mhurhangee/ep-ind-claims huggingface dataset:
A machine tool comprising: a main spindle that is adapted to rotate while holding a workpiece; a moving device (111, 112, 113) that is adapted to move a cutting tool (T, T1) with respect to the workpiece in a moving direction (P1; P2) including at least a component in a Z-direction parallel with an axis of the main spindle or a component in a Y-direction perpendicular to both the Z-direction and an X-direction, the X-direction being perpendicular to the Z-direction and determining the amount of cutting in a radial direction of the workpiece, the cutting tool (T; T1) comprising a linear cutting blade (Th) that is provided to cut the workpiece; wherein the cutting tool (T;T1) is held by a holder of the machine tool in a state in which a direction of the linear cutting blade (Th) is parallel with a YZ plane and is inclined with respect to the Z-direction by a predetermined angle (α, β) when seen from the X-direction, wherein the machine tool is further comprising an angle adjustment mechanism (29; 129; 229) that can change the predetermined angle (α, β), characterized in that the moving direction (P1; P2) is a direction obtained by combining a component in the Z-direction and a component in the Y-direction. a main spindle that is adapted to rotate while holding a workpiece; a moving device (111, 112, 113) that is adapted to move a cutting tool (T, T1) with respect to the workpiece in a moving direction (P1; P2) including at least a component in a Z-direction parallel with an axis of the main spindle or a component in a Y-direction perpendicular to both the Z-direction and an X-direction, the X-direction being perpendicular to the Z-direction and determining the amount of cutting in a radial direction of the workpiece, the cutting tool (T; T1) comprising a linear cutting blade (Th) that is provided to cut the workpiece; wherein the cutting tool (T;T1) is held by a holder of the machine tool in a state in which a direction of the linear cutting blade (Th) is parallel with a YZ plane and is inclined with respect to the Z-direction by a predetermined angle (α, β) when seen from the X-direction, wherein the machine tool is further comprising an angle adjustment mechanism (29; 129; 229) that can change the predetermined angle (α, β), characterized in that the moving direction (P1; P2) is a direction obtained by combining a component in the Z-direction and a component in the Y-direction.
A fluid pressure cylinder (10a; 10b; 10f), comprising: a cylinder main body having an inner surface forming a cylinder hole in which a plurality of pistons (15a, 15b) provided with piston rods (17a, 17b) is incorporated, the pistons being axially aligned with each other, and reciprocable in an axial direction; and a partition wall which is disposed inside the cylinder hole of the cylinder main body so as to form pressure chambers (21a, 21b; 22a, 22b) to which fluid is supplied, between the partition wall and the pistons, wherein the partition wall has an outer peripheral surface facing the inner surface of the cylinder main body, the outer peripheral surface being provided with an annular engagement groove, a stopper space which is formed by the annular engagement groove and a slit formed in the cylinder main body, the slit extending in a transverse direction of the cylinder main body between front and rear side surfaces (11c, 11d) of the cylinder main body so as to entirely surround the outside of the engagement groove, the slit penetrating through the cylinder main bodv to open to the outside at said front and rear side surfaces (11c, 11d); and a stopper (34; 34d) which is inserted in the stopper space via the slit so as to fix the partition wall to the cylinder main body, wherein a width of the slit measured in a direction approximately orthogonal to the penetrating direction of the slit through the cylinder main body is larger than an inner diameter of the cylinder hole. a cylinder main body having an inner surface forming a cylinder hole in which a plurality of pistons (15a, 15b) provided with piston rods (17a, 17b) is incorporated, the pistons being axially aligned with each other, and reciprocable in an axial direction; and a partition wall which is disposed inside the cylinder hole of the cylinder main body so as to form pressure chambers (21a, 21b; 22a, 22b) to which fluid is supplied, between the partition wall and the pistons, wherein the partition wall has an outer peripheral surface facing the inner surface of the cylinder main body, the outer peripheral surface being provided with an annular engagement groove, a stopper space which is formed by the annular engagement groove and a slit formed in the cylinder main body, the slit extending in a transverse direction of the cylinder main body between front and rear side surfaces (11c, 11d) of the cylinder main body so as to entirely surround the outside of the engagement groove, the slit penetrating through the cylinder main bodv to open to the outside at said front and rear side surfaces (11c, 11d); and a stopper (34; 34d) which is inserted in the stopper space via the slit so as to fix the partition wall to the cylinder main body,
A wind turbine blade lifting device having a length, a width and a height, where said lifting device is suitable for lifting and handling a wind turbine blade or a part of a wind turbine blade, also having a length, a width and a height, where the lifting device comprises a chassis, where said chassis comprises at least a set of connection means for coupling to a lifting apparatus, and where said chassis further comprises means for engaging the wind turbine blade or the part of a wind turbine blade, wherein said chassis comprises a top structure at which said set of connection means is provided as there are provided four connection means, which are situated - one at each corner -, and that said lifting device further comprises gravity-adjusting means for adjusting the point of gravity of at least the lifting device by at least one of the following parameters: - adjusting the position of at least one weight element in the length direction of the chassis; - adjusting the position of at least one weight element in the width direction of the chassis. - adjusting the position of at least one weight element in the length direction of the chassis; - adjusting the position of at least one weight element in the width direction of the chassis.
A vehicle lighting safety device comprising: at least one left turn signal input, at least one right turn signal input and at least one hazard input, the at least one hazard input (306; 408: 410) being communicatively couplable to an existing driver accessible hazard light switch (501; 701; 901; 1105; 1301; 1506) inside the vehicle, the at least one left turn signal input and the at least one right turn signal input being couplable with a turn signal stalk; a microcontroller communicatively coupled to the at least one left turn signal input, at least one right turn signal input and at least one hazard input and operable to receive an activation voltage signal over the least one hazard input, the activation voltage signal indicating activation of the driver accessible hazard light switch to activate power to hazard lights; and an output communicatively coupled to the microcontroller and capable of driving a plurality of existing vehicle mounted light emitting diodes (102, 106, 108, 112), at least some of which are selectively operative as turn signal lights based upon manipulation of the signal light stalk mounted to a vehicle steering column; wherein the microcontroller is operable to generate a signal to drive the plurality of existing vehicle mounted light emitting diodes in a strobing manner having a repeating flash pattern comprising a portion having a cycle rate that is perceptibly faster than a turn signal light cycle rate in response to receiving the activation voltage signal on the at least one hazard input. at least one left turn signal input, at least one right turn signal input and at least one hazard input, the at least one hazard input (306; 408: 410) being communicatively couplable to an existing driver accessible hazard light switch (501; 701; 901; 1105; 1301; 1506) inside the vehicle, the at least one left turn signal input and the at least one right turn signal input being couplable with a turn signal stalk; a microcontroller communicatively coupled to the at least one left turn signal input, at least one right turn signal input and at least one hazard input and operable to receive an activation voltage signal over the least one hazard input, the activation voltage signal indicating activation of the driver accessible hazard light switch to activate power to hazard lights; and an output communicatively coupled to the microcontroller and capable of driving a plurality of existing vehicle mounted light emitting diodes (102, 106, 108, 112), at least some of which are selectively operative as turn signal lights based upon manipulation of the signal light stalk mounted to a vehicle steering column; wherein the microcontroller is operable to generate a signal to drive the plurality of existing vehicle mounted light emitting diodes in a strobing manner having a repeating flash pattern comprising a portion having a cycle rate that is perceptibly faster than a turn signal light cycle rate in response to receiving the activation voltage signal on the at least one hazard input.
An electrical connector comprising: a housing including a latch that is configured to secure a mating connector to the electrical connector; and a connector position assurance element mounted to the housing, the CPA element including a base and an arm extending from the base, the CPA element translatable relative to the housing between a pre-lock position and a lock position, wherein, as the CPA element is moved from the pre-lock position towards the lock position prior to the latch securing the mating connector, the arm of the CPA element engages the latch and deflects the latch away from a resting position with an increasing amount of deflection until the base of the CPA element abuts against a landing pad of the housing to block further movement of the CPA element towards the lock position. a housing including a latch that is configured to secure a mating connector to the electrical connector; and a connector position assurance element mounted to the housing, the CPA element including a base and an arm extending from the base, the CPA element translatable relative to the housing between a pre-lock position and a lock position, wherein, as the CPA element is moved from the pre-lock position towards the lock position prior to the latch securing the mating connector, the arm of the CPA element engages the latch and deflects the latch away from a resting position with an increasing amount of deflection until the base of the CPA element abuts against a landing pad of the housing to block further movement of the CPA element towards the lock position.
A surgical robotic system comprising: a surgical robot arm (7, 8, 9) having at least six degrees of freedom, the arm having a distal end for attachment to a surgical tool and a proximal end; and a mounting structure (10, 11, 12, 13, 14, 15) configured to be embedded within an item of operating theatre furniture (2, 17) or configured to be embedded within the floor, wall or ceiling of an operating theatre and configured to mate to the proximal end of the arm for holding the proximal end of the arm spatially fixed, the mounting structure comprising an electrical connection for powering the robot arm; wherein the system comprises a manually operable latching mechanism whereby the arm can be attached to and released from the mounting structure. a surgical robot arm (7, 8, 9) having at least six degrees of freedom, the arm having a distal end for attachment to a surgical tool and a proximal end; and a mounting structure (10, 11, 12, 13, 14, 15) configured to be embedded within an item of operating theatre furniture (2, 17) or configured to be embedded within the floor, wall or ceiling of an operating theatre and configured to mate to the proximal end of the arm for holding the proximal end of the arm spatially fixed, the mounting structure comprising an electrical connection for powering the robot arm; wherein the system comprises a manually operable latching mechanism whereby the arm can be attached to and released from the mounting structure.
A heat exchange system including an outdoor unit and an air conditioner indoor unit, comprising: an outdoor unit heat exchange assembly comprising a coolant heat radiation module and fins; a first circulation pipeline comprising an output pipe, a connecting pipe and a return pipe, wherein the output pipe communicates with an air conditioner indoor unit and the coolant heat radiation module, the connecting pipe communicates with the coolant heat radiation module and the fins, and the return pipe communicates with the fins and the air conditioner indoor unit; a control valve assembly (61, 62) connected with the output pipe and controlling an opened-closed state of the first circulation pipeline; a heating pipeline communicating with the output pipe and the fins, and further connected with the control valve assembly (61, 62), wherein the control valve assembly (61, 62) controls an opened-closed state of the heating pipeline; and a heating assembly connected with the heating pipeline and configured to heat a coolant in the heating pipeline before entering the fins, wherein in the heating process, the first circulation pipeline is opened through, and in the defrosting process, the first circulation pipeline and the heating pipeline are both opened through, and the heating assembly is started. an outdoor unit heat exchange assembly comprising a coolant heat radiation module and fins; a first circulation pipeline comprising an output pipe, a connecting pipe and a return pipe, wherein the output pipe communicates with an air conditioner indoor unit and the coolant heat radiation module, the connecting pipe communicates with the coolant heat radiation module and the fins, and the return pipe communicates with the fins and the air conditioner indoor unit; a control valve assembly (61, 62) connected with the output pipe and controlling an opened-closed state of the first circulation pipeline; a heating pipeline communicating with the output pipe and the fins, and further connected with the control valve assembly (61, 62), wherein the control valve assembly (61, 62) controls an opened-closed state of the heating pipeline; and a heating assembly connected with the heating pipeline and configured to heat a coolant in the heating pipeline before entering the fins, wherein in the heating process, the first circulation pipeline is opened through, and in the defrosting process, the first circulation pipeline and the heating pipeline are both opened through, and the heating assembly is started.
A rotary joint comprising: - a tubular case body having a first flow passage formed therein so as to be opened at an inner peripheral side thereof; - a shaft body provided within the case body so as to be rotatable relative to the case body and having a second flow passage formed therein so as to be opened at an outer peripheral side thereof; and - a mechanical seal provided in an annular space formed between the case body and the shaft body, the mechanical seal defining the annular space to form a flow passage (155, 128) connecting the first flow passage to the second flow passage, - wherein the mechanical seal includes: a first sealing ring attached to the case body and having an annular first seal surface at one side in an axial direction; a second sealing ring attached to the shaft body and having an annular second seal surface which slidably contacts with the first seal surface; and a plurality of elastic members provided along the first sealing ring in a circumferential direction and configured to apply axial forces to the first sealing ring to press the first seal surface against the second seal surface, and characterized in that the plurality of elastic members are divided into a plurality of groups each composed of a predetermined number of the elastic members aligned continuously in the circumferential direction, and first regions in each of which occurring distortion is increased by the axial forces of the elastic members that belong to the group and second regions in each of which distortion is smaller than that in each first region are present alternately along the circumferential direction in the first sealing ring. - a tubular case body having a first flow passage formed therein so as to be opened at an inner peripheral side thereof; - a shaft body provided within the case body so as to be rotatable relative to the case body and having a second flow passage formed therein so as to be opened at an outer peripheral side thereof; and - a mechanical seal provided in an annular space formed between the case body and the shaft body, the mechanical seal defining the annular space to form a flow passage (155, 128) connecting the first flow passage to the second flow passage, - wherein the mechanical seal includes: a first sealing ring attached to the case body and having an annular first seal surface at one side in an axial direction; a second sealing ring attached to the shaft body and having an annular second seal surface which slidably contacts with the first seal surface; and a plurality of elastic members provided along the first sealing ring in a circumferential direction and configured to apply axial forces to the first sealing ring to press the first seal surface against the second seal surface, and
An effluent processing apparatus (200, 200a,..., 200j) comprising: a separator device (206, 1106) arranged to receive an effluent mixture containing air, oil; and water to separate oil and water from the effluent mixture and thereby to provide clean air; an air outlet through which clean air from the separator device is exhausted to atmosphere; characterized by a member (210, 310, 510, 710, 810, 910, 1010, 1110) for selectively allowing either only oil or only water of the separated oil and water from the separator device (206, 1106) to pass from a first side of the member through openings in the member to a second side of the member; a sump (212, 312, 412, 512, 612,712, 812, 912, 1012, 1112) arranged to (i) receive and retain the oil on the first side of the member (210, 510, 710) if only water passes from the first side to the second side, and (ii) receive and retain the oil on the second side of the member (210, 510, 710) if only oil passes from the first side to the second side; and a water outlet (214, 314, 414, 514, 614, 714, 814, 914) through which water is drained to atmosphere. a separator device (206, 1106) arranged to receive an effluent mixture containing air, oil; and water to separate oil and water from the effluent mixture and thereby to provide clean air; an air outlet through which clean air from the separator device is exhausted to atmosphere; characterized by a member (210, 310, 510, 710, 810, 910, 1010, 1110) for selectively allowing either only oil or only water of the separated oil and water from the separator device (206, 1106) to pass from a first side of the member through openings in the member to a second side of the member; a sump (212, 312, 412, 512, 612,712, 812, 912, 1012, 1112) arranged to (i) receive and retain the oil on the first side of the member (210, 510, 710) if only water passes from the first side to the second side, and (ii) receive and retain the oil on the second side of the member (210, 510, 710) if only oil passes from the first side to the second side; and a water outlet (214, 314, 414, 514, 614, 714, 814, 914) through which water is drained to atmosphere.
A method for processing data in a data processing system, the method including: receiving input data by the data processing system, the input data provided by an application executing on the data processing system; determining a characteristic of the input data; identifying, by the application, a dynamic component from multiple available dynamic components based on the determined characteristic, the multiple available dynamic components being stored in a data storage system; dynamically loading the identified dynamic component into the application and processing the input data using the identified dynamic component; determining one or more performance metrics associated with the processing of the input data using the identified dynamic component loaded into the application; and characterised in that the method further comprises: based on an identifier of the identified dynamic component, aggregating the one or more performance metrics of the processing of the input data using the identified dynamic component loaded into the application with performance metrics of other executions of the identified dynamic component loaded into one or more other applications. receiving input data by the data processing system, the input data provided by an application executing on the data processing system; determining a characteristic of the input data; identifying, by the application, a dynamic component from multiple available dynamic components based on the determined characteristic, the multiple available dynamic components being stored in a data storage system; dynamically loading the identified dynamic component into the application and processing the input data using the identified dynamic component; determining one or more performance metrics associated with the processing of the input data using the identified dynamic component loaded into the application; and characterised in that the method further comprises: based on an identifier of the identified dynamic component, aggregating the one or more performance metrics of the processing of the input data using the identified dynamic component loaded into the application with performance metrics of other executions of the identified dynamic component loaded into one or more other applications.
A conductive thermoplastic resin composition, comprising: (a) 20% by weight to 80% by weight of a poly(arylene ether); (b) 80% by weight to 20% by weight of a polyamide; (c) a compatibilizing agent for components (a) and (b); (d) a conductivity-imparting agent for the resin composition; and (e) 1% to 50% by weight clay, based on the weight of the entire composition, wherein the clay of component (e) comprises plate-like laminates.. (a) 20% by weight to 80% by weight of a poly(arylene ether); (b) 80% by weight to 20% by weight of a polyamide; (c) a compatibilizing agent for components (a) and (b); (d) a conductivity-imparting agent for the resin composition; and (e) 1% to 50% by weight clay, based on the weight of the entire composition, wherein the clay of component (e) comprises plate-like laminates..
Method for discharging a high-voltage vehicle electrical distribution system, which comprises at least one energy store and a plurality of high-voltage consumers, wherein the energy store is electrically isolated from the rest of the vehicle electrical distribution system and at least one of the high-voltage consumers is switched on in order to reduce the charge stored in the vehicle electrical distribution system, characterized in that the high-voltage consumers comprise a DC-to-DC converter.