mhurhangee/patent-ind-claim-en huggingface dataset:
Welding boom comprising a base , a vertical column mounted on it, and a horizontal arm fastened to the vertical column , wherein a welding gun fastener is provided at the end of the horizontal arm for fastening a welding gun of a welding device to the end of the welding boom , and wherein the horizontal arm of the welding boom is fastened to the vertical column to be movable by a distance in the longitudinal direction of the vertical column and/or in the longitudinal direction of the horizontal arm , wherein - the welding boom comprises manual adjustment of an initial position, for moving the horizontal arm and the welding gun fastener at the end thereof in the longitudinal direction of the vertical column and/or in the longitudinal direction of the horizontal arm to a desired initial position for welding, - the welding boom comprises a locking device for locking the manual adjustment of the initial position, and that - the welding boom comprises, in addition to the manual adjustment of the initial position, at least one actuator drive for moving the horizontal arm a distance in at least the longitudinal direction of the vertical column and/or the longitudinal direction of the vertical arm at an adjustable speed by means of the actuator drive, irrespective of the adjustment of the initial position, during welding by using the welding boom . - the welding boom comprises manual adjustment of an initial position, for moving the horizontal arm and the welding gun fastener at the end thereof in the longitudinal direction of the vertical column and/or in the longitudinal direction of the horizontal arm to a desired initial position for welding, - the welding boom comprises a locking device for locking the manual adjustment of the initial position, and that - the welding boom comprises, in addition to the manual adjustment of the initial position, at least one actuator drive for moving the horizontal arm a distance in at least the longitudinal direction of the vertical column and/or the longitudinal direction of the vertical arm at an adjustable speed by means of the actuator drive, irrespective of the adjustment of the initial position, during welding by using the welding boom .
A hand-held multi-tool device comprising a driving unit and being arranged to carry one of a plurality of replaceable tool heads to be driven by the driving unit , the hand-held multi-tool device further comprising a controller configured to: determine a baseline inertial characteristic of the tool head ; determine an active inertial characteristic of the tool head ; and determine a tool type for the tool head based on the active inertial characteristic and the baseline inertial characteristic, wherein the controller is further configured to determine the baseline inertial characteristic by providing a first energy level through the driving unit , and to determine the active inertial characteristic by providing a second energy level through the driving unit , wherein the second energy level is higher than the first energy level to cause an acceleration of the tool head , the hand-held multi-tool device being characterized in that the controller is further configured to determine the baseline inertial characteristic by providing the first energy level through the driving unit before providing the second energy level. determine a baseline inertial characteristic of the tool head ; determine an active inertial characteristic of the tool head ; and determine a tool type for the tool head based on the active inertial characteristic and the baseline inertial characteristic, wherein the controller is further configured to determine the baseline inertial characteristic by providing a first energy level through the driving unit , and to determine the active inertial characteristic by providing a second energy level through the driving unit , wherein the second energy level is higher than the first energy level to cause an acceleration of the tool head , the hand-held multi-tool device being characterized in that the controller is further configured to determine the baseline inertial characteristic by providing the first energy level through the driving unit before providing the second energy level.
An electrical plug , comprising: a plug body having a pair of through holes formed on a bottom thereof, a printed circuit board accommodated inside the plug body , a pair of electrically conductive members extending through the pair of through holes , respectively, a pair of electrically conductive connectors connecting the pair of electrically conductive members , respectively, to the printed circuit board , characterized in that the plug body further has an orienting bulge , and the electrical plug further comprises an orienting member cooperating with the orienting bulge on the bottom of the plug body to orient the pair of electrically conductive members in an anti-loosening orientation, in which a distance (D1) between outer ends of the electrically conductive members is smaller than a distance (D2) between inner ends of the electrically conductive members , wherein the orienting member comprises: a pair of cylinders , the pair of electrically conductive members extending through the pair of cylinders , respectively, and a connecting portion connecting the pair of cylinders , the connecting portion cooperating with the orienting bulge on the bottom of the plug body to orient the pair of electrically conductive members ; and wherein the connecting portion of the orienting member comprises a deformable bottom plate , wherein the deformable bottom plate is pressed against the orienting bulge on the bottom of the plug body , and is deformed to have a shape corresponding to the shape of the orienting bulge , such that the pair of cylinders are tilted away from each other, thereby orienting the pair of electrically conductive members in the anti-loosening orientation. a plug body having a pair of through holes formed on a bottom thereof, a printed circuit board accommodated inside the plug body , a pair of electrically conductive members extending through the pair of through holes , respectively, a pair of electrically conductive connectors connecting the pair of electrically conductive members , respectively, to the printed circuit board , characterized in that the plug body further has an orienting bulge , and the electrical plug further comprises an orienting member cooperating with the orienting bulge on the bottom of the plug body to orient the pair of electrically conductive members in an anti-loosening orientation, in which a distance (D1) between outer ends of the electrically conductive members is smaller than a distance (D2) between inner ends of the electrically conductive members , a pair of cylinders , the pair of electrically conductive members extending through the pair of cylinders , respectively, and a connecting portion connecting the pair of cylinders , the connecting portion cooperating with the orienting bulge on the bottom of the plug body to orient the pair of electrically conductive members ; and
Swing-arm assembly for an awning, comprising an arm and an arm support intended to be fastened to a fixed structure, comprising an axial articulation (A) between the arm support and the arm that makes it possible to pivot the arm with respect to the arm support between a folded position and a deployed position, the arm being provided with a profiled arm element , an articulation end and an end for joining to an awning extension bar, the axial articulation (A) being provided with a convex cylindrical surface, the assembly comprising an element for urging the arm towards the deployed position, the urging element being provided with a first end for fastening to the joining end , a cable segment wound around the convex cylindrical surface, a second fastening end intended to be fixed with respect to the arm support , a spring arranged between the first fastening end and the cable segment , characterized in that it comprises an adjustable-length segment between the first end for fastening to the joining end and the spring , and in that the articulation end comprises a hollow cylindrical body of axis coincident with the articulation axis (A) and an extension for fitting in the profiled arm element perpendicular to the articulation axis (A), the assembly comprising a ring provided on its external surface of the convex cylindrical surface and an anchor for the fastening end of the urging element , the ring being partially arranged, on one of its sides, in the hollow cylindrical body for anchoring the articulation end , the ring being provided, on the other of its sides, with protrusions , the arm support comprising a cylindrical body provided with recesses with complementary shapes to the protrusions, such that the engagement of the protrusions and the recesses blocks the rotation of the ring .
A method of manufacturing a multistage axial-centrifugal compressor for a gas turbine engine, the multistage axial-centrifugal compressor including a series of axial compressor stages (456a - 456c) each having a rotor (450a - 450c) mounted to a common shaft positioned upstream from a centrifugal compressor stage mounted to the common shaft, the method comprising: receiving, by a processor, an operating speed of the multi-stage axial centrifugal compressor; determining, by the processor, an operational rotor tip speed for each of the axial compressor stages (456a-456c) based on the operating speed of the multi-stage axial centrifugal compressor; comparing, by the processor, the operational rotor tip speed for each of the axial compressor stages (456a-456c) to a threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by an arbitrary manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as greater than the threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by a flank manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as less than the threshold range value; and generating manufacturing system data for a manufacturing system based on the determining to machine the airfoil of the rotor by the arbitrary manufacturing approach and the flank manufacturing approach for the axial compressor stages. receiving, by a processor, an operating speed of the multi-stage axial centrifugal compressor; determining, by the processor, an operational rotor tip speed for each of the axial compressor stages (456a-456c) based on the operating speed of the multi-stage axial centrifugal compressor; comparing, by the processor, the operational rotor tip speed for each of the axial compressor stages (456a-456c) to a threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by an arbitrary manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as greater than the threshold range value; determining, by the processor, to machine an airfoil of the rotor for at least one of the axial compressor stages (456a-456c) by a flank manufacturing approach based on the operational rotor tip speed for the at least one of the axial compressor stages as less than the threshold range value; and generating manufacturing system data for a manufacturing system based on the determining to machine the airfoil of the rotor by the arbitrary manufacturing approach and the flank manufacturing approach for the axial compressor stages.
A vibratory meter including a multi-channel flow tube , the vibratory meter comprising: a meter electronics ; and a meter assembly communicatively coupled to the meter electronics , the meter assembly comprising: the multi-channel flow tube comprising two or more fluid channels surrounded by a tube wall , wherein the two or more fluid channels and tube wall comprise a single integral structure; and a driver coupled to the multi-channel flow tube , the driver being configured to vibrate the multi-channel flow tube ; wherein the two or more fluid channels and tube wall are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver ; and wherein the meter electronics is configured to: measure a density of the fluid with the multi-channel flow tube based on a frequency of the vibration of the multi-channel flow tube; characterized by : the meter electronics is further configured to: determine a gas void fraction using the measured density; determine a flow rate error from a predetermined correlation between the flow rate error and the gas void fraction; and compensate the flow rate measurement using the flow rate error. a meter electronics ; and a meter assembly communicatively coupled to the meter electronics , the meter assembly comprising: the multi-channel flow tube comprising two or more fluid channels surrounded by a tube wall , wherein the two or more fluid channels and tube wall comprise a single integral structure; and a driver coupled to the multi-channel flow tube , the driver being configured to vibrate the multi-channel flow tube ; wherein the two or more fluid channels and tube wall are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver ; and wherein the meter electronics is configured to: measure a density of the fluid with the multi-channel flow tube based on a frequency of the vibration of the multi-channel flow tube; the multi-channel flow tube comprising two or more fluid channels surrounded by a tube wall , wherein the two or more fluid channels and tube wall comprise a single integral structure; and a driver coupled to the multi-channel flow tube , the driver being configured to vibrate the multi-channel flow tube ; wherein the two or more fluid channels and tube wall are configured to deform in a same direction as the single integral structure in response to a drive signal applied to the driver ; and wherein the meter electronics is configured to: measure a density of the fluid with the multi-channel flow tube based on a frequency of the vibration of the multi-channel flow tube; measure a density of the fluid with the multi-channel flow tube based on a frequency of the vibration of the multi-channel flow tube; determine a gas void fraction using the measured density; determine a flow rate error from a predetermined correlation between the flow rate error and the gas void fraction; and compensate the flow rate measurement using the flow rate error.
An electric double layer capacitor, EDLC, comprising: a first electrode comprising a first current collector and first plurality of carbon nanotubes, CNTs, formed substantially directly on the first current collector ; a second electrode comprising a second current collector and second plurality of carbon nanotubes, CNTs, formed substantially directly on the second current collector ; and an electrolyte contacting the first and second electrodes and comprising cations and anions ; characterized in that the electrolyte comprises a salt of the following formula: wherein R 1 and R 2 can be the same or different and are each a straight-chain or branched alkyl having 1 to 4 carbon atoms, and X- is an anion that comprises [B(CN) 4 ] - or [BF n (CN) 4-n ] - , where n=0, 1, 2 or 3; wherein the first plurality of CNTs and the second plurality of CNTs have a lateral CNT spacing selected to provide void spaces having a size greater than two times the size of the cations and anions ; wherein the lateral CNT spacing is at least the minimum spacing required such that a cutoff frequency of the EDLC , at which a capacitance of the EDLC is reduced by 3dB from a DC capacitance, is at least about 150 Hz such that the EDLC is configured to have a capacitive frequency window comprising about 1 Hz to about 150 Hz. a first electrode comprising a first current collector and first plurality of carbon nanotubes, CNTs, formed substantially directly on the first current collector ; a second electrode comprising a second current collector and second plurality of carbon nanotubes, CNTs, formed substantially directly on the second current collector ; and an electrolyte contacting the first and second electrodes and comprising cations and anions ; characterized in that the electrolyte comprises a salt of the following formula: wherein R 1 and R 2 can be the same or different and are each a straight-chain or branched alkyl having 1 to 4 carbon atoms, and X- is an anion that comprises [B(CN) 4 ] - or [BF n (CN) 4-n ] - , where n=0, 1, 2 or 3; wherein the first plurality of CNTs and the second plurality of CNTs have a lateral CNT spacing selected to provide void spaces having a size greater than two times the size of the cations and anions ; wherein the lateral CNT spacing is at least the minimum spacing required such that a cutoff frequency of the EDLC , at which a capacitance of the EDLC is reduced by 3dB from a DC capacitance, is at least about 150 Hz such that the EDLC is configured to have a capacitive frequency window comprising about 1 Hz to about 150 Hz.
A computer-implemented data search method comprising: predicting the resource amount to be used in the query processing scheduled to be executed, on the basis of a data amount to be handled in the query processing scheduled to be executed, using a relationship between a data amount handled in the query processing executed in the past and the resource amount used in the query processing; and changing an upper limit value of a resource amount usable in query processing to the predicted resource amount to be used in the query processing scheduled to be executed for which execution has been permitted. predicting the resource amount to be used in the query processing scheduled to be executed, on the basis of a data amount to be handled in the query processing scheduled to be executed, using a relationship between a data amount handled in the query processing executed in the past and the resource amount used in the query processing; and changing an upper limit value of a resource amount usable in query processing to the predicted resource amount to be used in the query processing scheduled to be executed for which execution has been permitted.
An apparatus for in-situ testing impact strength of a micro-structure , comprising: a flexible beam , one end of which being fixed; an impact mass block disposed at the other end of the flexible beam and configured to exert an impact on the micro-structure ; and a locking member comprising a beam arm and a plurality of locking teeth , wherein the beam arm is perpendicular to the flexible beam and one end of the beam arm is fixed, and wherein the plurality of locking teeth are distributed at intervals along the beam arm , such that the other end of the flexible beam is engaged to one of the plurality of locking teeth when the flexible beam is loaded. a flexible beam , one end of which being fixed; an impact mass block disposed at the other end of the flexible beam and configured to exert an impact on the micro-structure ; and a locking member comprising a beam arm and a plurality of locking teeth , wherein the beam arm is perpendicular to the flexible beam and one end of the beam arm is fixed, and wherein the plurality of locking teeth are distributed at intervals along the beam arm , such that the other end of the flexible beam is engaged to one of the plurality of locking teeth when the flexible beam is loaded.
A combination product comprising a Bcl-2/Bcl-xL inhibitor and a chemotherapeutic agent, wherein the Bcl-2/Bcl-xL inhibitor is the following compound or a pharmaceutically acceptable salt or solvate thereof: and wherein the chemotherapeutic agent is homoharringtonine or a pharmaceutically acceptable salt or solvate thereof.
A system, comprising: an intra-shop connectivity system configured to be positioned within a service shop, comprising: a terminal configured to intake a vehicle into the service shop by receiving vehicle identification information associated with the vehicle; a server comprising a processor and a volatile or non-volatile memory, the server configured to store vehicle data associated with the vehicle, wherein the vehicle data comprises the vehicle identification information, ordered job information, color of paint for the vehicle, assigned operator, job start time, and job end time; and a scanner of a spray gun of a coating system, wherein the scanner is configured to scan a scannable indicia of the vehicle to identify the vehicle and relay the vehicle identification information to the server; wherein the intra-shop connectivity system is configured to control an amount and color of paint supplied to the spray gun in the service shop based at least in part on the vehicle identification information. a terminal configured to intake a vehicle into the service shop by receiving vehicle identification information associated with the vehicle; a server comprising a processor and a volatile or non-volatile memory, the server configured to store vehicle data associated with the vehicle, wherein the vehicle data comprises the vehicle identification information, ordered job information, color of paint for the vehicle, assigned operator, job start time, and job end time; and a scanner of a spray gun of a coating system, wherein the scanner is configured to scan a scannable indicia of the vehicle to identify the vehicle and relay the vehicle identification information to the server; wherein the intra-shop connectivity system is configured to control an amount and color of paint supplied to the spray gun in the service shop based at least in part on the vehicle identification information.
Assembly with connectable and disconnectable elements for the reconstitution of fluid drugs and nutrients with active substances in powder, liquid or gel form, comprising a flexible bag containing a liquid solution and provided with a first valve connector with a hermetic closing valve which is openable by axial pressure and automatically hermetically reclosable when said pressure is stopped, at least one vial containing an active substance in powder, liquid or gel form and provided with a hermetic closing cap which is openable by axial pressure, a coupling and piercing device which is couplable to the closing cap of the vial for piercing said cap , and an adapter with hollow external body interposed between said first connector and said coupling and piercing device , characterized in that said hollow external body of the adapter has a first end provided with an internal thread which is fixable by screwing to said first connector and an axially bored, coaxial internal stem lacking end points which, due to said screwing, causes the opening of the closing valve of said first connector by axial pressure and a second end which is fixable to said coupling and piercing device , said second end housing a second valve connector for connection to the coupling and piercing device , said second valve connector including a hermetic closing valve which is openable by axial pressure and automatically hermetically reclosable when said pressure is stopped, said second connector being axially pressable within said second end of the hollow external body and screwable into said first end of the hollow external body so that said internal stem causes the opening of the closing valve of said second connector by axial pressure.