mhurhangee/patent-ind-claim-en huggingface dataset:
A method for improved rendering of animal products, the method comprising: grinding and pre-breaking fat and a whole animal in a grinder and a pre-breaker machine, the pre-breaker machine configured to break up the fat and the whole animal and the grinder configured to form ground materials; transporting and heating the ground materials in one or more steam-jacketed tubes to create a slurry, as the ground materials liquefy; supplying pressure to the slurry through a progressive cavity pump to move the slurry through one or more steam-jacketed tubes without further mechanical action; pressing the slurry to separate protein from oil and water; applying pressure to protein that has been separated from oil and water via a protein press, thereby forming further broken-down protein, wherein the progressive cavity pump pushes approximately 3630 kg (8,000 pounds) of the ground materials per hour, wherein the progressive cavity pump utilizes a motor having approximately 0.93 kW (1.25 horsepower), and wherein a residual liquid is removed from the protein. grinding and pre-breaking fat and a whole animal in a grinder and a pre-breaker machine, the pre-breaker machine configured to break up the fat and the whole animal and the grinder configured to form ground materials; transporting and heating the ground materials in one or more steam-jacketed tubes to create a slurry, as the ground materials liquefy; supplying pressure to the slurry through a progressive cavity pump to move the slurry through one or more steam-jacketed tubes without further mechanical action; pressing the slurry to separate protein from oil and water; applying pressure to protein that has been separated from oil and water via a protein press, thereby forming further broken-down protein, wherein the progressive cavity pump pushes approximately 3630 kg (8,000 pounds) of the ground materials per hour, wherein the progressive cavity pump utilizes a motor having approximately 0.93 kW (1.25 horsepower), and wherein the progressive cavity pump pushes approximately 3630 kg (8,000 pounds) of the ground materials per hour, wherein the progressive cavity pump utilizes a motor having approximately 0.93 kW (1.25 horsepower), and wherein a residual liquid is removed from the protein.
A resin plating method comprising an etching step in which an article comprising a resin material is used as an object to be treated and is subjected to etching using an acidic etching bath containing manganese; a catalyst application step using palladium as a catalyst metal; and an electroless plating step, the method further comprising a step of maintaining the palladium concentration in the acidic etching bath at 100 mg/L or less, wherein the etching step, the catalyst application step, and the electroless plating step are performed repeatedly, wherein the step of maintaining the palladium concentration in the acidic etching bath at 100 mg/L or less is performed by two or more methods selected from the group consisting of: a method for removing palladium adsorbed on a jig; a method for reducing the palladium concentration in the etching bath by cathodic electrolysis; and a method for reducing the palladium concentration by iodide addition to the etching bath, the method for removing palladium adsorbed on a jig is a method of immersing a jig in a palladium-removing treatment solution comprising an aqueous solution containing at least one compound selected from the group consisting of nitric acid, persulfates, hydrogen peroxide, and compounds having a stability constant with palladium of 2.0 or more selected from the group consisting of ethylenediamine, thiourea, acetylacetone, and oxime compounds, and the method for reducing the palladium concentration by iodide addition to the etching bath is a method comprising adding to the etching bath at least one iodide selected from the group consisting of sodium iodide, iodic acid, and iodates, and separating the formed precipitate.
Block for the CAD/CAM machining of a dental prosthetic element comprising: - an insert wherein the dental prosthetic element is intended to be machined, - a polymeric layer covering the totality of the insert so that the block has a cubic or a parallelepiped shape, - a mandrel fixed to the insert in contact with the polymeric layer , the insert comprising two parts connected to one another, of which: - a first part intended to be machined to form an inlay-core, said first part comprising a composite material comprising one-directional reinforcing fibres, - a second part intended to be machined to form a crown, said second part having no reinforcing fibres and comprising a material comprising one or more mineral fillers. - an insert wherein the dental prosthetic element is intended to be machined, - a polymeric layer covering the totality of the insert so that the block has a cubic or a parallelepiped shape, - a mandrel fixed to the insert in contact with the polymeric layer , the insert comprising two parts connected to one another, of which: - a first part intended to be machined to form an inlay-core, said first part comprising a composite material comprising one-directional reinforcing fibres, - a second part intended to be machined to form a crown, said second part having no reinforcing fibres and comprising a material comprising one or more mineral fillers.
A method, performed by a first child access node, comprising: receiving, from a second access node via a first parent access node, a first message comprising configuration parameters indicating flexible resources for a cell served by the first child access node; receiving, from the first parent access node of the first child access node, a downlink control information comprising an activation indication of the flexible resources for the cell; and communicating, with a wireless device, transport blocks via the flexible resources of the cell based on the activation indication and the first message. receiving, from a second access node via a first parent access node, a first message comprising configuration parameters indicating flexible resources for a cell served by the first child access node; receiving, from the first parent access node of the first child access node, a downlink control information comprising an activation indication of the flexible resources for the cell; and communicating, with a wireless device, transport blocks via the flexible resources of the cell based on the activation indication and the first message.
Liner comprising : - A first side and an opposite second side , - A binder comprising a resin material, - A woven fabric comprising a structural yarn and a first lubricating yarn and being embedded inside the binder, - A pre-preg which is at least partly embedded in the binder , distinct from the woven fabric and which is disposed on the first side of the liner, and - particles of Al 2 O 3 , characterized in that the liner further comprises a second lubricating yarn containing particles of Al 2 O 3 . - A first side and an opposite second side , - A binder comprising a resin material, - A woven fabric comprising a structural yarn and a first lubricating yarn and being embedded inside the binder, - A pre-preg which is at least partly embedded in the binder , distinct from the woven fabric and which is disposed on the first side of the liner, and - particles of Al 2 O 3 ,
Welding and/or cutting system (1; 101), comprising a generator , a welding and/or cutting torch (10; 110), a control unit and a switch unit (50; 150; 250) suited to be activated by an operator for the purpose of carrying out a welding and/or cutting operation through the activation of said generator , characterised in that said switch unit (50; 150; 250) comprises: - a movable actuator element , suited to be activated by said operator; - first generation means suited to generate a signal (S1; S4); - second generation means suited to generate a signal (S2; S3); said first generation means and said second generation means being activated in sequence by said movable element during its movement, in such a way that said second generation means generate a second signal (S2) with a predetermined delay (DT) with respect to a first signal (S1) generated by said first generation means , and further in that said system (1; 101) furthermore comprises a protection unit for said operator, comprising a protection shield , preferably an LCD filter, in that said protection unit can be activated by an activation signal, and in that the first signal (S1) and the second signal (S2) are acquired by the control unit and respectively correspond to the activation signal of the protection unit and to an activation signal of the generator . a generator , a welding and/or cutting torch (10; 110), a control unit and a switch unit (50; 150; 250) suited to be activated by an operator for the purpose of carrying out a welding and/or cutting operation through the activation of said generator , characterised in that said switch unit (50; 150; 250) comprises: - a movable actuator element , suited to be activated by said operator; - first generation means suited to generate a signal (S1; S4); - second generation means suited to generate a signal (S2; S3); - a movable actuator element , suited to be activated by said operator; - first generation means suited to generate a signal (S1; S4); - second generation means suited to generate a signal (S2; S3); said first generation means and said second generation means being activated in sequence by said movable element during its movement, in such a way that said second generation means generate a second signal (S2) with a predetermined delay (DT) with respect to a first signal (S1) generated by said first generation means , and further in that said system (1; 101) furthermore comprises a protection unit for said operator, comprising a protection shield , preferably an LCD filter, in that said protection unit can be activated by an activation signal, and in that the first signal (S1) and the second signal (S2) are acquired by the control unit and respectively correspond to the activation signal of the protection unit and to an activation signal of the generator .
An apparatus comprising: a functional circuit (201, 301, 401, 501a-c, 601) comprising one or more circuit components configured to perform a function based on one or more first input signals ; at least one failure-prediction circuit (204, 304, 404a-c, 504, 604) for use in predicting failure of the functional circuit, the failure-prediction circuit comprising a replica of the functional circuit in terms of constituent circuit components; wherein the failure-prediction circuit is configured to be more susceptible to failure than said functional circuit in terms of: the failure-prediction circuit being positioned relative to the functional circuit such that, in use, the failure-prediction circuit experiences a higher operating condition than the functional circuit and wherein the higher operating condition is one or more of, in use, a higher operating temperature and a higher local magnetic field strength; wherein the apparatus is configured to provide a prediction of failure of the functional circuit based on a determination of failure of the failure-prediction circuit. a functional circuit (201, 301, 401, 501a-c, 601) comprising one or more circuit components configured to perform a function based on one or more first input signals ; at least one failure-prediction circuit (204, 304, 404a-c, 504, 604) for use in predicting failure of the functional circuit, the failure-prediction circuit comprising a replica of the functional circuit in terms of constituent circuit components; wherein the failure-prediction circuit is configured to be more susceptible to failure than said functional circuit in terms of: the failure-prediction circuit being positioned relative to the functional circuit such that, in use, the failure-prediction circuit experiences a higher operating condition than the functional circuit and wherein the higher operating condition is one or more of, in use, a higher operating temperature and a higher local magnetic field strength; wherein the apparatus is configured to provide a prediction of failure of the functional circuit based on a determination of failure of the failure-prediction circuit. the failure-prediction circuit being positioned relative to the functional circuit such that, in use, the failure-prediction circuit experiences a higher operating condition than the functional circuit and wherein the higher operating condition is one or more of, in use, a higher operating temperature and a higher local magnetic field strength; wherein the apparatus is configured to provide a prediction of failure of the functional circuit based on a determination of failure of the failure-prediction circuit.
A computer-implemented method for improving an image of a surveyed subsurface, the method comprising: receiving seismic data associated with the surveyed subsurface; applying a multi-layer non-linear slope tomography algorithm based on calculated boundary and volumetric invariants associated with the seismic data to iteratively calculate a new boundary of a first layer of the surveyed subsurface and to calculate a velocity attribute of a second layer of the surveyed subsurface, wherein the invariants are model independent; and generating an improved image of the surveyed subsurface based on the new boundary of the first layer and the velocity attribute of the second layer, characterized in that the step of applying the tomography algorithm iteratively calculates new boundaries for plural first layers and calculates velocity attributes for plural second layers and, for any given iteration, the plural first layers are different from the plural second layers. receiving seismic data associated with the surveyed subsurface; applying a multi-layer non-linear slope tomography algorithm based on calculated boundary and volumetric invariants associated with the seismic data to iteratively calculate a new boundary of a first layer of the surveyed subsurface and to calculate a velocity attribute of a second layer of the surveyed subsurface, wherein the invariants are model independent; and generating an improved image of the surveyed subsurface based on the new boundary of the first layer and the velocity attribute of the second layer, characterized in that the step of applying the tomography algorithm iteratively calculates new boundaries for plural first layers and calculates velocity attributes for plural second layers and, for any given iteration, the plural first layers are different from the plural second layers.
A method, comprising: receiving , from a first device running an application , at a second device on which the application is not installed, a version of a user interface that is displayed at the first device for the application, wherein the version of the user interface comprises: one or more video streams associated with one or more elements of the user interface, one or more layer trees associated with the one or more elements of the user interface, and metadata for the user interface; rendering the version of the user interface with the second device using the one or more layer trees and the one or more video streams, by: applying a preference of the second device to at least one of the one or more layer trees, and synchronizing the one or more video streams and the one or more layer trees using the metadata received from the first device; and displaying the rendered version of the user interface with the second device. receiving , from a first device running an application , at a second device on which the application is not installed, a version of a user interface that is displayed at the first device for the application, wherein the version of the user interface comprises: one or more video streams associated with one or more elements of the user interface, one or more layer trees associated with the one or more elements of the user interface, and metadata for the user interface; rendering the version of the user interface with the second device using the one or more layer trees and the one or more video streams, by: applying a preference of the second device to at least one of the one or more layer trees, and synchronizing the one or more video streams and the one or more layer trees using the metadata received from the first device; and displaying the rendered version of the user interface with the second device. one or more video streams associated with one or more elements of the user interface, one or more layer trees associated with the one or more elements of the user interface, and metadata for the user interface; rendering the version of the user interface with the second device using the one or more layer trees and the one or more video streams, by: applying a preference of the second device to at least one of the one or more layer trees, and synchronizing the one or more video streams and the one or more layer trees using the metadata received from the first device; and displaying the rendered version of the user interface with the second device. applying a preference of the second device to at least one of the one or more layer trees, and synchronizing the one or more video streams and the one or more layer trees using the metadata received from the first device; and displaying the rendered version of the user interface with the second device.
A rail segment of a ground electric feeding system for a land vehicle , in particular a motor vehicle, the rail segment comprising: - a carrier for one or several electrically conductive tracks comprising; - a substantially planar electric feeding surface of the land vehicle , provided with three longitudinal grooves , each groove being intended to receive a conductive track , and - a surface for securing to a roadway , opposite the electric feeding surface , wherein said carrier has a rectangular cross-section (S) and the electric feeding surface and the securing surface form the long sides of said rectangle, and the rail segment having a phase conductive track in the first groove, a reverse current conductive track in the second groove and a neutral conductive track , the rail segment being characterized in that : - the carrier is in the form of a strip of electrically insulating elastomeric material; - the carrier comprises a conductive track in each groove of the electric feeding surface , each conductive track being mechanically fixed in its groove, in particular by screwing; - the neutral conductive track is placed in the third groove, the phase conductive track preferably being arranged between the other two tracks. - a carrier for one or several electrically conductive tracks comprising; - a substantially planar electric feeding surface of the land vehicle , provided with three longitudinal grooves , each groove being intended to receive a conductive track , and - a surface for securing to a roadway , opposite the electric feeding surface , wherein said carrier has a rectangular cross-section (S) and the electric feeding surface and the securing surface form the long sides of said rectangle, and - the carrier is in the form of a strip of electrically insulating elastomeric material; - the carrier comprises a conductive track in each groove of the electric feeding surface , each conductive track being mechanically fixed in its groove, in particular by screwing; - the neutral conductive track is placed in the third groove, the phase conductive track preferably being arranged between the other two tracks.
A product for holding a tobacco material or a tobacco substitute material comprising a body defining a storage environment for holding a tobacco material or a tobacco substitute material, and an electronic device with: an input means to generate an input signal from a sensed environmental stimulus ; an output means to generate an output signal in response to the input signal; wherein at least the output means is arranged on a substrate , in particular a flexible substrate; and wherein a protective layer is arranged to at least cover the substrate and the output means so as to prevent egression of compounds therefrom to the tobacco material or tobacco substitute material within the storage environment and to allow transmission of the output signal , and wherein the input means comprises at least one of a wireless signal receiver and a sensor. an input means to generate an input signal from a sensed environmental stimulus ; an output means to generate an output signal in response to the input signal; wherein at least the output means is arranged on a substrate , in particular a flexible substrate; and
An electronic device comprising: a piezoelectric element ; a panel , the piezoelectric element being attached thereto, the panel vibrating due to the piezoelectric element to generate a vibration sound transmitted by vibrating a part of a human body; a housing comprising a front face and a rear face and supporting the panel with the front face; a microphone contained within the housing and disposed on the rear face differing from the front face; and a buffer for damping vibration transmitted from the panel to the microphone through the front face and/or the rear face, wherein the piezoelectric element is disposed on the front face at a position closer to a first side of the housing where the panel is provided than a second side of the housing , different from the first side of the housing , where the microphone is provided, the front face and the rear face oppose each other, and the buffer includes a rib provided within the housing and extending in a direction intersecting a direction from a first side of the housing where the panel is provided to a second side of the housing where the microphone is provided. a piezoelectric element ; a panel , the piezoelectric element being attached thereto, the panel vibrating due to the piezoelectric element to generate a vibration sound transmitted by vibrating a part of a human body; a housing comprising a front face and a rear face and supporting the panel with the front face; a microphone contained within the housing and disposed on the rear face differing from the front face; and a buffer for damping vibration transmitted from the panel to the microphone through the front face and/or the rear face, wherein the piezoelectric element is disposed on the front face at a position closer to a first side of the housing where the panel is provided than a second side of the housing , different from the first side of the housing , where the microphone is provided, the front face and the rear face oppose each other, and the buffer includes a rib provided within the housing and extending in a direction intersecting a direction from a first side of the housing where the panel is provided to a second side of the housing where the microphone is provided.