mhurhangee/ep-ind-claims huggingface dataset:
A locking device for a symmetric cylindrical body fixing a semi-finished product to a workstation, comprising: - an annular locking body with a plurality of movable engagement jaws, and which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws, - said cam mechanism comprising a rotatable jaw supporting ring, which is adapted to be rotated by means of a threaded actuation element, which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring, - said threaded actuation element comprising a central portion having a reduced cross-section which is adapted to accommodate the operation tab of the jaw supporting ring, characterized in that said operation tab is pivotable and extends from a cylindrical insert that is inserted so that it can pivot within a complementarily shaped seat formed in the rotatable jaw supporting ring, said operation tab being adapted to contact alternatively two opposite planar surfaces (42, 43) formed by corresponding shoulders of the threaded actuation element which face said central portion having a reduced cross-section. - an annular locking body with a plurality of movable engagement jaws, and which in turn comprises a base plate which supports a cam mechanism for moving in a radial direction said plurality of movable engagement jaws, - said cam mechanism comprising a rotatable jaw supporting ring, which is adapted to be rotated by means of a threaded actuation element, which is screwed into a corresponding hole in said base plate and is designed to act on an operation tab which extends from said rotatable jaw supporting ring, - said threaded actuation element comprising a central portion having a reduced cross-section which is adapted to accommodate the operation tab of the jaw supporting ring,
An adjustable fastening mechanism of a thermal evaporator for a light source shade, comprising a base having length-adjustable fastening components of the shade attachment, the base also having adjustable fastening components for changing the distance of a thermal evaporator dish from a light source, characterized in that the adjustable fastening components for changing the distance of the thermal evaporator dish from the light source are formed by at least two coulisses (7.1), each having a longitudinal groove (7.2) with a set of adjoining sloping grooves (7.3), and an adjustable dish holder (7.4) with at least two stones (7.5) fitting into the sloping grooves (7.3) between the coulisses (7.1).
A pallet-truck-compatible load elevator comprising: a vertical mast; a carriage coupled to the mast for a vertical motion of the carriage along the mast, said carriage having a front face for access by a pallet truck carrying a pallet; and a pair of retractable fork assemblies connected to the carriage; said fork assemblies being entirely housed beyond the front face of the carriage when in retracted position, such that access to said front face of the carriage is unobstructed to a pallet truck carrying a pallet, characterized in that each of said fork assemblies includes an outer fork coupled to a support (60, 62) attached to the carriage and an inner fork coupled to the outer fork, the outer fork being telescopically movable with respect to said support (60, 62) and the inner fork being telescopically movable with respect to said outer fork to provide telescopic horizontal extension and retraction of the fork assemblies. a vertical mast; a carriage coupled to the mast for a vertical motion of the carriage along the mast, said carriage having a front face for access by a pallet truck carrying a pallet; and a pair of retractable fork assemblies connected to the carriage; said fork assemblies being entirely housed beyond the front face of the carriage when in retracted position, such that access to said front face of the carriage is unobstructed to a pallet truck carrying a pallet, characterized in that each of said fork assemblies includes an outer fork coupled to a support (60, 62) attached to the carriage and an inner fork coupled to the outer fork, the outer fork being telescopically movable with respect to said support (60, 62) and the inner fork being telescopically movable with respect to said outer fork to provide telescopic horizontal extension and retraction of the fork assemblies.
A power generation system, comprising: a double-fed induction generator comprising a rotor and a stator coupled to a grid; a power converter comprising a rotor side converter coupled to the rotor of the generator, a grid side converter coupled to the grid, and a DC bus coupled between the rotor side converter and the grid side converter; and a controller comprising a rotor side controller for controlling the rotor side converter and a grid side controller for controlling the grid side converter, the rotor side controller comprising a compensator having a transfer function and configured to counter a negative resistance effect of the generator to suppress sub-synchronous oscillations, characterised in that the transfer function is expressed in a synchronous coordinate system as follows: K s + jω 0 = s + j ω 0 − ω r + σ 1 s + jω 0 + σ 2 wherein K represents the transfer function, s represents a Laplace operator, j represents an imaginary unit, ω 0 represents a synchronous frequency of the stator side of the generator, ω r represents a rotational speed of the rotor, and σ 1 and σ 2 represent damping parameters used to enhance an internal stability of the power generation system, and σ 1 and σ 2 are determined based on one or more of an original control capability of the controller, a control object parameter of the power generation system, an external disturbance, and a dynamic response requirement of the power generation system. a double-fed induction generator comprising a rotor and a stator coupled to a grid; a power converter comprising a rotor side converter coupled to the rotor of the generator, a grid side converter coupled to the grid, and a DC bus coupled between the rotor side converter and the grid side converter; and a controller comprising a rotor side controller for controlling the rotor side converter and a grid side controller for controlling the grid side converter, the rotor side controller comprising a compensator having a transfer function and configured to counter a negative resistance effect of the generator to suppress sub-synchronous oscillations, characterised in that the transfer function is expressed in a synchronous coordinate system as follows: K s + jω 0 = s + j ω 0 − ω r + σ 1 s + jω 0 + σ 2 wherein K represents the transfer function, s represents a Laplace operator, j represents an imaginary unit, ω 0 represents a synchronous frequency of the stator side of the generator, ω r represents a rotational speed of the rotor, and σ 1 and σ 2 represent damping parameters used to enhance an internal stability of the power generation system, and σ 1 and σ 2 are determined based on one or more of an original control capability of the controller, a control object parameter of the power generation system, an external disturbance, and a dynamic response requirement of the power generation system.
A halogen-free composite-base CEM-3 copper clad laminate consisting of copper foil, surface material and core material, characterized in that the surface material and the core material comprise filler compositions, consisting of organic and inorganic fillers, and curing agents, wherein the surface material comprises the following components: epoxy resin 60∼120 weight parts curing agent 2.0∼6.0 weight parts curing promoter 0.01∼1.0 weight parts filler composition for the surface material 20∼100 weight parts, and the core material comprises the following components according to the weight parts: epoxy resin 60∼120 weight parts curing agent 2.0∼6.0 weight parts curing promoter 0.01∼1.0 weight parts filler composition for the core material 50∼200 weight parts, wherein the filler composition for the surface material comprises: aluminium hydroxide 20-50 weight parts melamine cyanurate 5∼40 weight parts boehmite 0∼30 weight parts barium sulfate 0∼30 weight parts, and the contents of the boehmite and barium sulfate are not 0 at the same time; and wherein the filler composition for the core material comprises: aluminium hydroxide 20-50 weight parts melamine cyanurate 5∼50 weight parts boehmite 0∼40 weight parts barium sulfate 0∼40 weight parts talc powder 0∼40 weight parts silicon dioxide 0∼40 weight parts, and the contents of the boehmite, barium sulfate, talc powder and the silicon dioxide are not 0 at the same time, and wherein each of the curing agents for the surface material and the core material independently comprises dicyandiamide and diamino diphenyl sulfone.
A system (30, 30') for mapping one or more characteristics of a body of a harvested crop stored in a storage space, the system comprising: A controller; a first device assembly (34, 34') providing an input to the controller; and a second device assembly providing an input to the controller, wherein the controller is configured to determine one or more characteristics of each of a plurality of portions of the body of the harvested crop, such as dry matter content, moisture content, level of contamination, and/or one or more nutrient values, prior to the deposition of each of said portions in the storage space, based on at least the input from the first device assembly (34, 34'), wherein the controller is configured to determine a location at which each of said portions is deposited in the storage space based on at least the input from the second device assembly, characterised in that the controller is configured to store the determined one or more characteristics and the determined location of each of said portions in a database, and in that the system is further configured to produce an output indicative of a location at which one or more of said portions is to be deposited in the storage space based on the determined one or more characteristics of said one or more portions. A controller; a first device assembly (34, 34') providing an input to the controller; and a second device assembly providing an input to the controller, wherein the controller is configured to determine one or more characteristics of each of a plurality of portions of the body of the harvested crop, such as dry matter content, moisture content, level of contamination, and/or one or more nutrient values, prior to the deposition of each of said portions in the storage space, based on at least the input from the first device assembly (34, 34'), wherein the controller is configured to determine a location at which each of said portions is deposited in the storage space based on at least the input from the second device assembly, characterised in that the controller is configured to store the determined one or more characteristics and the determined location of each of said portions in a database, and in that the system is further configured to produce an output indicative of a location at which one or more of said portions is to be deposited in the storage space based on the determined one or more characteristics of said one or more portions.
An image forming apparatus comprising: a communication interface configured to transmit data to and receive data from a cloud server that provides a cloud service; and a processor configured to: receive a token from the cloud server via the communication interface, the token being an access token for accessing user information of a user; transmit a request including the access token to the cloud server via the communication interface; receive a response including the user information of the user corresponding to the access token from the cloud server via the communication interface; and shift to a login state based on the user information, the login state being a state in which the user is logged in to the cloud service. a communication interface configured to transmit data to and receive data from a cloud server that provides a cloud service; and a processor configured to: receive a token from the cloud server via the communication interface, the token being an access token for accessing user information of a user; transmit a request including the access token to the cloud server via the communication interface; receive a response including the user information of the user corresponding to the access token from the cloud server via the communication interface; and shift to a login state based on the user information, the login state being a state in which the user is logged in to the cloud service. receive a token from the cloud server via the communication interface, the token being an access token for accessing user information of a user; transmit a request including the access token to the cloud server via the communication interface; receive a response including the user information of the user corresponding to the access token from the cloud server via the communication interface; and shift to a login state based on the user information, the login state being a state in which the user is logged in to the cloud service.
A source node configured to establish independent network paths (P1, P2) for a network layer, layer 3, through a communication system, said communication system comprising at least a first network and a second network being layer 3 networks, wherein the source node: - comprises a first interface connecting to a first router node and to a second router node over the first network, wherein the first and second router nodes are layer 3 router nodes, and the first network and the first interface are associated with a path identifier for a first network path, - comprises a second interface connecting to the first router node and the second router node over the second network, wherein the second network and the second interface are associated with a path identifier for a second network path, and wherein the first and second networks (A, B) are mutually independent layer 3 networks, being disjoint and operated in parallel, - is configured to select which of the first and the second router nodes (2a, 2b) should be used for sending data to a destination node via the first network path and which of the first and second router nodes (2a, 2b) should be used for sending data to the destination node via the second network path, wherein the source node is configured to select different router nodes (2a, 2b) for the first and second network paths (P1, P2). - comprises a first interface connecting to a first router node and to a second router node over the first network, wherein the first and second router nodes are layer 3 router nodes, and the first network and the first interface are associated with a path identifier for a first network path, - comprises a second interface connecting to the first router node and the second router node over the second network, wherein the second network and the second interface are associated with a path identifier for a second network path, and wherein the first and second networks (A, B) are mutually independent layer 3 networks, being disjoint and operated in parallel, - is configured to select which of the first and the second router nodes (2a, 2b) should be used for sending data to a destination node via the first network path and which of the first and second router nodes (2a, 2b) should be used for sending data to the destination node via the second network path, wherein the source node is configured to select different router nodes (2a, 2b) for the first and second network paths (P1, P2).
A method for producing a cathode active material for a lithium ion battery, the active material being represented by the following compositional formula: Li x Ni 1-y M y O 2+α; wherein M represents Mn and Co, 0.9 ≤ x ≤ 1.2, and 0 < y ≤ 0.7, and α > 0.1); the method comprising the steps of: preparing a lithium-containing metal nitrate solution slurry containing lithium carbonate and nitrates of Ni, Mn and Co, wherein the molar ratio of Ni in the solution is 0.3 or more and wherein the molar ratio of Ni is larger than that of Mn in metals contained in the metal nitrate solution; spray-drying using a micro-mist drier the lithium-containing metal nitrate solution slurry to obtain a powder of a lithium-containing metal nitrate complex; and calcining the powder. preparing a lithium-containing metal nitrate solution slurry containing lithium carbonate and nitrates of Ni, Mn and Co, wherein the molar ratio of Ni in the solution is 0.3 or more and wherein the molar ratio of Ni is larger than that of Mn in metals contained in the metal nitrate solution; spray-drying using a micro-mist drier the lithium-containing metal nitrate solution slurry to obtain a powder of a lithium-containing metal nitrate complex; and calcining the powder.
AUTOMATIC INJECTION APPLICATOR comprising a housing with an external surface provided with activating buttons, a proximal end with a handle area, an internal chamber in the intermediate region of the housing and a fixed head placed at the distal end of the housing having a needle covered by a suction chamber provided with a front opening with a silicone head provided with an opening through which it is transfixed the needle end, said suction chamber being surrounded by a sleeve on which there is a third motor, responsible for vibrating said sleeve, actuated concurrently with the linear motor (ML 1), to consequently make the suction chamber vibrate, said suction chamber provided with a pipe connecting to a suction pump, wherein said applicator further comprises an electronic module that activates a first linear motor (ML 1) which axially displaces an arm of the proximal end to the fixed head placed at the distal end of the housing, said arm which compresses a cartridge fitted in the chamber formed between the head and the free end of the arm; and a second linear motor triggered at a time interval after the first linear motor (ML 1), interval time which is sufficient for the action of the vibration and the drug for pain relief, and said second linear motor which recedes an arm with a dragger which slides axially the suction chamber toward the intermediate portion of the housing and contiguous to the outer surface of the inner chamber.
A computer-implemented method of providing a neural network for predicting a three-dimensional shape of an interventional device disposed within a vascular region, the method comprising: receiving volumetric image data representing a three-dimensional shape of the vascular region; receiving X-ray image data representing one or more two-dimensional projections of the interventional device within the vascular region; receiving ground truth interventional device shape data representing a three-dimensional shape of the interventional device within the vascular region corresponding to the one or more two-dimensional projections of the interventional device; and training a neural network to predict, from the received X-ray image data and the received volumetric image data, a three-dimensional shape of the interventional device constrained by the vascular region, by: inputting the received X-ray image data and the received volumetric image data into the neural network, and adjusting parameters of the neural network based on a first loss function representing a difference between a three-dimensional shape of the interventional device predicted by the neural network, and the received ground truth interventional device shape data, and constraining the adjusting such that the three-dimensional shape of the interventional device predicted by the neural network fits within the three-dimensional shape of the vascular region represented by the received volumetric image data. receiving volumetric image data representing a three-dimensional shape of the vascular region; receiving X-ray image data representing one or more two-dimensional projections of the interventional device within the vascular region; receiving ground truth interventional device shape data representing a three-dimensional shape of the interventional device within the vascular region corresponding to the one or more two-dimensional projections of the interventional device; and training a neural network to predict, from the received X-ray image data and the received volumetric image data, a three-dimensional shape of the interventional device constrained by the vascular region, by: inputting the received X-ray image data and the received volumetric image data into the neural network, and adjusting parameters of the neural network based on a first loss function representing a difference between a three-dimensional shape of the interventional device predicted by the neural network, and the received ground truth interventional device shape data, and constraining the adjusting such that the three-dimensional shape of the interventional device predicted by the neural network fits within the three-dimensional shape of the vascular region represented by the received volumetric image data.
A femoral augment system comprising: a first augment comprising a proximal body, a medial leg extending distally from said proximal body, and a lateral leg extending distally from said proximal body and spaced from said medial leg to define a recess between said medial and lateral legs, said proximal body defining a tapered outer surface; and a second augment, characterised in that said second augment has a tapered outer surface extending longitudinally from a proximal end surface to a distal end surface, wherein said tapered outer surfaces of said first and second augments are complementary to one another, such that said first and second augments are assemblable to one another to form a substantially continuous tapered surface. a first augment comprising a proximal body, a medial leg extending distally from said proximal body, and a lateral leg extending distally from said proximal body and spaced from said medial leg to define a recess between said medial and lateral legs, said proximal body defining a tapered outer surface; and a second augment, characterised in that said second augment has a tapered outer surface extending longitudinally from a proximal end surface to a distal end surface,
A method for extracting nucleic acid from a biological sample, comprising steps of: (i) mixing the biological sample, lithium dodecyl sulfate and a chaotropic compound to obtain a lysate; (ii) mixing the lysate, 1-propanol, a chaotropic compound and silica particles to adsorb the nucleic acid on the silica particles; (iii) washing the silica particles having the nucleic acid adsorbed thereon with a washing liquid; and (iv) eluting the nucleic acid adsorbed on the silica particles with an eluent, wherein at least steps (i) and (ii) are performed at a temperature higher than 75°C. (i) mixing the biological sample, lithium dodecyl sulfate and a chaotropic compound to obtain a lysate; (ii) mixing the lysate, 1-propanol, a chaotropic compound and silica particles to adsorb the nucleic acid on the silica particles; (iii) washing the silica particles having the nucleic acid adsorbed thereon with a washing liquid; and (iv) eluting the nucleic acid adsorbed on the silica particles with an eluent,
A temperature controller (100, 200, 300) comprising a temperature regulator and temperature sensing means (102, 202, 302), the temperature regulator being an adjustable regulator for setting a predetermined temperature value, the temperature regulator being adapted to regulate the temperature at a location towards a target temperature value taking into account the value of the temperature sensed by the temperature sensing means (102, 202, 302), the temperature controller comprising further sensing means (103, 203, 303) for detecting gas comprising at least one of a carbon dioxide sensor, and/or a VOC sensor, characterized in that the temperature regulator is further adapted to tune the predetermined temperature value to the target temperature value in accordance with the output of the further sensing means (103, 203, 303) for detecting gas.