mhurhangee/patent-ind-claim-en huggingface dataset:
Wind turbine having a wind rotor , a generator , driven thereby, for generating electrical power and a connecting line for delivering the electrical power to a grid , further comprising an on-site power grid for supplying power to electrically operated components of the wind turbine, and an on-site power controller for controlling the voltage in the on-site power grid , the on-site power controller comprising a changeover apparatus designed to change over between a normal supply, which is connected to the connecting line , and a fault supply, characterized in that the fault supply supplies a reduced voltage in comparison with the normal supply, there being provision for a transformer for supplying power to the on-site power grid , the changeover apparatus having, in a dual configuration, an active switching element, which acts as a connecting member , and an inductance as a disconnecting member , which is embodied as a passive device, wherein in the normal mode the connecting member is switched off and power flows via the passive device, and wherein the fault mode is an overvoltage fault and the connecting member is switched on and the passive device is connected in parallel with the transformer .
A computer-implemented method of anticipatory cyber defense of a plurality of networked assets , the method comprising: receiving a plurality of cyber incident reports ; extracting keywords from the plurality of cyber incident reports; applying a shallow machine learning technique to at least the keywords and identifications of the plurality of networked assets to obtain an identification of a first subset of the networked assets vulnerable to at least a first threat scenario and an identification of the first threat scenario; applying a deep machine learning technique to at least the identification of the first subset of the networked assets vulnerable to the first threat scenario, the identification of the first threat scenario, the keywords, and identifications of the plurality of networked assets, to obtain an identification of a second subset of the networked assets vulnerable to at least a second threat scenario and an identification of the second threat scenario; simulating the plurality of networked assets and the second threat scenario to identify at least one path through the plurality of networked assets vulnerable to at least a third threat scenario; and outputting an identification of the at least one path through the plurality of networked assets and an identification of the at least a third threat scenario. receiving a plurality of cyber incident reports ; extracting keywords from the plurality of cyber incident reports; applying a shallow machine learning technique to at least the keywords and identifications of the plurality of networked assets to obtain an identification of a first subset of the networked assets vulnerable to at least a first threat scenario and an identification of the first threat scenario; applying a deep machine learning technique to at least the identification of the first subset of the networked assets vulnerable to the first threat scenario, the identification of the first threat scenario, the keywords, and identifications of the plurality of networked assets, to obtain an identification of a second subset of the networked assets vulnerable to at least a second threat scenario and an identification of the second threat scenario; simulating the plurality of networked assets and the second threat scenario to identify at least one path through the plurality of networked assets vulnerable to at least a third threat scenario; and outputting an identification of the at least one path through the plurality of networked assets and an identification of the at least a third threat scenario.
A film structure, comprising: a first film assembly , comprising a first film and a texture layer stacked on one another sequentially; and a second film assembly , stacked on the first film assembly and comprising a second film and a ribbon unit disposed on the second film , wherein the ribbon unit is located adjacent to the first film and comprises a first ribbon area , and an orthographic projection of the ribbon unit projected on a plane on which the texture layer is located falls in the texture layer ; characterized in that the texture layer has a first texture area and a second texture area , and a position of the first ribbon area corresponds to a position of the first texture area ; a plurality of first convex bars parallel to each other and a plurality of second convex bars parallel to each other are disposed in the first texture area , and a plurality of third convex bars parallel to each other are disposed in the second texture area ; and an extension line of the third convex bar along an extension direction of the third convex bar intersects with an extension line of the first convex bar along an extension direction of the first convex bar . a first film assembly , comprising a first film and a texture layer stacked on one another sequentially; and a second film assembly , stacked on the first film assembly and comprising a second film and a ribbon unit disposed on the second film , wherein the ribbon unit is located adjacent to the first film and comprises a first ribbon area , and an orthographic projection of the ribbon unit projected on a plane on which the texture layer is located falls in the texture layer ; characterized in that the texture layer has a first texture area and a second texture area , and a position of the first ribbon area corresponds to a position of the first texture area ; a plurality of first convex bars parallel to each other and a plurality of second convex bars parallel to each other are disposed in the first texture area , and a plurality of third convex bars parallel to each other are disposed in the second texture area ; and an extension line of the third convex bar along an extension direction of the third convex bar intersects with an extension line of the first convex bar along an extension direction of the first convex bar .
A vane (60; 60a; 60b; 160) for a compressor (44; 52) or turbine (46; 54) in a gas turbine engine , the vane (60; 60a; 60b; 160) comprising: an airfoil section defining an airfoil profile (AP), the airfoil section including a distinct panel (70; 170) forming a portion of the airfoil profile (AP); and a core skeleton (86; 186), characterised in that : the vane further comprises: an inner platform ; and an outer platform , wherein the airfoil section extends radially between the inner platform and the outer platform , wherein the distinct panel (70; 170) has a geometrically segmented coating section , the geometrically segmented coating section including a wall having an outer side , the outer side including an array of cells , and a coating disposed in the array of cells , wherein the distinct panel (70; 170) is attached with the core skeleton (86; 186), wherein the distinct panel (70; 170) is trapped between the inner platform and the outer platform . an airfoil section defining an airfoil profile (AP), the airfoil section including a distinct panel (70; 170) forming a portion of the airfoil profile (AP); and a core skeleton (86; 186), an inner platform ; and an outer platform , wherein the airfoil section extends radially between the inner platform and the outer platform , wherein the distinct panel (70; 170) has a geometrically segmented coating section , the geometrically segmented coating section including a wall having an outer side , the outer side including an array of cells , and a coating disposed in the array of cells , wherein the distinct panel (70; 170) is attached with the core skeleton (86; 186), wherein the distinct panel (70; 170) is trapped between the inner platform and the outer platform .
A swaging system for attaching surgical needles to sutures and testing the attachment strength comprising: a frame ; a bottom swaging die mounted on said frame ; a top swaging die mounted on said frame and being moveable up and down along a swaging axis (A 1 ) that is in alignment with said bottom swaging die; and characterized by said bottom swaging die comprising a hinge mechanism including a bottom plate mounted to said frame and a top plate overlying said bottom plate , wherein said top and bottom plates are pivotally connected to one another for enabling said top plate to pivot relative to said bottom plate , said bottom swaging die including a swaging tool mounted on said top plate that extends toward said top swaging die along the swaging axis (A 1 ), and a load cell disposed between said top and bottom plates for monitoring the load on said top plate ; wherein said swaging tool includes an upper end having a top surface comprising a swaging notch for swaging a needle to a suture to form an armed surgical needle, and a testing notch , adjacent said swaging notch , for conducting a pull test on said armed surgical needle and wherein the hinge mechanism is orthogonal to the swaging axis (A 1 ). a frame ; a bottom swaging die mounted on said frame ; a top swaging die mounted on said frame and being moveable up and down along a swaging axis (A 1 ) that is in alignment with said bottom swaging die; and characterized by said bottom swaging die comprising a hinge mechanism including a bottom plate mounted to said frame and a top plate overlying said bottom plate , wherein said top and bottom plates are pivotally connected to one another for enabling said top plate to pivot relative to said bottom plate , said bottom swaging die including a swaging tool mounted on said top plate that extends toward said top swaging die along the swaging axis (A 1 ), and a load cell disposed between said top and bottom plates for monitoring the load on said top plate ; wherein said swaging tool includes an upper end having a top surface comprising a swaging notch for swaging a needle to a suture to form an armed surgical needle, and a testing notch , adjacent said swaging notch , for conducting a pull test on said armed surgical needle and wherein the hinge mechanism is orthogonal to the swaging axis (A 1 ).
System (S) for representing vibrations for a vehicle (V), comprising a vehicle seat with an upper part and a lower part , which are mounted movably relative to each other by means of a vibration device , wherein at least one first sensor (S1), which is adapted to detect at least one first characteristic (x1, ..., x6) of a first acceleration (a1) of the upper part relative to the lower part , is arranged on the upper part , and wherein at least one second sensor (S2), which is adapted to detect at least one second parameter (y1, ..., y6) of a second acceleration (a2) of the lower part relative to a substrate (U) of the vehicle (V), is arranged on the lower part , characterized by a display device having a first section and a second section , each exhibiting a complete division into at least two, preferably three segments (3a, 3b, 3c; 4a, 4b, 4c), wherein the size ratios of the at least two segments (3a, 3b, 3c; 4a, 4b, 4c) to one another can be updated depending on a current value of the at least one first characteristic (x1, ..., x6) or the at least one second characteristic (y1, ..., y6).
A plug-in circuit breaker comprising a housing , an operating mechanism and a button mechanism, the button mechanism actuates said operating mechanism to perform the closing/opening operation, and has a closing position and a opening position corresponding to closing/opening states of the circuit breaker, wherein the circuit breaker further includes a locking member and a linkage member arranged inside said housing , said linkage member is provided with an abutting protruding stand , said locking member is provided with a locking protruding stand ; such that when said button mechanism is in the closing position, said abutting protruding stand of said linkage member extends out of said housing and is limited by said button mechanism at an extension position, so that it cannot retract into said housing; characterized in that when said button mechanism is in the opening position, said linkage member retracts into said housing , said locking protruding stand of said locking member extends out of said housing , and said locking protruding stand of said locking member can be pushed back into said housing under the action of an external force for retraction, wherein when said button mechanism is in the opening position, said locking protruding stand of said locking member retracts into said housing under the action of the external force for retraction, thus said locking member abuts and fits with said button mechanism to hinder said button mechanism from switching from the opening position to the closing position. such that when said button mechanism is in the closing position, said abutting protruding stand of said linkage member extends out of said housing and is limited by said button mechanism at an extension position, so that it cannot retract into said housing; characterized in that when said button mechanism is in the opening position, said linkage member retracts into said housing , said locking protruding stand of said locking member extends out of said housing , and said locking protruding stand of said locking member can be pushed back into said housing under the action of an external force for retraction, wherein when said button mechanism is in the opening position, said locking protruding stand of said locking member retracts into said housing under the action of the external force for retraction, thus said locking member abuts and fits with said button mechanism to hinder said button mechanism from switching from the opening position to the closing position.
A summing circuit comprising: a capacitor (C1) comprising first and second plates; a switching circuit (sw11, sw12, sw21, sw22, sw23, sw24) capable of connecting the capacitor (C1) according to a first, a second, or a third configuration, the first plate being connected to a first node (ana), the second plate being connected to a second node (ref) and the first and second plates not being connected to a third node (A), in the first configuration, the first plate being connected to the third node (A), the second plate being connected to the second node and the first and second plates not being connected to the first node in the second configuration and the second plate being connected to the third node (A), the first plate being connected to the second node and the first and second plates not being connected to the first node in the third configuration, the first and second plates not being connected together in the first, second and third configurations; an integrator comprising an operational amplifier (G1) having an input coupled to the third node; a hysteresis comparator coupled to the output of the integrator; and a counter coupled to the output of the hysteresis comparator. a capacitor (C1) comprising first and second plates; a switching circuit (sw11, sw12, sw21, sw22, sw23, sw24) capable of connecting the capacitor (C1) according to a first, a second, or a third configuration, the first plate being connected to a first node (ana), the second plate being connected to a second node (ref) and the first and second plates not being connected to a third node (A), in the first configuration, the first plate being connected to the third node (A), the second plate being connected to the second node and the first and second plates not being connected to the first node in the second configuration and the second plate being connected to the third node (A), the first plate being connected to the second node and the first and second plates not being connected to the first node in the third configuration, the first and second plates not being connected together in the first, second and third configurations; an integrator comprising an operational amplifier (G1) having an input coupled to the third node; a hysteresis comparator coupled to the output of the integrator; and a counter coupled to the output of the hysteresis comparator.
Diverter valve positioned in a supply pipe , said diverter valve comprising a body between a first end and a second end , said first end is substantially planar wherein an inlet opening is positioned, the inlet opening is of circular shape and comprises an axis of revolution positioned in parallel with the longitudinal axis of the diverter valve, the second end is substantially planar, the valve being characterised in that the second end comprises a spherical cap whereon are positioned at least two outlet openings, each outlet opening is of circular shape, said diverter valve comprises a movable plug contained in the body of the diverter valve , said movable plug comprises a rigid through-channel capable of making the inlet opening communicate selectively with one of the outlet openings.
A system for imaging biopsy samples obtained from a patient comprising: a radiation source operative to emit radiation rays and selectively adjustable between a first scanning position and a second scanning position; a radiation detector operative to receive the radiation rays and having a surface that defines a first imaging region , a second imaging region , and a third imaging region ; a collimator having a body having a static shape and defining an opening , the collimator being adapted to be coupled to the radiation source such that the collimator is disposed adjacent to the radiation source and then being selectively adjustable between a first imaging position and a second imaging position by rotating and/or translating the body in relation to the radiation source ; and wherein the position/orientation of the body in relation to the radiation detector in the first imaging position allows one or more of the radiation rays to pass from the radiation source , through the opening , and into the second imaging region while restricting the radiation rays via the body from passing into the first imaging region when the radiation source is in the first scanning position, and the position/orientation of the body in relation to the radiation detector in the second imaging position allows one or more of the radiation rays to pass from the radiation source , through the opening , and into the third imaging region while restricting the radiation rays via the body from passing into the first imaging region when the radiation source is in the second scanning position. a radiation detector operative to receive the radiation rays and having a surface that defines a first imaging region , a second imaging region , and a third imaging region ; a collimator having a body having a static shape and defining an opening , the collimator being adapted to be coupled to the radiation source such that the collimator is disposed adjacent to the radiation source and then being selectively adjustable between a first imaging position and a second imaging position by rotating and/or translating the body in relation to the radiation source ; and wherein the position/orientation of the body in relation to the radiation detector in the first imaging position allows one or more of the radiation rays to pass from the radiation source , through the opening , and into the second imaging region while restricting the radiation rays via the body from passing into the first imaging region when the radiation source is in the first scanning position, and the position/orientation of the body in relation to the radiation detector in the second imaging position allows one or more of the radiation rays to pass from the radiation source , through the opening , and into the third imaging region while restricting the radiation rays via the body from passing into the first imaging region when the radiation source is in the second scanning position.
A method for the selective pre-emergence and post-emergence control of undesirable vegetation in vineyards which comprises applying a herbicidally effective amount of halauxifen (4-amino-3-chloro-6-(4-chloro-2-fluoro-3-methoxyphenyl)pyridine-2-carboxylic acid) or 4-amino-3-chloro-5-fluoro-6-(4-chloro-2-fluoro-3-methoxyphenyl)-pyridine-2-carboxylic acid or an agriculturally acceptable ester or salt of either to the unwanted vegetation or the locus thereof, wherein the halauxifen herbicide is applied at a rate of 2.5 to 20 g ae/ha, or the 4-amino-3-chloro-5-fluoro-6-(4-chloro-2-fluoro-3-methoxyphenyl)pyridine-2-carboxylic acid or agriculturally acceptable ester or salt thereof is applied at a rate of 5 to 50 g ai/ha, wherein the undesirable vegetation includes chickweed (Stellaria media), pigweed ( Amaranthus spp.), common lambsquarters ( Chenopodium album ), hairy fleabane ( Conyza bonariensis ), horseweed ( Conyza canadensis ), coast fiddleneck ( Amsinckia intermedia ), Shepherd's purse ( Capsella bursa-pastoris ), rock purslane ( Calandrinia ciliata ), redstem filaree ( Erodium cicutarium ), wall barley ( Hordeum murinum ), morningglory ( Ipomoea spp), smallflower malva ( Malva parviflora ), California burclover ( Medicago polymorpha ) , witchgrass ( Panicum capillare ), quackgrass ( Agropyron repens ) or giant foxtail ( Setaria faberi ), wherein the herbicidally effective amount of halauxifen or 4-amino-3-chloro-5-fluoro-6-(4-chloro-2-fluoro-3-methoxyphenyl)pyridine-2-carboxylic acid or an agriculturally acceptable ester or salt of either, is applied in a dormant application when vines and perennial crops are dormant but winter annual weeds are actively growing (post-emergence to the weeds) or in a spring or summer application when both vines or perennial crops and weeds are actively growing (post-emergence to the weeds) or in a dormant application when vines and perennial crops are dormant but winter annual weeds have not germinated (pre-emergence to the weeds), wherein the herbicidally effective amount of halauxifen or 4-amino-3-chloro-5-fluoro-6-(4-chloro-2-fluoro-3-methoxyphenyl)pyridine-2-carboxylic acid or an agriculturally acceptable ester or salt of either is applied under the vines or perennial crops, with foliar exposure of the vines or perennial crops being avoided.