mhurhangee/ep-ind-claims huggingface dataset:
A two-arm tensioner, used on an internal combustion engine mounted with a motor generator unit, wherein the internal combustion engine comprises a crankshaft pulley and a motor generator unit pulley, and a circular transmission part wraps around the crankshaft pulley and the motor generator unit pulley; the two-arm tensioner comprises a first tension arm and a second tension arm, the first tension arm having a first end and a second end, and the second tension arm having a first end and a second end, wherein the first tension arm is provided with a first pivoting center and can pivot around the first pivoting center, wherein the first end of the first tension arm is provided with a first tensioning pulley, and the first end of the second tension arm is pivotally hinged to the first tension arm about a second pivoting center at the second end of the first tension arm, wherein the first and second pivoting centers (15, 16) are offset from each other, and the second end of the second tension arm is provided with a second tensioning pulley, wherein the first pivoting center is provided between the first end and the second end of the first tension arm along the first tension arm; a torsion spring is placed between the first and the second tension arms (13, 14) and deflects both of them around the second pivoting center of the second tension arm in the direction close to each other; and characterized in that: the first pivoting center is provided outside the wrapping range of the circular transmission part, wherein: the first tension arm is roughly in an arc shape, and partially wraps around the motor generator unit pulley in the internal combustion engine. the two-arm tensioner comprises a first tension arm and a second tension arm, the first tension arm having a first end and a second end, and the second tension arm having a first end and a second end, wherein the first tension arm is provided with a first pivoting center and can pivot around the first pivoting center, wherein the first end of the first tension arm is provided with a first tensioning pulley, and the first end of the second tension arm is pivotally hinged to the first tension arm about a second pivoting center at the second end of the first tension arm, wherein the first and second pivoting centers (15, 16) are offset from each other, and the second end of the second tension arm is provided with a second tensioning pulley, wherein the first pivoting center is provided between the first end and the second end of the first tension arm along the first tension arm; a torsion spring is placed between the first and the second tension arms (13, 14) and deflects both of them around the second pivoting center of the second tension arm in the direction close to each other; and characterized in that: the first pivoting center is provided outside the wrapping range of the circular transmission part, wherein: the first tension arm is roughly in an arc shape, and partially wraps around the motor generator unit pulley in the internal combustion engine.
A mandrel, the mandrel being for a can decorator which includes a mandrel assembly structured to rotate said mandrel; said mandrel comprising: an elongated mandrel body including an outer surface, a proximal, first end, a proximal medial portion, a distal medial portion, and a distal, second end and having an axis of rotation; said mandrel body outer surface including an elongated conical portion, said mandrel body outer surface conical portion disposed adjacently about at least one of said mandrel body proximal, first end and said mandrel body proximal medial portion; said mandrel characterised in that: said mandrel body outer surface conical portion defines a necked engagement surface. an elongated mandrel body including an outer surface, a proximal, first end, a proximal medial portion, a distal medial portion, and a distal, second end and having an axis of rotation; said mandrel body outer surface including an elongated conical portion, said mandrel body outer surface conical portion disposed adjacently about at least one of said mandrel body proximal, first end and said mandrel body proximal medial portion;
A wind power generator, comprising: a tower disposed onshore or offshore and configured to be a supporting pillar of a power generator; a nacelle disposed on the tower and including the power generator inside; and a rotor disposed at one end of the nacelle, and including a blade and a hub configured to receive wind and convert the wind to rotational energy, a yaw driving unit (9, 10) disposed at a connecting portion between the tower and the nacelle and configured to control positions of the nacelle and the rotor with respect to the tower is provided, and the yaw driving unit (9, 10) includes a releasing unit (17, 20), characterized in that the releasing unit (17, 20) is configured to release yaw drive force from being transmitted, in the case where a detected control current of the yaw driving unit exceeds a rated value. a tower disposed onshore or offshore and configured to be a supporting pillar of a power generator; a nacelle disposed on the tower and including the power generator inside; and a rotor disposed at one end of the nacelle, and including a blade and a hub configured to receive wind and convert the wind to rotational energy, a yaw driving unit (9, 10) disposed at a connecting portion between the tower and the nacelle and configured to control positions of the nacelle and the rotor with respect to the tower is provided, and the yaw driving unit (9, 10) includes a releasing unit (17, 20), characterized in that the releasing unit (17, 20) is configured to release yaw drive force from being transmitted, in the case where a detected control current of the yaw driving unit exceeds a rated value.
A data storage unit comprising: a base section; a data cassette section comprising: an interface through which solid-state storage modules are accessible to the base section; and a plurality of solid-state storage modules arranged in a vertical fashion from the front of the data cassette section to the back of the data cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section; and characterised by: a trusted platform module that is removably mountable in the data cassette section and configured to provide security to the solid-state storage modules by authorizing operation of the data cassette section and the base section when the cassette section is connected to the base section. a base section; a data cassette section comprising: an interface through which solid-state storage modules are accessible to the base section; and a plurality of solid-state storage modules arranged in a vertical fashion from the front of the data cassette section to the back of the data cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section; and an interface through which solid-state storage modules are accessible to the base section; and a plurality of solid-state storage modules arranged in a vertical fashion from the front of the data cassette section to the back of the data cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section; and characterised by: a trusted platform module that is removably mountable in the data cassette section and configured to provide security to the solid-state storage modules by authorizing operation of the data cassette section and the base section when the cassette section is connected to the base section.
An agrochemical oil composition comprising: (i) at least one alkylpolysiloxane of high silicone character, which is characterized by having in its molecular structure blocks of unmodified polydimethylsiloxane segments with more than 10 uninterrupted polydimethylsiloxane groups (-Me 2 SiO-) on average (ii) at least one oil, and optionally (iii) one or more agrochemically active compounds, emulsifiers and other agrochemically acceptable ingredient, wherein the at least one alkylpolysiloxane of high silicone character is a siloxane (a) of formula: R" 3 Si-O-(SiR 2 O) u - (SiRR'O)v- SiR" 3 wherein: R is methyl R' is an aliphatic linear or branched alkyl radical containing 14-18 carbons, R" is R, u is 50 to 150, v is 3 to 10, provided that u/v is 10:1 to 50:1; where the surface tension of the oil is reduced by the high silicon character alkylpolysiloxane with low concentrations of alkylpolysiloxane in the agrochemical oil composition. (i) at least one alkylpolysiloxane of high silicone character, which is characterized by having in its molecular structure blocks of unmodified polydimethylsiloxane segments with more than 10 uninterrupted polydimethylsiloxane groups (-Me 2 SiO-) on average (ii) at least one oil, and optionally (iii) one or more agrochemically active compounds, emulsifiers and other agrochemically acceptable ingredient, wherein the at least one alkylpolysiloxane of high silicone character is a siloxane (a) of formula: R" 3 Si-O-(SiR 2 O) u - (SiRR'O)v- SiR" 3 R is methyl R' is an aliphatic linear or branched alkyl radical containing 14-18 carbons, R" is R, u is 50 to 150, v is 3 to 10, provided that u/v is 10:1 to 50:1; where the surface tension of the oil is reduced by the high silicon character alkylpolysiloxane with low concentrations of alkylpolysiloxane in the agrochemical oil composition.
A method for coordinating path planning for a plurality of automated vehicles, the method comprising: providing a multi-level graph comprising high-level nodes corresponding to an area, wherein each of the high-level nodes comprises one or more connection nodes corresponding to a periphery of the area, one or more roadmap nodes corresponding to the inside of the area, and one or more local paths that link the connection nodes, the roadmap nodes, or a combination thereof of a given area; constructing, offline, a solution set of roadmap graphs from the multi-level graph, wherein each of the roadmap graphs comprises a start position within one of the high-level nodes linked via a final path to a goal position within another of the high-level nodes, and wherein the final path comprises a selection of the local paths of the high-level nodes; evaluating each of the roadmap graphs against a heuristic, wherein the heuristic is used to select the final path of its associated roadmap graph; selecting, online and automatically with one or more computers, a coordinated path plan for the automated vehicles from the solution set of roadmap graphs, wherein the coordinated path plan is selected based upon the heuristic; and operating the automated vehicles according to the coordinated path plan. providing a multi-level graph comprising high-level nodes corresponding to an area, wherein each of the high-level nodes comprises one or more connection nodes corresponding to a periphery of the area, one or more roadmap nodes corresponding to the inside of the area, and one or more local paths that link the connection nodes, the roadmap nodes, or a combination thereof of a given area; constructing, offline, a solution set of roadmap graphs from the multi-level graph, wherein each of the roadmap graphs comprises a start position within one of the high-level nodes linked via a final path to a goal position within another of the high-level nodes, and wherein the final path comprises a selection of the local paths of the high-level nodes; evaluating each of the roadmap graphs against a heuristic, wherein the heuristic is used to select the final path of its associated roadmap graph; selecting, online and automatically with one or more computers, a coordinated path plan for the automated vehicles from the solution set of roadmap graphs, wherein the coordinated path plan is selected based upon the heuristic; and operating the automated vehicles according to the coordinated path plan.
Compounds of the general formula wherein R 1 is C 1 -C 3- alkyl, ω-functionalized alkyl, allyl or benzyl; R 2 is hydrogen, methyl, F, Cl, Br, phenyl, 2-phenylethen-1-yl or phenylethinyl; R 3 is hydrogen or methyl; Z is nitro group. R 1 is C 1 -C 3- alkyl, ω-functionalized alkyl, allyl or benzyl; R 2 is hydrogen, methyl, F, Cl, Br, phenyl, 2-phenylethen-1-yl or phenylethinyl; R 3 is hydrogen or methyl; Z is nitro group.
A method, in a wireless device, for maintaining timing associated with uplink transmissions, the method comprising, for each of a plurality of scheduled listen-before-talk, LBT, transmission opportunities: determining whether an error in a current uplink transmission timing, with respect to a reference point based on a downlink timing for a reference cell, exceeds a predetermined threshold; adjusting the timing associated with uplink transmissions, for each scheduled LBT transmission opportunity for which the error exceeds the predetermined threshold; performing an LBT assessment to determine whether the wireless device is permitted to transmit in the scheduled LBT transmission opportunity; and for each scheduled LBT transmission opportunity in which the LBT assessment indicates that the wireless device is not permitted to transmit, reversing any adjustment to the timing associated with uplink transmissions made for that scheduled LBT transmission opportunity. determining whether an error in a current uplink transmission timing, with respect to a reference point based on a downlink timing for a reference cell, exceeds a predetermined threshold; adjusting the timing associated with uplink transmissions, for each scheduled LBT transmission opportunity for which the error exceeds the predetermined threshold; performing an LBT assessment to determine whether the wireless device is permitted to transmit in the scheduled LBT transmission opportunity; and for each scheduled LBT transmission opportunity in which the LBT assessment indicates that the wireless device is not permitted to transmit, reversing any adjustment to the timing associated with uplink transmissions made for that scheduled LBT transmission opportunity.
An apparatus for measuring flow of a process fluid based upon a differential pressure, comprising: an elongate spool having a spool conduit therethrough adapted to be coupled in line with process piping to receive the flow of process fluid; a meter body carried in the elongate spool having the spool conduit therethrough, the meter body including a primary element opening which extends from the spool conduit to outside of the meter body; a carrier including a primary element configured to be removably mounted to the meter body and position the primary element in the spool conduit through the primary element opening, the carrier including an upstream pressure conduit and a downstream pressure conduit (172, 174), wherein the primary element is one of a plurality of various primary elements placeable in the spool conduit through the primary element opening, wherein the carrier further comprises a meter body mounting face configured to be sealably coupled to the meter body; and a pressure transmitter coupled to the upstream and downstream pressure conduits (172, 174) configured to measure the flow of process fluid based upon a pressure difference between the upstream and downstream pressure conduits (172, 174), wherein the carrier includes a secondary connector on the meter body mounting face, wherein the secondary connector comprises an opening which extends close to the process fluid allowing additional process variables to be collected, wherein the carrier includes a planar face configured to fluidically couple to a planar face of the pressure transmitter or a flange connection. an elongate spool having a spool conduit therethrough adapted to be coupled in line with process piping to receive the flow of process fluid; a meter body carried in the elongate spool having the spool conduit therethrough, the meter body including a primary element opening which extends from the spool conduit to outside of the meter body; a carrier including a primary element configured to be removably mounted to the meter body and position the primary element in the spool conduit through the primary element opening, the carrier including an upstream pressure conduit and a downstream pressure conduit (172, 174), wherein the primary element is one of a plurality of various primary elements placeable in the spool conduit through the primary element opening, wherein the carrier further comprises a meter body mounting face configured to be sealably coupled to the meter body; and a pressure transmitter coupled to the upstream and downstream pressure conduits (172, 174) configured to measure the flow of process fluid based upon a pressure difference between the upstream and downstream pressure conduits (172, 174), wherein the carrier includes a secondary connector on the meter body mounting face, wherein the secondary connector comprises an opening which extends close to the process fluid allowing additional process variables to be collected, wherein the carrier includes a planar face configured to fluidically couple to a planar face of the pressure transmitter or a flange connection.
Nozzle group controller for a turbine, in particular a steam turbine, comprising at least a first control valve, a second control valve and a pump, wherein each control valve (121, 122) has its own actuator (201, 202), which is able to move the respective control valve (121, 122) between an open position and a closed position, wherein the actuators (201, 202) are able to be actuated hydraulically and the hydraulic pressure required for actuating the actuators (201, 202) is built up by the pump, wherein the actuators (201, 202) are arranged parallel to one another in a hydraulic circuit and are able to be actuated by the common first pump, characterized in that the hydraulic circuit is a closed circuit, and the actuator (201, 202) has a working cylinder in which a piston which is able to be acted upon on both sides is arranged in a displaceable manner, and the working cylinder has at least one valve which controls the inflow and/or outflow into/from the working cylinder and which thus forms a hydrostatic drive, and wherein the pump is designed only for the hydraulic fluid requirement of a valve.
A multi-layer experiential optical device sized and shaped to be reversibly adhered to the outside of an optical lens, the experiential optical device having a temporal peripheral zone and a nasal peripheral zone and comprising: (a) a first polymeric layer having a first side and an opposing second side (b) at least one layer having a light-influencing property adjacent to the second side of (a), wherein light-influencing property means absorption or filtering of incident light-radiation; (c) a second polymeric layer, which is the same or different from the first polymeric layer (a), having a first side and an opposing second side, wherein the first side is adjacent to the layer (b); and (d) a low tack pressure sensitive adhesive disposed in strips on both the temporal peripheral zone and the nasal peripheral zone of the second side of (c). (a) a first polymeric layer having a first side and an opposing second side (b) at least one layer having a light-influencing property adjacent to the second side of (a), wherein light-influencing property means absorption or filtering of incident light-radiation; (c) a second polymeric layer, which is the same or different from the first polymeric layer (a), having a first side and an opposing second side, wherein the first side is adjacent to the layer (b); and (d) a low tack pressure sensitive adhesive disposed in strips on both the temporal peripheral zone and the nasal peripheral zone of the second side of (c).
A flow sensor assembly, comprising: a housing including an inlet flow port, an outlet flow port, and a fluid channel (12, 86) extending between the inlet flow port and the outlet flow port, the housing including one or more partitions positioned in the fluid channel (12, 86) to define two or more fluid sub-passages (96, 98) through the fluid channel (12, 86), wherein the one or more partitions are positioned in the fluid channel (12, 86) to provide cross-sectional areas for each of the two or more fluid sub-passages 96, 98) such that a volume of fluid flow through each of the two or more fluid sub-passages is substantially the same, wherein the two or more fluid sub-passages are configured to laminarize the fluid flow, and wherein the two or more fluid sub-passages (96, 98) include a first sub-passage and a second sub-passage; and a flow sensor positioned in the first sub-passage; characterized in that the first sub-passage includes a first portion and a second portion, wherein the second portion has a height that is less than a height of the first portion; and the flow sensor (10, 114) is positioned in the second portion of the first sub-passage, the flow sensor (10, 114) configured to sense a measure related to a flow rate of a fluid flowing through the second portion of the first sub-passage which is related to the flow rate of the fluid flowing through the fluid channel (12, 86). a housing including an inlet flow port, an outlet flow port, and a fluid channel (12, 86) extending between the inlet flow port and the outlet flow port, the housing including one or more partitions positioned in the fluid channel (12, 86) to define two or more fluid sub-passages (96, 98) through the fluid channel (12, 86), wherein the one or more partitions are positioned in the fluid channel (12, 86) to provide cross-sectional areas for each of the two or more fluid sub-passages 96, 98) such that a volume of fluid flow through each of the two or more fluid sub-passages is substantially the same, wherein the two or more fluid sub-passages are configured to laminarize the fluid flow, and wherein the two or more fluid sub-passages (96, 98) include a first sub-passage and a second sub-passage; and a flow sensor positioned in the first sub-passage; characterized in that the first sub-passage includes a first portion and a second portion, wherein the second portion has a height that is less than a height of the first portion; and the flow sensor (10, 114) is positioned in the second portion of the first sub-passage, the flow sensor (10, 114) configured to sense a measure related to a flow rate of a fluid flowing through the second portion of the first sub-passage which is related to the flow rate of the fluid flowing through the fluid channel (12, 86).