mhurhangee/ep-ind-claims huggingface dataset:
A fuel system for a gas turbine engine comprising: a fuel tank; a pressurized supply line loop configured to receive fuel stored in the fuel tank and to deliver pressurized fuel to a combustor of the gas turbine engine; a high pressure pump for providing pressurized heated un-burnt fuel within the pressurized supply line loop, and a return line loop configured to redirect pressurized heated un-burnt fuel away from the combustor to the fuel tank; characterized by: the fuel system further comprising a turbine located within the return line loop, wherein the turbine is configured to extract energy from the pressurized heated un-burnt fuel and to power a generator. a fuel tank; a pressurized supply line loop configured to receive fuel stored in the fuel tank and to deliver pressurized fuel to a combustor of the gas turbine engine; a high pressure pump for providing pressurized heated un-burnt fuel within the pressurized supply line loop, and a return line loop configured to redirect pressurized heated un-burnt fuel away from the combustor to the fuel tank; characterized by: the fuel system further comprising a turbine located within the return line loop, wherein the turbine is configured to extract energy from the pressurized heated un-burnt fuel and to power a generator. the fuel system further comprising a turbine located within the return line loop, wherein the turbine is configured to extract energy from the pressurized heated un-burnt fuel and to power a generator.
A variable vane assembly for a gas turbine engine, comprising: a plurality of vanes arranged into a plurality of stages (74, 76, 78, 80), each one of the plurality of vanes being configured for rotation about an axis through movement of a vane arm secured to each one of the plurality of vanes at one end and a sync ring of each one of the plurality of stages at another end; and characterized by a plurality of bell cranks (88, 96) operably coupling the sync ring of each one of the plurality of stages to a self-retained linkage via a stud of each one of the plurality of bell cranks, the stud of each one of the plurality of bell cranks being rotatably received in a corresponding opening of the self-retained linkage in an alternating fashion such that only a single shear interface is provided between each one of the plurality of bell cranks and the self-retained linkage. a plurality of vanes arranged into a plurality of stages (74, 76, 78, 80), each one of the plurality of vanes being configured for rotation about an axis through movement of a vane arm secured to each one of the plurality of vanes at one end and a sync ring of each one of the plurality of stages at another end; and characterized by a plurality of bell cranks (88, 96) operably coupling the sync ring of each one of the plurality of stages to a self-retained linkage via a stud of each one of the plurality of bell cranks, the stud of each one of the plurality of bell cranks being rotatably received in a corresponding opening of the self-retained linkage in an alternating fashion such that only a single shear interface is provided between each one of the plurality of bell cranks and the self-retained linkage.
An anaerobic cure system comprising: one or more anaerobic cure components selected from the group consisting of saccharin, toluidines, acetyl phenyl hydrazine, and maleic acid; and, a complex comprising hydrogen peroxide and at least one compound represented by Formula I: Wherein: either X is selected from the group consisting of -C(R 3) 3,-C≡C, -O(R 3), and -S(R 3), and R 1, R 2, and R 3 are each independently selected from the group consisting of H, alkyl groups, alkenyl, C 2 -C 8 alkynyl groups, aralkyl, aryl, heteroaryl, heteroarylalkyl, heterocyclyl, and saturated cycloalkyl groups having from 3 to 20 ring carbon atoms, or R 2 and an R 3 are optionally taken together to form an alicyclic ring. or X is -N(R 3) 2 and Formula I is represented by the structure: in which: R 1 is an alkyl group; R 2 and R 3 are independently selected from H and alkyl groups but wherein at least one R 3 is an alkyl group. one or more anaerobic cure components selected from the group consisting of saccharin, toluidines, acetyl phenyl hydrazine, and maleic acid; and, a complex comprising hydrogen peroxide and at least one compound represented by Formula I: Wherein: either X is selected from the group consisting of -C(R 3) 3,-C≡C, -O(R 3), and -S(R 3), and R 1, R 2, and R 3 are each independently selected from the group consisting of H, alkyl groups, alkenyl, C 2 -C 8 alkynyl groups, aralkyl, aryl, heteroaryl, heteroarylalkyl, heterocyclyl, and saturated cycloalkyl groups having from 3 to 20 ring carbon atoms, or R 2 and an R 3 are optionally taken together to form an alicyclic ring. or X is -N(R 3) 2 and Formula I is represented by the structure: in which: R 1 is an alkyl group; R 2 and R 3 are independently selected from H and alkyl groups but wherein at least one R 3 is an alkyl group.
An ejection system, comprising: a number of fluid ejection channels; a fluid feed slot to supply fluid to the number of fluid ejection channels, wherein each fluid ejection channel is a recirculating channel, each fluid ejection channel comprising: a sensor to detect, in the fluid, a target particle to be ejected; and a fluid ejector to eject the target particle from the fluid ejection channel; and a controller to selectively activate the fluid ejector when a target particle presence is detected, wherein non-target particles are returned to the fluid feed slot past the fluid ejector; the ejection system being characterized by comprising a pump to, independently of operation of the fluid ejector, move fluid through the number of fluid ejection channels. a number of fluid ejection channels; a fluid feed slot to supply fluid to the number of fluid ejection channels, wherein each fluid ejection channel is a recirculating channel, each fluid ejection channel comprising: a sensor to detect, in the fluid, a target particle to be ejected; and a fluid ejector to eject the target particle from the fluid ejection channel; and a sensor to detect, in the fluid, a target particle to be ejected; and a fluid ejector to eject the target particle from the fluid ejection channel; and a controller to selectively activate the fluid ejector when a target particle presence is detected, wherein non-target particles are returned to the fluid feed slot past the fluid ejector; the ejection system being characterized by comprising a pump to, independently of operation of the fluid ejector, move fluid through the number of fluid ejection channels.
A method of assembling a jacket structure, which jacket structure comprises - a plurality of legs (10, 100), a plurality of connecting braces and a plurality of node elements (20A, 20C, 20D, 20E) arranged on the legs (10, 100) for connecting the braces to the legs (10, 100); - a node-to-leg connection between each node element (20A, 20C, 20D, 20E) and a leg (10, 100), wherein a node element (20A, 20C, 20D, 20E) comprises a sleeve, and wherein the wall thickness of the sleeve decreases towards an outer edge of the sleeve; and - a brace-to-node connection between each brace and a node element (20A, 20C, 20D, 20E); wherein - a node-to-leg connection and/or a brace-to-node connection comprises an adhesive joint; and - the adhesive joint comprises a layer of adhesive between a sleeve (20A, 112) and a component enclosed by the sleeve (20A, 112), wherein the adhesive comprises an epoxy resin or grout; which method comprises the steps of - forming a node-to-leg connection between each node element (20A, 20C, 20D, 20E) and a leg (10, 100), wherein a node element (20A, 20C, 20D, 20E) comprises a node sleeve, and wherein the wall thickness of the node sleeve decreases towards an outer edge of the sleeve; - forming a brace-to-node connection between each brace and a node element (20A, 20C, 20D, 20E); wherein a node-to-leg connection and/or a brace-to-node connection comprises an adhesive joint. - a plurality of legs (10, 100), a plurality of connecting braces and a plurality of node elements (20A, 20C, 20D, 20E) arranged on the legs (10, 100) for connecting the braces to the legs (10, 100); - a node-to-leg connection between each node element (20A, 20C, 20D, 20E) and a leg (10, 100), wherein a node element (20A, 20C, 20D, 20E) comprises a sleeve, and wherein the wall thickness of the sleeve decreases towards an outer edge of the sleeve; and - a brace-to-node connection between each brace and a node element (20A, 20C, 20D, 20E); - a node-to-leg connection and/or a brace-to-node connection comprises an adhesive joint; and - the adhesive joint comprises a layer of adhesive between a sleeve (20A, 112) and a component enclosed by the sleeve (20A, 112), wherein the adhesive comprises an epoxy resin or grout; - forming a node-to-leg connection between each node element (20A, 20C, 20D, 20E) and a leg (10, 100), wherein a node element (20A, 20C, 20D, 20E) comprises a node sleeve, and wherein the wall thickness of the node sleeve decreases towards an outer edge of the sleeve; - forming a brace-to-node connection between each brace and a node element (20A, 20C, 20D, 20E);
A printed circuit board, comprising: a body portion of the printed circuit board; a flexible portion of the printed circuit board comprising a plurality of traces; and an end portion of the flexible portion including an interface to the plurality of traces, wherein the end portion is proximately located in a first plane at a first depth level within an enclosure, wherein the body portion is proximately located in a second plane at a second depth level within the enclosure, characterized in that the plurality of traces includes thicker traces and thinner traces, wherein the thicker traces are located in a first region in a first layer of the flexible portion, wherein the thinner traces are located in a second region in a second layer of the flexible portion, wherein the first region is closer to a side edge of the flexible portion than the second region, and wherein the first region experiences more stress than the second region. a body portion of the printed circuit board; a flexible portion of the printed circuit board comprising a plurality of traces; and an end portion of the flexible portion including an interface to the plurality of traces, wherein the end portion is proximately located in a first plane at a first depth level within an enclosure, wherein the body portion is proximately located in a second plane at a second depth level within the enclosure, characterized in that the plurality of traces includes thicker traces and thinner traces, wherein the thicker traces are located in a first region in a first layer of the flexible portion, wherein the thinner traces are located in a second region in a second layer of the flexible portion, wherein the first region is closer to a side edge of the flexible portion than the second region, and wherein the first region experiences more stress than the second region.
Method for winding a spun thread, in particular a glass thread, on a winding tube (9.1, 9.2) which is disposed on a winding spindle (8.1, 8.2), said method comprising the following steps: • feeding the spun thread to the winding tube (9.1, 9.2) which is rotated by means of the driven winding spindle (8.1; 8.2); • carrying out a traversing movement by way of at least one flyer arm (13.1, 13.2) on a rotatably driven flyer axle while starting the winding and/or during the winding of a package, the winding width of the latter in an axial direction being smaller than a length of the winding tube (9.1, 9.2); • terminating the traversing movement by way of a predefined position of the wound thread on the rotation-free flyer arm (13.1, 13.2); • carrying out an axial relative movement between the flyer axle and the winding spindle (8.1, 8.2); and • winding the spun thread on the winding tube (9.1, 9.2) beside the winding width of the package so as to form a thread reserve. • feeding the spun thread to the winding tube (9.1, 9.2) which is rotated by means of the driven winding spindle (8.1; 8.2); • carrying out a traversing movement by way of at least one flyer arm (13.1, 13.2) on a rotatably driven flyer axle while starting the winding and/or during the winding of a package, the winding width of the latter in an axial direction being smaller than a length of the winding tube (9.1, 9.2); • terminating the traversing movement by way of a predefined position of the wound thread on the rotation-free flyer arm (13.1, 13.2); • carrying out an axial relative movement between the flyer axle and the winding spindle (8.1, 8.2); and • winding the spun thread on the winding tube (9.1, 9.2) beside the winding width of the package so as to form a thread reserve.
A prosthesis system having at least two sensors, having at least one control device, which is coupled to the sensors and processes sensor signals of the sensors, having at least one actuator, which is coupled to the control device and can be activated or deactivated on the basis of control signals of the control device, and having at least one movably mounted prosthesis component, which can be displaced by means of the actuator, characterized in that a standard program, which assigns an actuator action to each sensor independently of the duration and/or intensity of the sensor signal, is stored in the control device or can be called up thereby. having at least one control device, which is coupled to the sensors and processes sensor signals of the sensors, having at least one actuator, which is coupled to the control device and can be activated or deactivated on the basis of control signals of the control device, and having at least one movably mounted prosthesis component, which can be displaced by means of the actuator, characterized in that a standard program, which assigns an actuator action to each sensor independently of the duration and/or intensity of the sensor signal, is stored in the control device or can be called up thereby.
A connector, in particular a plug connector, for detachably connecting two lines along a connector axis having - a line, - a connecting mechanism, which has a sleeve and a dragging element, wherein the sleeve and the dragging element have a latching means, in such a manner that the sleeve is latched with the dragging element between the first and the second position and the latching is unlatched in the second position, and a holding element for holding a mating connector to be connected, which is designed as a spring with a spring cage with spring shackles, wherein the spring can be deformed in the radial direction, wherein the spring shackles of the spring cage are curved in the radial direction in such a manner that the spring shackles contact the dragging element on an external region of the spring shackles and contact a mating connector in a central region of the spring shackles, wherein the sleeve is displaceable over the dragging element, the holding element and over the line, wherein the dragging element and the sleeve in each case can be displaced between a first position and a second position along the connector axis and the sleeve is set up to move by means of an axial displacement of the sleeve between the first and the second position, in order to connect the connector to a mating connector or to release it from the latter. - a line, - a connecting mechanism, which has a sleeve and a dragging element, wherein the sleeve and the dragging element have a latching means, in such a manner that the sleeve is latched with the dragging element between the first and the second position and the latching is unlatched in the second position, and
A method for allocating ports among a plurality of cores (505A-505N) of a multi-core device to handle multi-port protocols, the method comprising: (a) allocating, by a device comprising a plurality of cores (505A-505N) and intermediary to a plurality of clients (102a-102n) and a plurality of servers (106a-106n), a predetermined range of port numbers of a port space to each core of the plurality of cores (505A-505N), the port space comprising a plurality of port numbers of the device; (b) receiving, by a core of the plurality of cores (505A-505N), a request from a client of the plurality of clients (102a-102n) to establish a session with a server via a multiple port protocol; (c) selecting, by the core, two ports available from the core's allocated predetermined range of port numbers; (d) establishing, by the core, a first listening service on a first port of the two ports and a second listening service on a second port of the two ports; and (e) transmitting, by the core, to the client a response identifying the first port and the second port of the device, said response being modified from a response from the server to replace port numbers in the response from the server with port numbers of the two ports selected by the core. (a) allocating, by a device comprising a plurality of cores (505A-505N) and intermediary to a plurality of clients (102a-102n) and a plurality of servers (106a-106n), a predetermined range of port numbers of a port space to each core of the plurality of cores (505A-505N), the port space comprising a plurality of port numbers of the device; (b) receiving, by a core of the plurality of cores (505A-505N), a request from a client of the plurality of clients (102a-102n) to establish a session with a server via a multiple port protocol; (c) selecting, by the core, two ports available from the core's allocated predetermined range of port numbers; (d) establishing, by the core, a first listening service on a first port of the two ports and a second listening service on a second port of the two ports; and (e) transmitting, by the core, to the client a response identifying the first port and the second port of the device, said response being modified from a response from the server to replace port numbers in the response from the server with port numbers of the two ports selected by the core.
An oral treatment system comprising: a mouthpiece comprising a wall and a bite platform extending from the wall that collectively define a first channel for receiving a user's teeth; an electromagnetic radiation source configured to emit electromagnetic radiation onto surfaces of the user's teeth that are positioned in the first channel; one or more apertures in at least one of the wall or the bite platform, the one or more apertures configured to dispense an oral treatment material to the first channel for contact with the surfaces of the user's teeth that are positioned in the first channel; a housing coupled to the mouthpiece; and a reservoir of the oral treatment material, the one or more apertures fluidly coupled to the reservoir; wherein the electromagnetic radiation source is coupled to the mouthpiece; and the reservoir is located within the housing; characterized in that the housing extends from the wall of the mouthpiece in a first direction, and the bite platform extends from the wall of the mouthpiece in a second direction that is opposite the first direction. a mouthpiece comprising a wall and a bite platform extending from the wall that collectively define a first channel for receiving a user's teeth; an electromagnetic radiation source configured to emit electromagnetic radiation onto surfaces of the user's teeth that are positioned in the first channel; one or more apertures in at least one of the wall or the bite platform, the one or more apertures configured to dispense an oral treatment material to the first channel for contact with the surfaces of the user's teeth that are positioned in the first channel; a housing coupled to the mouthpiece; and a reservoir of the oral treatment material, the one or more apertures fluidly coupled to the reservoir; wherein the electromagnetic radiation source is coupled to the mouthpiece; and the reservoir is located within the housing; characterized in that the housing extends from the wall of the mouthpiece in a first direction, and the bite platform extends from the wall of the mouthpiece in a second direction that is opposite the first direction.
Tool device, in particular hand-held tool device, for use in a surgical method, comprising a tool receptacle, an operating unit, a torque limitation unit, a torque transmission unit and a magazine unit, the torque limitation unit being arranged between the operating unit and the tool receptacle and comprising a plurality of torque limitation elements (16, 18, 20) which are configured to be destroyed when a given torque is exceeded, the magazine unit being configured to exert a propulsion force onto the torque limitation elements (16, 18, 20) for the purpose of introducing them individually into the torque transmission unit, and the torque transmission unit being configured to accommodate respectively one torque limitation element (16, 18, 20) and to destroy said torque limitation element (16, 18, 20) when the given torque is exceeded, characterised in that the torque limitation elements (16, 18, 20) are arranged on a rotary working axis of the tool receptacle.
A cooperative-control robot, comprising: a base component; a mobile platform arranged proximate said base component; a translation assembly operatively connected to said base component and said mobile platform and configured to move said mobile platform with translational degrees of freedom without rotation with respect to said base component; a tool assembly connected to said mobile platform; and a control system configured to communicate with said translation assembly to control motion of said mobile platform in response to forces by a user applied to at least a portion of said cooperative-control robot, wherein said translation assembly comprises at least three independently operable actuator arms (312, 314, 316), each connected to a separate position of said mobile platform, wherein said translation assembly further comprises at least three linear tracks (307a, 307b, 307c) arranged such that each of said at least three independently operable actuator arms (312, 314, 316) has an end that is constrained to move along a respective one of said at least three linear tracks (307a, 307b, 307c), and wherein, in response to said forces by said user, said control system causes said mobile platform and said tool assembly to move in a smooth manner characterized in that each of said at least three independently operable actuator arms (312, 314, 316) comprises a pair of interconnected structural members (324, 326), the pair of interconnected structural members being arranged to form a parallelogram shape such that the pair of interconnected structural members are parallel to each other. a base component; a mobile platform arranged proximate said base component; a translation assembly operatively connected to said base component and said mobile platform and configured to move said mobile platform with translational degrees of freedom without rotation with respect to said base component; a tool assembly connected to said mobile platform; and a control system configured to communicate with said translation assembly to control motion of said mobile platform in response to forces by a user applied to at least a portion of said cooperative-control robot, wherein said translation assembly comprises at least three independently operable actuator arms (312, 314, 316), each connected to a separate position of said mobile platform, wherein said translation assembly further comprises at least three linear tracks (307a, 307b, 307c) arranged such that each of said at least three independently operable actuator arms (312, 314, 316) has an end that is constrained to move along a respective one of said at least three linear tracks (307a, 307b, 307c), and wherein, in response to said forces by said user, said control system causes said mobile platform and said tool assembly to move in a smooth manner characterized in that each of said at least three independently operable actuator arms (312, 314, 316) comprises a pair of interconnected structural members (324, 326), the pair of interconnected structural members being arranged to form a parallelogram shape such that the pair of interconnected structural members are parallel to each other.