mhurhangee/ep-ind-claims huggingface dataset:
A compound of the general formula A or a or a pharmaceutically acceptable salt or solvate thereof, wherein: R 1 is phenyl optionally substituted with halogen, hydroxyl, OCOR 3, amino, C 1 -C 6 -alkylamino, C 1 -C 6 -dialkylamino, C 1 -C 6 -(halo)alkyl, C 1 -C 6 -(halo)- alkoxy and/or COOR 3; R 2 is selected from the group consisting of: C 6 -C 10 -aryl and C 5 -C 7 -heteroaryl; each optionally substituted with halogen, hydroxyl, OCOR 3 amino, C 1 -C 6 -alkylamino, C 1 -C 6 -dialkyl-amino, C 1 -C 6 -(halo)alkyl, C 1 -C 6 -(halo)alkoxy and/or COOR 3; R 3 is independently at each occurrence selected from the group consisting of: hydrogen and C 1 -C 2 -alkyl; and n is an integer from 2 to 10 inclusive. R 1 is phenyl optionally substituted with halogen, hydroxyl, OCOR 3, amino, C 1 -C 6 -alkylamino, C 1 -C 6 -dialkylamino, C 1 -C 6 -(halo)alkyl, C 1 -C 6 -(halo)- alkoxy and/or COOR 3; R 2 is selected from the group consisting of: C 6 -C 10 -aryl and C 5 -C 7 -heteroaryl; each optionally substituted with halogen, hydroxyl, OCOR 3 amino, C 1 -C 6 -alkylamino, C 1 -C 6 -dialkyl-amino, C 1 -C 6 -(halo)alkyl, C 1 -C 6 -(halo)alkoxy and/or COOR 3; R 3 is independently at each occurrence selected from the group consisting of: hydrogen and C 1 -C 2 -alkyl; and n is an integer from 2 to 10 inclusive.
A method for managing soft errors associated with one or more safety programmable logic controllers (PLCs), the method comprising: receiving an expected soft error rate for one or more types of input/output (I/O) modules over time; receiving respective soft error data that was aggregated by respective safety PLCs of the one or more safety PLCs based on soft errors detected by I/O modules coupled to the respective safety PLCs; determining actual soft error rates per I/O module type based on the received soft error data; predicting soft error rates for the one or more safety PLCs per I/O module type; comparing the actual and/or predicted soft error rates to the expected soft error rate per I/O module type; and taking one or more actions in response to a threshold deviation between the actual and/or predicted soft error rates relative to the expected soft error rate for the corresponding I/O module type. receiving an expected soft error rate for one or more types of input/output (I/O) modules over time; receiving respective soft error data that was aggregated by respective safety PLCs of the one or more safety PLCs based on soft errors detected by I/O modules coupled to the respective safety PLCs; determining actual soft error rates per I/O module type based on the received soft error data; predicting soft error rates for the one or more safety PLCs per I/O module type; comparing the actual and/or predicted soft error rates to the expected soft error rate per I/O module type; and taking one or more actions in response to a threshold deviation between the actual and/or predicted soft error rates relative to the expected soft error rate for the corresponding I/O module type.
A method to transmit independent data, the method comprising: obtaining, at a first transmitter, a first ternary sequence from a first base ternary sequence corresponding to a first set of data-symbols; obtaining, at a second transmitter, a second ternary sequence from a second base ternary sequence corresponding to a second set of data-symbols; transmitting, from the first transmitter, the first ternary sequence to a first set of receivers associated with the first transmitter; transmitting, from the second transmitter, the second ternary sequence to a second set of receivers associated with the second transmitter; and the first base ternary sequence is generated by: obtaining a first m-sequence of a period N-1, obtaining a first perfect ternary sequence from the first m-sequence and appending a zero to a run of all zeros in the first perfect ternary sequence; and the second base ternary sequence is generated by: obtaining a second m-sequence of a period N-1 as a decimation of the first m-sequence, obtaining a second perfect ternary sequence from the second m-sequence and appending a zero to a run of all zeros in the second perfect ternary sequence. obtaining, at a first transmitter, a first ternary sequence from a first base ternary sequence corresponding to a first set of data-symbols; obtaining, at a second transmitter, a second ternary sequence from a second base ternary sequence corresponding to a second set of data-symbols; transmitting, from the first transmitter, the first ternary sequence to a first set of receivers associated with the first transmitter; transmitting, from the second transmitter, the second ternary sequence to a second set of receivers associated with the second transmitter; and the first base ternary sequence is generated by: obtaining a first m-sequence of a period N-1, obtaining a first perfect ternary sequence from the first m-sequence and appending a zero to a run of all zeros in the first perfect ternary sequence; and the second base ternary sequence is generated by: obtaining a second m-sequence of a period N-1 as a decimation of the first m-sequence, obtaining a second perfect ternary sequence from the second m-sequence and appending a zero to a run of all zeros in the second perfect ternary sequence.
A compressive orthosis characterized in that the compressive orthosis comprises a first knitted area comprising a first yarn, a second yarn and a weft elastic yarn inserted between the first and second yarns, and a second area in which the first yarn forms an inner knitted layer, the second yarn forms an outer knitted layer and the elastic weft yarn has at least one float that forms an intermediate layer between the inner layer and the outer layer.
A fatigue performance enhancer for enhancing fatigue resistance and/or fatigue life of an underlying conduit comprising a body, the body 146, 164)) including: a central region extending a first axial length of the enhancer; a first end region extending a second axial length of the enhancer; and a second end region extending a third axial length of the enhancer; wherein the first axial length, the second axial length and the third axial length forms the total length of the enhancer, and the central region has a greater average radial cross-sectional thickness than each of the first end region and the second end region; the body of the enhancer (146, 164) includes a polymeric material and a metallic insert disposed within the polymeric material between an inner surface of the enhancer and an outer surface of the enhancer; characterized in that the metallic insert includes a plurality of longitudinally spaced rings and a plurality of circumferentially spaced longitudinal members; and the plurality of longitudinally spaced rings are connected by the plurality of circumferentially spaced longitudinal members extending between the plurality of rings. a central region extending a first axial length of the enhancer; a first end region extending a second axial length of the enhancer; and a second end region extending a third axial length of the enhancer; wherein the first axial length, the second axial length and the third axial length forms the total length of the enhancer, and the central region has a greater average radial cross-sectional thickness than each of the first end region and the second end region; the body of the enhancer (146, 164) includes a polymeric material and a metallic insert disposed within the polymeric material between an inner surface of the enhancer and an outer surface of the enhancer; characterized in that the metallic insert includes a plurality of longitudinally spaced rings and a plurality of circumferentially spaced longitudinal members; and the plurality of longitudinally spaced rings are connected by the plurality of circumferentially spaced longitudinal members extending between the plurality of rings.
A flow rate control valve, which is capable of controlling the flow rate of a fluid that flows between a pair of ports (12, 14) by displacing a rod having a valve member in an axial direction, comprising: a body having the ports (12, 14) and a pair of fluid passages (32, 34) through which fluid supplied from the ports (12, 14) flows; a sub-body disposed in an interior of the body, and in which the rod is screw-engaged in an advancing and retracting manner; and a tubular shaped seat member connected to an end of the sub-body, having a seat portion for seating of the valve member thereon, and a hole that communicates between one of the fluid passages and another of the fluid passages, wherein the seat member comprises a large diameter portion formed on an upper end part and connected to the sub-body, a small diameter portion formed on a lower end part for seating of the rod thereon, and an intermediate portion formed between the large diameter portion and the small diameter portion, characterised in that the seat member is installed so as to cover the end of the sub-bodv, and engages with an annular groove, which is recessed radially inward, on the sub-body through a bent portion, which is formed on the large diameter portion of the seat member and which is bent radially inward. a body having the ports (12, 14) and a pair of fluid passages (32, 34) through which fluid supplied from the ports (12, 14) flows; a sub-body disposed in an interior of the body, and in which the rod is screw-engaged in an advancing and retracting manner; and a tubular shaped seat member connected to an end of the sub-body, having a seat portion for seating of the valve member thereon, and a hole that communicates between one of the fluid passages and another of the fluid passages, wherein the seat member comprises a large diameter portion formed on an upper end part and connected to the sub-body, a small diameter portion formed on a lower end part for seating of the rod thereon, and an intermediate portion formed between the large diameter portion and the small diameter portion, characterised in that the seat member is installed so as to cover the end of the sub-bodv, and engages with an annular groove, which is recessed radially inward, on the sub-body through a bent portion, which is formed on the large diameter portion of the seat member and which is bent radially inward.
A control method for four-way valves of a multiple heat pump comprising: switching all of the four-way valves of respective outdoor units (A, B, C) to a desired mode; operating compressors of the respective outdoor units (A, B, C); measuring a difference between high and low pressure of the respective outdoor units (A, B, C); determining whether or not all of the four-way valves of the respective outdoor units (A, B, C) are normally switched to the desired mode, wherein if at least one of the outdoor units (A, B, C) has the pressure difference smaller than a first predetermined differential pressure after the lapse of a first predetermined time from a time point when the four-way valves are switched to the desired mode, a switching error is determined, characterized in that the method comprises: switching the four-way valve or valves, which are determined to be switched to the desired mode, to an opposite direction of the desired mode, such that all of the four-way valves are switched to the opposite direction of the desired mode, before switching again all of the four-way valves to the desired mode, if the switching error is determined. switching all of the four-way valves of respective outdoor units (A, B, C) to a desired mode; operating compressors of the respective outdoor units (A, B, C); measuring a difference between high and low pressure of the respective outdoor units (A, B, C); determining whether or not all of the four-way valves of the respective outdoor units (A, B, C) are normally switched to the desired mode, wherein if at least one of the outdoor units (A, B, C) has the pressure difference smaller than a first predetermined differential pressure after the lapse of a first predetermined time from a time point when the four-way valves are switched to the desired mode, a switching error is determined, switching the four-way valve or valves, which are determined to be switched to the desired mode, to an opposite direction of the desired mode, such that all of the four-way valves are switched to the opposite direction of the desired mode, before switching again all of the four-way valves to the desired mode, if the switching error is determined.
A method for measuring particle content, comprising: routing a plurality of streams via a plurality of tubes (140, 220) from a plurality of sampling points where particle content concentrations are to be measured; measuring concentration of particle content in the plurality of streams wherein the measuring is based on one or both of: counting a number of particles and determining an electrostatic charge of the particles and determining whether the measured concentration of particle content is indicative of an appropriate concentration of an extinguishing and/or suppression agent the method further comprising: routing the plurality of streams using a vacuum pump after the measuring of concentration of particle content via a plurality of output tubes (150, 230) wherein at least some of the output tubes (150, 230) are interconnected to a manifold which is connected to the vacuum pump and wherein the plurality of streams comprises one or both of a solid agent and an aerosol agent. routing a plurality of streams via a plurality of tubes (140, 220) from a plurality of sampling points where particle content concentrations are to be measured; measuring concentration of particle content in the plurality of streams wherein the measuring is based on one or both of: counting a number of particles and determining an electrostatic charge of the particles and counting a number of particles and determining an electrostatic charge of the particles and determining whether the measured concentration of particle content is indicative of an appropriate concentration of an extinguishing and/or suppression agent the method further comprising: routing the plurality of streams using a vacuum pump after the measuring of concentration of particle content via a plurality of output tubes (150, 230) wherein at least some of the output tubes (150, 230) are interconnected to a manifold which is connected to the vacuum pump and wherein the plurality of streams comprises one or both of a solid agent and an aerosol agent. routing the plurality of streams using a vacuum pump after the measuring of concentration of particle content via a plurality of output tubes (150, 230) wherein at least some of the output tubes (150, 230) are interconnected to a manifold which is connected to the vacuum pump and wherein the plurality of streams comprises one or both of a solid agent and an aerosol agent.
A method for the detection of C. difficile in a sample wherein said C. difficile comprises a nucleic acid target region having the following sequence: I) Tcaagactctattatagtaagtgcaaatcaatatgaagt; which method comprises exposing said sample to: a) at least one oligonucleotide probe that is complementary to at least 15 nucleotides of said target region, or; b) an oligonucleotide probe that is at least 80% homologous to the oligonucleotide in a); and detecting the binding of said oligonucleotide to said target region and, where binding occurs, concluding that C. difficile is present in said sample. I) Tcaagactctattatagtaagtgcaaatcaatatgaagt; a) at least one oligonucleotide probe that is complementary to at least 15 nucleotides of said target region, or; b) an oligonucleotide probe that is at least 80% homologous to the oligonucleotide in a); and
A method for sending configuration data from a first terminal to a second terminal, comprising: generating a WIFI frame containing configuration data for configuration of a second terminal; and broadcasting the WIFI frame to enable the second terminal to be configured according to the configuration data acquired by parsing the WIFI frame received at the second terminal; characterized in that the WIFI frame is the Probe Request frame in 802.11 Protocol, and the configuration data is contained in the SSID field of the Probe Request frame. generating a WIFI frame containing configuration data for configuration of a second terminal; and broadcasting the WIFI frame to enable the second terminal to be configured according to the configuration data acquired by parsing the WIFI frame received at the second terminal; characterized in that the WIFI frame is the Probe Request frame in 802.11 Protocol, and
An assembly for machining an edge surface of a wood-based panel prior to a glue application, comprising - a tool which can be driven in rotation about a tool axis, wherein the tool comprises a working area rotating in a circular ring about the tool axis, wherein the working area comprises a working relief, by means of which the tool can engage with the edge surface when used as intended, characterised in that the working area - viewed in a cross-section of the tool containing the tool axis of the tool - is formed convex, wherein at least one discharge channel set back radially relative to the tool axis is formed in the working area, by means of which discharge channel particles removed from the edge surface can be carried away. - a tool which can be driven in rotation about a tool axis, wherein the tool comprises a working area rotating in a circular ring about the tool axis, wherein the working area comprises a working relief, by means of which the tool can engage with the edge surface when used as intended, characterised in that the working area - viewed in a cross-section of the tool containing the tool axis of the tool - is formed convex, wherein at least one discharge channel set back radially relative to the tool axis is formed in the working area, by means of which discharge channel particles removed from the edge surface can be carried away.
A display apparatus comprising: a liquid crystal panel; a light source configured to provide light to the liquid crystal panel; and an optical member disposed between the liquid crystal panel and the light source, wherein the optical member comprises: a diffuser sheet that is configured to diffuse the light from the light source; and a deformation preventing layer comprising a first material having a lower expansion or contraction rate than the diffuser sheet, wherein the optical member further comprises a quantum dot sheet disposed on a first side of the deformation preventing layer that is opposite to a second side of the deformation preventing layer on which the diffuser sheet is disposed, wherein the optical member further comprises: a Dual Brightness Enhancement Film, DBEF, that is configured to transmit a portion of the light passing therethrough and to reflect another portion of the light passing therethrough; characterised in that, protective beads are formed on a side of the DBEF that faces the liquid crystal panel. a liquid crystal panel; a light source configured to provide light to the liquid crystal panel; and an optical member disposed between the liquid crystal panel and the light source, wherein the optical member comprises: a diffuser sheet that is configured to diffuse the light from the light source; and a deformation preventing layer comprising a first material having a lower expansion or contraction rate than the diffuser sheet, a diffuser sheet that is configured to diffuse the light from the light source; and a deformation preventing layer comprising a first material having a lower expansion or contraction rate than the diffuser sheet, wherein the optical member further comprises a quantum dot sheet disposed on a first side of the deformation preventing layer that is opposite to a second side of the deformation preventing layer on which the diffuser sheet is disposed, wherein the optical member further comprises: a Dual Brightness Enhancement Film, DBEF, that is configured to transmit a portion of the light passing therethrough and to reflect another portion of the light passing therethrough; characterised in that, protective beads are formed on a side of the DBEF that faces the liquid crystal panel. a Dual Brightness Enhancement Film, DBEF, that is configured to transmit a portion of the light passing therethrough and to reflect another portion of the light passing therethrough; characterised in that, protective beads are formed on a side of the DBEF that faces the liquid crystal panel.
A servo press machine comprising: a servomotor; a crankshaft rotated by driving of the servomotor; two connecting rods connected to two eccentric portions of the crankshaft; and a slide connected to the connecting rods 9), wherein the servomotor is an axial gap motor; and a stator (17, 18) of the axial gap motor is fixed to a crown in which the crankshaft is housed, and a rotor (16, 20, 50) of the axial gap motor is assembled with the crankshaft between the two connecting rods, characterized in that the axial gap motor has a configuration in which each of the rotor (16, 20, 50) and the stator (17, 18, 30, 40) is dividable in two parts in a direction perpendicular to the rotation axis of the motor. a servomotor; a crankshaft rotated by driving of the servomotor; two connecting rods connected to two eccentric portions of the crankshaft; and a slide connected to the connecting rods 9), wherein the servomotor is an axial gap motor; and a stator (17, 18) of the axial gap motor is fixed to a crown in which the crankshaft is housed, and a rotor (16, 20, 50) of the axial gap motor is assembled with the crankshaft between the two connecting rods, characterized in that the axial gap motor has a configuration in which each of the rotor (16, 20, 50) and the stator (17, 18, 30, 40) is dividable in two parts in a direction perpendicular to the rotation axis of the motor.
Protector for a stemless trial implant system comprising a disc shaped protector plate having a top section and a bottom section, the protector further comprising a central post extending centrally from the bottom section of the protector plate, the central post further comprises a central protector post inner hole, the bottom section further comprises at least one anchoring pin (660, 902).
An air intake structure for an internal combustion engine, the air intake structure comprising: a compressor impeller of a turbo supercharger provided in an air intake passage of the internal combustion engine; and a capture member provided upstream side with respect to the compressor impeller in the air intake passage to capture an ice clump formed at an inner wall surface of the air intake passage when the ice clump peels off, wherein the capture member is configured as a filter that allows air sucked in the air intake passage to pass through and prevents the ice clump from passing through; and wherein the capture member is provided so as to extend radially inward from the inner wall surface of the air intake passage, the capture member is an annular member including a hole at a center portion of the air intake passage, the hole passing through in a center axis direction, and the hole includes a peripheral edge that projects toward an upstream side in an intake airflow direction. a compressor impeller of a turbo supercharger provided in an air intake passage of the internal combustion engine; and a capture member provided upstream side with respect to the compressor impeller in the air intake passage to capture an ice clump formed at an inner wall surface of the air intake passage when the ice clump peels off, wherein