapping of the first and second antenna ports to one or more physical antenna arrays, wherein the RACH preamble provides a reference signal for the RACH payload, wherein the RACH payload is transmitted directly after the RACH preamble in the same symbol period, wherein the first stream and the second stream are beamformed for the transmitting according to one or more beams with the best signal characteristics from among the plurality of beams on which the one or more synchronization signals were received; and receiving , in response to the RACH preamble and the RACH payload, a random access response, RAR, and contention resolution information from the base station. receiving , by a user equipment, UE , one or more synchronization signals on a plurality of beams from a base station ; providing a random access channel, RACH, preamble to a first stream for a first antenna port of the UE and to a second stream for a second antenna port of the UE for transmission to the base station ; transmitting the RACH preamble to the base station using the first and second antenna ports, wherein the first and second antenna ports transmit on different tones; providing a RACH payload to the first stream for the first antenna port and to the second stream for the second antenna port for transmission to the base station; and transmitting the RACH payload to the base station using the first and second antenna ports according to a mapping of the first and second antenna ports to one or more physical antenna arrays, wherein the RACH preamble provides a reference signal for the RACH payload, wherein the RACH payload is transmitted directly after the RACH preamble in the same symbol period, wherein the first stream and the second stream are beamformed for the transmitting according to one or more beams with the best signal characteristics from among the plurality of beams on which the one or more synchronization signals were received; and receiving , in response to the RACH preamble and the RACH payload, a random access response, RAR, and contention resolution information from the base station.
A measurement device that is configured to measure position information of a plurality of marks formed on a substrate (W), the device comprising: a base member ; a stage that is configured to hold the substrate and is movable over the base member; a drive system that is configured to move the stage; a first position measurement system that is configured to measure a first position information of the stage with respect to the base member; a measurement unit that has a mark detection system (MDS) and is configured to detect a mark formed on the substrate; a second position measurement system that is configured to measure a relative second position information between the mark detection system and the base member; and a controller that is configured to control movement of the stage by the drive system, acquire the first position information using the first position measurement system, acquire the second position information using the second position measurement system, and obtain position information of the plurality of marks formed on the substrate using the mark detection system. a base member ; a stage that is configured to hold the substrate and is movable over the base member; a drive system that is configured to move the stage; a first position measurement system that is configured to measure a first position information of the stage with respect to the base member; a measurement unit that has a mark detection system (MDS) and is configured to detect a mark formed on the substrate; a second position measurement system that is configured to measure a relative second position information between the mark detection system and the base member; and a controller that is configured to control movement of the stage by the drive system, acquire the first position information using the first position measurement system, acquire the second position information using the second position measurement system, and obtain position information of the plurality of marks formed on the substrate using the mark detection system.
A method of operating an imaging cartridge installed in an imaging device, the imaging cartridge comprising a cartridge chip , the method comprising: receiving, by the cartridge chip , communication signals from the imaging device; analyzing, by the cartridge chip , the communication signals received from the imaging device; determining, by the cartridge chip , if the imaging device is a first type of imaging device or a second type of imaging device based on signaling characteristics of a data stream of the communication signals from the imaging device; operating the cartridge chip in a first mode of operation if the imaging device is the first type of imaging device; and operating the cartridge chip in a second mode of operation if the imaging device is the second type of imaging device. receiving, by the cartridge chip , communication signals from the imaging device; analyzing, by the cartridge chip , the communication signals received from the imaging device; determining, by the cartridge chip , if the imaging device is a first type of imaging device or a second type of imaging device based on signaling characteristics of a data stream of the communication signals from the imaging device; operating the cartridge chip in a first mode of operation if the imaging device is the first type of imaging device; and operating the cartridge chip in a second mode of operation if the imaging device is the second type of imaging device.
A compound of Formula (I), or a pharmaceutically acceptable salt thereof: wherein: G is or ; n is 0, 1, or 2; R 1 is H, C 1-8 alkyl, C 2-8 alkenyl, C 3-8 cycloalkyl, C 3-8 cycloalkenyl, C 1-4 alkylene-aryl, C 1-4 alkylene-heteroaryl, C 3-8 cycloalkylene-aryl, or C 3-8 cycloalkylene-heteroaryl; R 2 is C 1-8 alkyl, C 2-8 alkenyl, C 0-4 alkylene-C 3-8 cycloalkyl, C 0-4 alkylene-C 3-8 cycloalkenyl, C 1-4 alkylene-aryl, C 1-4 alkylene-heteroaryl, C 3-8 cycloalkylene-aryl, or C 3-8 cycloalkylene-heteroaryl; R 3 is H, F, Cl, CF 3 , CHF 2 , CH 2 F, or CH 3 ; and R 4 is H, F, or Cl. G is or ; n is 0, 1, or 2; R 1 is H, C 1-8 alkyl, C 2-8 alkenyl, C 3-8 cycloalkyl, C 3-8 cycloalkenyl, C 1-4 alkylene-aryl, C 1-4 alkylene-heteroaryl, C 3-8 cycloalkylene-aryl, or C 3-8 cycloalkylene-heteroaryl; R 2 is C 1-8 alkyl, C 2-8 alkenyl, C 0-4 alkylene-C 3-8 cycloalkyl, C 0-4 alkylene-C 3-8 cycloalkenyl, C 1-4 alkylene-aryl, C 1-4 alkylene-heteroaryl, C 3-8 cycloalkylene-aryl, or C 3-8 cycloalkylene-heteroaryl; R 3 is H, F, Cl, CF 3 , CHF 2 , CH 2 F, or CH 3 ; and R 4 is H, F, or Cl.
A battery , comprising: a positive electrode containing a metal compound selected from at least one of NaCrO 2 , TiS 2 , and FeF 3 ; a negative electrode mainly composed of sodium; and an electrolyte provided between said positive electrode and said negative electrode , said electrolyte being molten salt containing anions expressed with chemical formula (I) below and cations of metal, in said chemical formula (I), R 1 and R 2 both representing fluorine atom, or R 1 representing fluorine atom and R 2 representing fluoroalkyl group, and said cations of metal containing at least one of at least one type of cations of alkali metal and at least one type of cations of alkaline-earth metal. a positive electrode containing a metal compound selected from at least one of NaCrO 2 , TiS 2 , and FeF 3 ; a negative electrode mainly composed of sodium; and an electrolyte provided between said positive electrode and said negative electrode , said electrolyte being molten salt containing anions expressed with chemical formula (I) below and cations of metal, in said chemical formula (I), R 1 and R 2 both representing fluorine atom, or R 1 representing fluorine atom and R 2 representing fluoroalkyl group, and said cations of metal containing at least one of at least one type of cations of alkali metal and at least one type of cations of alkaline-earth metal.
A process for generating induced pluripotent stem cells from somatic cells, comprising the step of introducing the following genes: Oct family gene, Klf family gene, Sox family gene and L-Myc into somatic cells, further comprising the step of introducing Lin28 into somatic cells.
A method for wireless communications, comprising: receiving, by a user equipment, UE, downlink control information, DCI, comprising an uplink, UL, grant of resources for the UE , the DCI having a DCI format and configured to convey a modulation coding scheme, MCS, table reference; identifying an MCS table from a plurality of MCS tables based on the MCS table reference conveyed in the DCI, wherein the MCS table reference indicates which table from the plurality of MCS tables is to be used and wherein the MCS table defines modulation and coding to be utilized for UL transmissions on the resources granted in the UL grant, and wherein MCS table determination for UL is separately managed from the MCS table determination for downlink; and sending one or more UL transmissions modulated and coded according to the MCS table ; wherein the UE identifies the MCS table reference based at least on the DCI format in conjunction with a configuration of the DCI, wherein the configuration includes one or more of a type of control channel selected from PDCCH and E-PDCCH, a selected virtual cell ID associated with PUSCH, or a configuration which power control loop is associated with PUSCH transmissions. receiving, by a user equipment, UE, downlink control information, DCI, comprising an uplink, UL, grant of resources for the UE , the DCI having a DCI format and configured to convey a modulation coding scheme, MCS, table reference; identifying an MCS table from a plurality of MCS tables based on the MCS table reference conveyed in the DCI, wherein the MCS table reference indicates which table from the plurality of MCS tables is to be used and wherein the MCS table defines modulation and coding to be utilized for UL transmissions on the resources granted in the UL grant, and wherein MCS table determination for UL is separately managed from the MCS table determination for downlink; and sending one or more UL transmissions modulated and coded according to the MCS table ; wherein the UE identifies the MCS table reference based at least on the DCI format in conjunction with a configuration of the DCI, wherein the configuration includes one or more of a type of control channel selected from PDCCH and E-PDCCH, a selected virtual cell ID associated with PUSCH, or a configuration which power control loop is associated with PUSCH transmissions.
A watercraft comprising: at least one hull having a bow and a stern; at least one depression being comprised by dual concave channels on the underside of the said at least one hull, both concave channels having an entrance , and exit and a propulsor in a water flow of each channel; wherein these channels are placed longitudinally side by side and each narrow towards the stern gradually; a planing pad formed between the channels, such that a side of the planing pad forms part of the concave walls of the channels , wherein a centre of gravity (CG) of the said watercraft is located above the planing pad and to the rear of the widest point of the channels . at least one hull having a bow and a stern; at least one depression being comprised by dual concave channels on the underside of the said at least one hull, both concave channels having an entrance , and exit and a propulsor in a water flow of each channel; wherein these channels are placed longitudinally side by side and each narrow towards the stern gradually; a planing pad formed between the channels, such that a side of the planing pad forms part of the concave walls of the channels , wherein a centre of gravity (CG) of the said watercraft is located above the planing pad and to the rear of the widest point of the channels .
A coin conveying mechanism comprising a belt with a protrusion , the belt with a protrusion comprising: a belt main body comprising tooth portions at a predetermined tooth pitch (P1) on an inner surface of the belt in a longitudinal direction, and a cord extending in the longitudinal direction and arranged at a predetermined cord pitch (P2) in a width direction which is embedded in a back portion thereof; and a protruding portion formed on a back surface of the belt main body by an integral formation, wherein: the protruding portion is arranged outside the tooth portions , has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width (W2) smaller than the tooth pitch (P1); characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width (W1) of 12 to 45%. a belt main body comprising tooth portions at a predetermined tooth pitch (P1) on an inner surface of the belt in a longitudinal direction, and a cord extending in the longitudinal direction and arranged at a predetermined cord pitch (P2) in a width direction which is embedded in a back portion thereof; and a protruding portion formed on a back surface of the belt main body by an integral formation, wherein: the protruding portion is arranged outside the tooth portions , has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width (W2) smaller than the tooth pitch (P1); characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width (W1) of 12 to 45%. the protruding portion is arranged outside the tooth portions , has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width (W2) smaller than the tooth pitch (P1); characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width (W1) of 12 to 45%.
A generator cooling arrangement (10; 10a), comprising: an electrochemical hydrogen pump configured to receive and adjust a fluid containing hydrogen, and to provide a refined supply of hydrogen that is suitable for removing thermal energy from an electric power generator , wherein the electrochemical hydrogen pump comprises an electrochemical cell which includes a polymer electrolyte membrane that has an anode side and an opposing cathode side, wherein one or more plates positioned against the anode side, the cathode side, or both establish at least one channel configured to communicate a flow of water near the polymer electrolyte membrane ; and an electric power generator that receives the refined supply of hydrogen, wherein the refined supply of hydrogen is used to remove thermal energy from the electric power generator . an electrochemical hydrogen pump configured to receive and adjust a fluid containing hydrogen, and to provide a refined supply of hydrogen that is suitable for removing thermal energy from an electric power generator , wherein the electrochemical hydrogen pump comprises an electrochemical cell which includes a polymer electrolyte membrane that has an anode side and an opposing cathode side, wherein one or more plates positioned against the anode side, the cathode side, or both establish at least one channel configured to communicate a flow of water near the polymer electrolyte membrane ; and an electric power generator that receives the refined supply of hydrogen, wherein the refined supply of hydrogen is used to remove thermal energy from the electric power generator .
A method for obtaining quick cook rice comprising the following steps: (i) heating dry rice grains in microwave equipment to a temperature between 60 °C and 90 °C during 8 minutes, and (ii) wetting the surface of the dry rice grains with an aqueous solution every 2 to 6 minutes during step (i), without steeping the dry rice grains, wherein the dry rice grains belong to the species Oryza sativa ssp. Japonica and wherein the aqueous solution used in step (ii) is between 5 and 7 ml of water for every 100 grams of dry rice grains. (i) heating dry rice grains in microwave equipment to a temperature between 60 °C and 90 °C during 8 minutes, and (ii) wetting the surface of the dry rice grains with an aqueous solution every 2 to 6 minutes during step (i), without steeping the dry rice grains,
A structural element in the form of a structural panel consisting of two outer sheets that act as the tensile and compression chords, both with multiple inwardly orientated pods throughout the structural panel, the two sheets are juxtaposed to each other in mirror-image, with floors or flanged bases of the pods engaging in contact zones, such that the walls of the pods slope obliquely relatively to the plane of their respective outer sheet, characterised in that the pods have a close proximity one to another in order to be mechanically interdependent creating a double depth space-frame lattice type matrix where loads placed on the panel's surface are resisted and transferred through the chords and with the pods acting as interconnecting diagonal braces, wherein the sloped walls of joined pods form substantially diamond beam formations with adjacent joined pods in the negative spaces immediately between pairs of joined pods and wherein the slope of the walls of the diamond beam formations being straight between outwardly oriented, rounded, apexes of the diamond beam formations and the floors or flanged bases of the inwardly oriented pods
A method of operating a turbine system , comprising: providing a low British thermal unit (BTU) fuel stream ; providing a flow of high BTU liquid fuel and mixing the flow of high BTU liquid fuel with the low BTU fuel stream in a mixer , thereby obtaining a mixed fuel ; and injecting the mixed fuel into a combustor of the turbine system ; the method further comprising controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer, wherein controlling comprises controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer and controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer during a start-up condition of the turbine system to a higher value than during a steady state condition of the turbine system so the the mixed fuel during the start-up condition of the turbine system has a higher heating value than during a steady state condition of the turbine system, wherein the mixed fuel comprises the low BTU fuel during start-up and during steady state condition. providing a low British thermal unit (BTU) fuel stream ; providing a flow of high BTU liquid fuel and mixing the flow of high BTU liquid fuel with the low BTU fuel stream in a mixer , thereby obtaining a mixed fuel ; and injecting the mixed fuel into a combustor of the turbine system ; the method further comprising controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer, wherein controlling comprises controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer and controlling the ratio of high BTU liquid fuel to low BTU fuel in the mixer during a start-up condition of the turbine system to a higher value than during a steady state condition of the turbine system so the the mixed fuel during the start-up condition of the turbine system has a higher heating value than during a steady state condition of the turbine system, wherein the mixed fuel comprises the low BTU fuel during start-up and during steady state condition.