mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid spray agent for agricultural use, comprising a polyvinyl alcohol-based resin having a saponification degree of from 30 mol% to 50 mol% and an average degree of polymerization of from 100 to 2,000.
A thermosetting resin composition comprising: (A) a resin composition having an unsaturated maleimide group, produced by reacting (a) a maleimide compound having at least two N-substituted maleimide groups per one molecule and (b) an amine compound having at least two primary amino groups per one molecule; (B) a thermosetting resin, which is at least one selected from an epoxy resin and a cyanate resin; and (C) a modified imidazole compound represented by the following general formula (I): wherein R 3 , R 4 , R 5 and R 6 each independently represent a hydrogen atom, an aliphatic hydrocarbon group having from 1 to 20 carbon atoms or a phenyl group; and A represents an alkylene group of an aromatic hydrocarbon group.
An air supply arrangement for a vehicle , said air supply arrangement comprising, - an air supply duct , - an ionising member , located in said air supply duct , and - a passive collecting member , located in said air supply duct downstream of said ionising member , a shortest path length of an air flow between said ionising member and said collecting member being in the range of from 20 to 70 cm, preferably in the range of from 25 to 50 cm, said air flow changing direction within a housing at least once between said ionising member and said collecting member , characterized in that said air supply arrangement further comprises a cowl located in said air supply duct , said cowl being configured to make said air flow change direction within said air supply duct by at least 120°, said cowl has a curved shape adapted to form an inner curve of said air flow, while an outer curve of said air flow is formed by walls of said housing . - an air supply duct , - an ionising member , located in said air supply duct , and - a passive collecting member , located in said air supply duct downstream of said ionising member , a shortest path length of an air flow between said ionising member and said collecting member being in the range of from 20 to 70 cm, preferably in the range of from 25 to 50 cm, said air flow changing direction within a housing at least once between said ionising member and said collecting member , characterized in that said air supply arrangement further comprises a cowl located in said air supply duct , said cowl being configured to make said air flow change direction within said air supply duct by at least 120°, said cowl has a curved shape adapted to form an inner curve of said air flow, while an outer curve of said air flow is formed by walls of said housing . a shortest path length of an air flow between said ionising member and said collecting member being in the range of from 20 to 70 cm, preferably in the range of from 25 to 50 cm, said air flow changing direction within a housing at least once between said ionising member and said collecting member , characterized in that said air supply arrangement further comprises a cowl located in said air supply duct , said cowl being configured to make said air flow change direction within said air supply duct by at least 120°, said cowl has a curved shape adapted to form an inner curve of said air flow, while an outer curve of said air flow is formed by walls of said housing .
An RF module (RFM), comprising - a signal input (IN), a signal output (OUT) and an auxiliary terminal (AUT), - a power amplifier (PA) integrated into the RF module and electrically connected between the signal input (IN) and the signal output (OUT), - a first switch (SW1) integrated into the RF module and electrically connected between the power amplifier (PA) and the signal output (OUT), - an RF filter section (FS) integrated into the RF module and electrically connected between the first switch (SW1) and the signal output (OUT), wherein - the RF filter section (FS) has a first RF filter (F1) and a second RF filter (F2) electrically connected in parallel to the first RF filter (F1), - the first switch (SW1) has a signal input (SI), two or more signal outputs (SO1, S02) and an auxiliary connection (AUC), - a first signal output (SO1) is coupled to the first RF filter (F1), - a second signal output (S02) is coupled to the second RF filter (F2), - the auxiliary connection (AUC) is coupled to the auxiliary terminal (AUT), wherein the auxiliary terminal is an external terminal of the RF module via which the integrated RF filter section is directly accessible via an external testing environment; and - wherein the first switch (SW1) is configured to be switchable into an analysis mode where the auxiliary connection (AUC) is connected to one of the first switch's signal outputs (SO1, S02) to connect the auxiliary terminal to the integrated RF filter section and to decouple the integrated RF filter section from the integrated power amplifier. - a signal input (IN), a signal output (OUT) and an auxiliary terminal (AUT), - a power amplifier (PA) integrated into the RF module and electrically connected between the signal input (IN) and the signal output (OUT), - a first switch (SW1) integrated into the RF module and electrically connected between the power amplifier (PA) and the signal output (OUT), - an RF filter section (FS) integrated into the RF module and electrically connected between the first switch (SW1) and the signal output (OUT), wherein - the RF filter section (FS) has a first RF filter (F1) and a second RF filter (F2) electrically connected in parallel to the first RF filter (F1), - the first switch (SW1) has a signal input (SI), two or more signal outputs (SO1, S02) and an auxiliary connection (AUC), - a first signal output (SO1) is coupled to the first RF filter (F1), - a second signal output (S02) is coupled to the second RF filter (F2), - the auxiliary connection (AUC) is coupled to the auxiliary terminal (AUT), wherein the auxiliary terminal is an external terminal of the RF module via which the integrated RF filter section is directly accessible via an external testing environment; and - wherein the first switch (SW1) is configured to be switchable into an analysis mode where the auxiliary connection (AUC) is connected to one of the first switch's signal outputs (SO1, S02) to connect the auxiliary terminal to the integrated RF filter section and to decouple the integrated RF filter section from the integrated power amplifier.
A method implemented in a Multicast Coordination Entity, MCE, for performing downlink power control for a multicast or broadcast service which is collectively provided from a number, N≥2, of radio base stations, BS i , i=1, ..., N, to a number, M≥2, of terminal devices, UE j, j=1, ..., M, the method comprising: collecting (s510) path-loss attenuations, c ji , i=1, ..., N; j=1, ..., m, wherein m≤M, between the radio base stations, BS i , i=1, ..., N, and all or a subset of the terminal devices, UE j, j=1, ..., m; calculating (s520) transmission powers, P T i mbsfn , i=1, ..., N, for the radio base stations, BS i , i=1, ..., N, based on the collected path-loss attenuations, c ji , i=1, ..., N; j=1, ..., m, such that a sum of the transmission powers, ∑ i = 1 N P T i mbsfn , is minimized under a set of constraints on reception powers at said all or said subset of the terminal devices, UE j, j=1, ..., 1 m; and notifying (s530) each of the radio base stations, BS i , i=1, ..., N, of a corresponding one of the calculated transmission powers, P T i mbsfn , i=1, ..., N. collecting (s510) path-loss attenuations, c ji , i=1, ..., N; j=1, ..., m, wherein m≤M, between the radio base stations, BS i , i=1, ..., N, and all or a subset of the terminal devices, UE j, j=1, ..., m; calculating (s520) transmission powers, P T i mbsfn , i=1, ..., N, for the radio base stations, BS i , i=1, ..., N, based on the collected path-loss attenuations, c ji , i=1, ..., N; j=1, ..., m, such that a sum of the transmission powers, ∑ i = 1 N P T i mbsfn , is minimized under a set of constraints on reception powers at said all or said subset of the terminal devices, UE j, j=1, ..., 1 m; and notifying (s530) each of the radio base stations, BS i , i=1, ..., N, of a corresponding one of the calculated transmission powers, P T i mbsfn , i=1, ..., N.
Passive radiofrequency device comprising: - a core formed by the assembly of several pieces in direct contact against one another, at least one of said pieces comprising a recess for the glue, at least some of said pieces being manufactured individually by additive manufacturing; - a conductive metal jacket surrounding said core uninterruptedly, without separating said pieces from one another. - a core formed by the assembly of several pieces in direct contact against one another, at least one of said pieces comprising a recess for the glue, at least some of said pieces being manufactured individually by additive manufacturing; - a conductive metal jacket surrounding said core uninterruptedly, without separating said pieces from one another.
A grain-oriented electrical steel sheet to which plastic strain regions are applied in a dot-sequence manner in widthwise direction of the steel sheet by magnetic domain refining treatment, wherein a length d of each of the plastic strain regions in the widthwise direction of the steel sheet is 0.05 mm or more and 0.4 mm or less, a ratio (∑d/∑w) of a total ∑d of the length d to a total ∑w of an application interval w of each of the plastic strain regions is 0.2 or more and 0.6 or less, wherein a ratio (d/w) of the length d of each of the plastic strain regions to the application interval w corresponding to the length d of each of the plastic strain regions is 0.2 or more and 0.6 or less, wherein the length d is obtained by measuring the half value width of the diffraction peak of the α-fe plane by X-ray diffraction using a Cr-Kα X-ray, and wherein the plastic strain region is a region where the half value width is increased by 20% or more compared to the position located 2 mm away in rolling direction from the beam irradiation position.
A thermal oxidizer for a furnace , the thermal oxidizer comprising: an oxidation chamber comprising an inlet configured to receive exhaust gases from a furnace and an outlet configured to output resultant gases ; and a plurality of heating elements within the oxidation chamber configured to heat the exhaust gases to oxidize one or more components of the exhaust gases between the inlet and the outlet to result in the resultant gases , the plurality of heating elements comprising resistive heating elements forming coils having respective axes , characterised in that the plurality of heating elements are oriented within the oxidation chamber such that the axes of the coils are transverse to an exhaust gas flow direction from the inlet to the outlet of the oxidation chamber . an oxidation chamber comprising an inlet configured to receive exhaust gases from a furnace and an outlet configured to output resultant gases ; and a plurality of heating elements within the oxidation chamber configured to heat the exhaust gases to oxidize one or more components of the exhaust gases between the inlet and the outlet to result in the resultant gases , the plurality of heating elements comprising resistive heating elements forming coils having respective axes , characterised in that the plurality of heating elements are oriented within the oxidation chamber such that the axes of the coils are transverse to an exhaust gas flow direction from the inlet to the outlet of the oxidation chamber .
A wearable device operable to determine an orientation of the wearable device , when placed on a body , the wearable device comprising: - a plurality of electrode pairs (102 1 , 102 2 , 102 3 , 102 4 ) located at different positions, wherein at least two of the plurality of electrode pairs (102 1 , 102 2 , 102 3 , 102 4 ) are configured to receive a signal transmitted from a reference device using the body as a transmission medium; and - a processor configured to: - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body ; and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body . - a plurality of electrode pairs (102 1 , 102 2 , 102 3 , 102 4 ) located at different positions, wherein at least two of the plurality of electrode pairs (102 1 , 102 2 , 102 3 , 102 4 ) are configured to receive a signal transmitted from a reference device using the body as a transmission medium; and - a processor configured to: - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body ; and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body . - determine a property associated with the signal received at the at least two electrode pairs; - compare the determined property to a corresponding reference property, wherein the determined property is indicative of an orientation of the wearable device with respect to the reference device and the corresponding reference property is indicative of a predetermined orientation for the wearable device on the body ; and - determine, from the comparison, whether the wearable device is in the predetermined orientation on the body .
A curable lightweight potting adhesive composition precursor, comprising a first part (A) comprising (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; a second part (B) comprising (i) at least one epoxy resin; and (ii) optionally, hollow microspheres. a first part (A) comprising (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; (i) at least one first epoxy curing agent; (ii) at least one first curing aid comprising at least one ammonium salt; (iii) at least one second curing aid selected from tertiary amines; (iv) optionally, hollow microspheres; a second part (B) comprising (i) at least one epoxy resin; and (ii) optionally, hollow microspheres. (i) at least one epoxy resin; and (ii) optionally, hollow microspheres.
A thermal printer comprising: a platen roller which is rotatable; a thermal head which is disposed to oppose the platen roller ; a fixed guide portion which is provided on an upstream side of the platen roller with respect to the transport direction (A) of a sheet and guides a lower side of the sheet ; and a pair of sheet guides which is provided on an upstream side of the fixed guide portion with respect to the transport direction (A) of the sheet , each of the sheet guides being constituted by a width guide plate that guides a sheet width, a lower guide plate that guides the lower side of the sheet , and an upper guide plate that guides an upper side of the sheet , and each of the sheet guides is movable in a sheet width direction, wherein the upper guide plate is formed to reach an upper portion of the fixed guide portion with respect to the transport direction (A) of the sheet ; characterized in that the fixed guide portion guides the lower side of the entire width of the sheet ; and the fixed guide portion has a horizontal surface and an inclined surface. a platen roller which is rotatable; a thermal head which is disposed to oppose the platen roller ; a fixed guide portion which is provided on an upstream side of the platen roller with respect to the transport direction (A) of a sheet and guides a lower side of the sheet ; and a pair of sheet guides which is provided on an upstream side of the fixed guide portion with respect to the transport direction (A) of the sheet , each of the sheet guides being constituted by a width guide plate that guides a sheet width, a lower guide plate that guides the lower side of the sheet , and an upper guide plate that guides an upper side of the sheet , and each of the sheet guides is movable in a sheet width direction, wherein the upper guide plate is formed to reach an upper portion of the fixed guide portion with respect to the transport direction (A) of the sheet ; characterized in that the fixed guide portion guides the lower side of the entire width of the sheet ; and the fixed guide portion has a horizontal surface and an inclined surface.
An in vitro method for performing homologous recombination, the method comprising: (a) generating a double-stranded break in a nucleic acid molecule present inside a cell to produce a cleaved nucleic acid molecule wherein the nucleic acid molecule present inside the cell is cleaved by one or more CRISPR complex, and (b) contacting the cleaved nucleic acid molecule generated in (a) with a double-stranded donor nucleic acid molecule having a 3' single-stranded overhang, wherein the cleaved nucleic acid molecule and the donor nucleic acid molecule each contain matched termini on at least one end, wherein the matched termini on at least one end of the cleaved nucleic acid molecule and the donor nucleic acid molecule is at least ten nucleotides in length, and wherein the matched region of the cleaved nucleic acid molecule is double-stranded and the matched region of the donor nucleic acid molecule is a 3' single-stranded overhang. (a) generating a double-stranded break in a nucleic acid molecule present inside a cell to produce a cleaved nucleic acid molecule wherein the nucleic acid molecule present inside the cell is cleaved by one or more CRISPR complex, and (b) contacting the cleaved nucleic acid molecule generated in (a) with a double-stranded donor nucleic acid molecule having a 3' single-stranded overhang, wherein the cleaved nucleic acid molecule and the donor nucleic acid molecule each contain matched termini on at least one end, wherein the matched termini on at least one end of the cleaved nucleic acid molecule and the donor nucleic acid molecule is at least ten nucleotides in length, and wherein the matched region of the cleaved nucleic acid molecule is double-stranded and the matched region of the donor nucleic acid molecule is a 3' single-stranded overhang.
A condition monitoring device for a wind turbine power generating apparatus for monitoring a condition of an auxiliary system of the wind turbine power generating apparatus, the auxiliary system including a plurality of auxiliary motors and an auxiliary motor power supply system for supplying power to the plurality of auxiliary motors, the auxiliary motor power supply system including a power-supply-side line connected to a power supply, and a plurality of auxiliary-motor-side lines diverging from the power-supply-side line and connected to the plurality of auxiliary motors, respectively, the condition monitoring device comprising: a current measurement device for measuring a current flowing through the power-supply-side line; and a control device for controlling the plurality of auxiliary motors, characterized in that the control device is configured to, when a generator of the wind turbine power generating apparatus is in a standby state where power generation is stopped at a low wind speed, execute a single sequential operation mode in which each of the plurality of auxiliary motors is singly and sequentially operated, and wherein the current measurement device is configured to measure a current flowing through the power-supply-side line during execution of the single sequential operation mode by the control device. the auxiliary system including a plurality of auxiliary motors and an auxiliary motor power supply system for supplying power to the plurality of auxiliary motors, the auxiliary motor power supply system including a power-supply-side line connected to a power supply, and a plurality of auxiliary-motor-side lines diverging from the power-supply-side line and connected to the plurality of auxiliary motors, respectively, the condition monitoring device comprising: a current measurement device for measuring a current flowing through the power-supply-side line; and a control device for controlling the plurality of auxiliary motors, characterized in that the control device is configured to, when a generator of the wind turbine power generating apparatus is in a standby state where power generation is stopped at a low wind speed, execute a single sequential operation mode in which each of the plurality of auxiliary motors is singly and sequentially operated, and a current measurement device for measuring a current flowing through the power-supply-side line; and a control device for controlling the plurality of auxiliary motors, characterized in that the control device is configured to, when a generator of the wind turbine power generating apparatus is in a standby state where power generation is stopped at a low wind speed, execute a single sequential operation mode in which each of the plurality of auxiliary motors is singly and sequentially operated, and wherein the current measurement device is configured to measure a current flowing through the power-supply-side line during execution of the single sequential operation mode by the control device.
A propeller to be secured by clamping to a shaft having a driver profile extending in the axial direction, wherein the propeller is formed from a number of elements (A, B, C, D), wherein each element (A, B, C, D) has a hub portion with a mating profile corresponding to the driver profile, wherein a first connection portion and a propeller blade extending from the first connection portion are moulded on one side of the hub portion , and a second connection portion is moulded on the opposite, other side of the hub portion , wherein the first connection portion is designed to bear interlockingly against a further, second connection portion of an adjacent further element (A, B, C, D), wherein, when the elements (A, B, C, D) bearing against one another by their connection portions are connected, the hub portions of all elements (A, B, C, D) together form a hub that surrounds the shaft interlockingly, characterized in that the first connection portion has at least two first apertures . wherein the propeller is formed from a number of elements (A, B, C, D), wherein each element (A, B, C, D) has a hub portion with a mating profile corresponding to the driver profile, wherein a first connection portion and a propeller blade extending from the first connection portion are moulded on one side of the hub portion , and a second connection portion is moulded on the opposite, other side of the hub portion , wherein the first connection portion is designed to bear interlockingly against a further, second connection portion of an adjacent further element (A, B, C, D), wherein, when the elements (A, B, C, D) bearing against one another by their connection portions are connected, the hub portions of all elements (A, B, C, D) together form a hub that surrounds the shaft interlockingly, characterized in that the first connection portion has at least two first apertures .