mhurhangee/ep-ind-claims huggingface dataset:
Cooking attachment for a heatable vessel of a kitchen appliance, the cooking attachment comprising a cooking attachment wall that has bottom openings at least in a bottom region that can be arranged on the vessel, by means of which openings steam escaping from the vessel can enter the cooking attachment and condensation water can flow back into the vessel, characterised in that the cooking attachment wall is formed, at least in part, by a phase change material -polymer composition, the PCM-polymer composition, in the direction of the surface normal of the cooking attachment wall, being arranged at least on a side of the cooking attachment wall that is remote from a preparation chamber of the cooking attachment.
Receptacle for supply of a treatment agent to a machine for washing and/or dishing and/or rinsing goods, which receptacle comprises: at least a first inlet for receiving the treatment agent; at least a second inlet for receiving a liquid; a vessel located at a bottom section of the receptacle, said vessel being arranged to receive the treatment agent and the liquid supplied to the receptacle; and at least a first outlet for supplying the machine with a mixture of the treatment agent and the liquid, said first outlet being in fluid connection with the vessel such that the mixture overflows into the first outlet when the vessel is filled, characterised in that the receptacle being arranged to be removably mountable to the machine. at least a first inlet for receiving the treatment agent; at least a second inlet for receiving a liquid; a vessel located at a bottom section of the receptacle, said vessel being arranged to receive the treatment agent and the liquid supplied to the receptacle; and at least a first outlet for supplying the machine with a mixture of the treatment agent and the liquid, said first outlet being in fluid connection with the vessel such that the mixture overflows into the first outlet when the vessel is filled, characterised in that the receptacle being arranged to be removably mountable to the machine.
Grinding machine comprising: - a first frame mounted on four wheels sliding along the rails to be ground, - a second frame provided with wheels for supporting and sliding along the rails, - means for vertical movement of said second frame with respect to said first frame, - a third frame, above the second frame, on which at least three electric motors (28, 28') with parallel axes are mounted, to each shaft of said motors (28, 28') a pulley being integral in rotation with which the shaft of a grinding wheel is also integral, - means for vertical movement of said third frame with respect to the second frame. characterized by the fact that at least one of the three motors (28, 28') and the grinding wheel rotoidally connected to it is horizontally translatable by means to determine the variation of the respective center distance between the three grinding units constituted by the motors (28, 28') and the corresponding grinding wheels. - a first frame mounted on four wheels sliding along the rails to be ground, - a second frame provided with wheels for supporting and sliding along the rails, - means for vertical movement of said second frame with respect to said first frame, - a third frame, above the second frame, on which at least three electric motors (28, 28') with parallel axes are mounted, to each shaft of said motors (28, 28') a pulley being integral in rotation with which the shaft of a grinding wheel is also integral, - means for vertical movement of said third frame with respect to the second frame.
A valve stem seal assembly for an internal combustion engine, the engine including a housing separating a lubrication chamber and a combustion chamber, a valve guide fixed in the housing, and a valve stem extending through the valve guide and housing between the lubrication chamber and the combustion chamber, the valve stem seal assembly comprising: an annular rigid case disposed around the valve guide and the valve stem; an annular elastomeric body press fit within said annular rigid case and including a radially inwardly extending seal lip in sealing contact with the valve stem, said annular elastomeric body having a first axial end facing the valve guide and a second axial end facing away from the valve guide, said annular rigid case including a radially inwardly extending end wall opposing said second axial end of said annular elastomeric body, characterized in that it further includes a lip support extending axially from an inner portion of said radially inwardly extending end wall and opposing a radially inner surface of said radially inwardly extending seal lip. an annular rigid case disposed around the valve guide and the valve stem; an annular elastomeric body press fit within said annular rigid case and including a radially inwardly extending seal lip in sealing contact with the valve stem, said annular elastomeric body having a first axial end facing the valve guide and a second axial end facing away from the valve guide, said annular rigid case including a radially inwardly extending end wall opposing said second axial end of said annular elastomeric body, characterized in that it further includes a lip support extending axially from an inner portion of said radially inwardly extending end wall and opposing a radially inner surface of said radially inwardly extending seal lip.
A method for manufacturing a molded product having a recessed/protruding part from a molded substrate including reinforcing fibers and a matrix resin by press molding, the method comprising: a step of placing the molded substrate in one of molds including an upper mold and a lower mold and deforming the molded substrate in an in-plane direction by heating the molded substrate and pressing the molded substrate in the mold; and a step of deforming the molded substrate deformed in the in-plane direction in an out-of-plane direction by depressurizing the mold subsequent to the step, wherein a deformation rate ratio T represented by following formula is within a range of 0.1 to 1: T = X / Z ⋅ ⋅ □ an in-plane deformation rate X = {(a surface area of a recessed part of the mold having the recessed part)/(a projected area of an opening of the recessed part of the mold having the recessed part, the opening being projected in the out-of-plane direction of the molded substrate, which is a raw material)} 1/2, an out-of-plane deformation rate Z = (a maximum thickness of the molded product)/(a thickness P of the molded substrate), the thickness P = a mass of the molded substrate A / an apparent density / an area of molded substrate A. a step of placing the molded substrate in one of molds including an upper mold and a lower mold and deforming the molded substrate in an in-plane direction by heating the molded substrate and pressing the molded substrate in the mold; and a step of deforming the molded substrate deformed in the in-plane direction in an out-of-plane direction by depressurizing the mold subsequent to the step, wherein a deformation rate ratio T represented by following formula is within a range of 0.1 to 1: T = X / Z ⋅ ⋅ □ an in-plane deformation rate X = {(a surface area of a recessed part of the mold having the recessed part)/(a projected area of an opening of the recessed part of the mold having the recessed part, the opening being projected in the out-of-plane direction of the molded substrate, which is a raw material)} 1/2, an out-of-plane deformation rate Z = (a maximum thickness of the molded product)/(a thickness P of the molded substrate), the thickness P = a mass of the molded substrate A / an apparent density / an area of molded substrate A.
A system comprising: recording circuitry configured to receive electrical signals from a first set of electrodes implanted within a patient, the first set of electrodes being configured to receive electrical signals representing evoked compound action potentials generated by the patient in response to stimulation of an external location on the patient's body and to record the received electrical signals in a memory; stimulation circuitry configured to apply electrical signals using a second set of electrodes implanted within the patient to provide neuromodulation to the patient; and control circuitry configured to: receive electrical signals representing evoked compound action potentials received at the first set of electrodes and generated by the patient in response to the electrical signals applied by the stimulation circuitry using the second set of electrodes, and to adjust one or more electrical parameters of the electrical signals applied by the stimulation circuitry using the second set of electrodes to increase a correlation between the electrical signals received by the control circuitry and the electrical signals recorded by the recording circuity. recording circuitry configured to receive electrical signals from a first set of electrodes implanted within a patient, the first set of electrodes being configured to receive electrical signals representing evoked compound action potentials generated by the patient in response to stimulation of an external location on the patient's body and to record the received electrical signals in a memory; stimulation circuitry configured to apply electrical signals using a second set of electrodes implanted within the patient to provide neuromodulation to the patient; and control circuitry configured to: receive electrical signals representing evoked compound action potentials received at the first set of electrodes and generated by the patient in response to the electrical signals applied by the stimulation circuitry using the second set of electrodes, and to adjust one or more electrical parameters of the electrical signals applied by the stimulation circuitry using the second set of electrodes to increase a correlation between the electrical signals received by the control circuitry and the electrical signals recorded by the recording circuity.
A data transmission method, comprising: a) receiving, by a receiving device, a first packet sent by a sending device, wherein the first packet comprises first compressed data and a first check value, the first compressed data is obtained by the sending device by compressing first data using a first compression mode, the first check value is obtained by the sending device by processing a second CRC check value using a first CRC check algorithm, and the second check value is obtained by the sending device by processing the first compressed data using a second CRC check algorithm; b) obtaining, by the receiving device, a first CRC check code by processing the first packet using a third CRC check algorithm, wherein the second CRC check algorithm and the third CRC check algorithm comprise a same CRC generator polynomial; c) determining, by the receiving device according to the obtained first check code and a correspondence between the first check code and the first compression mode, that the first compression mode is a compression mode used when the sending device compresses the first data, wherein the correspondence is established in advance by the receiving and the sending device; and d) obtaining, by the receiving device, the first data by decompressing, using a first decompression mode, the first compressed data comprised in the first packet, wherein the first decompression mode is a decompression mode corresponding to the first compression mode. a) receiving, by a receiving device, a first packet sent by a sending device, wherein the first packet comprises first compressed data and a first check value, the first compressed data is obtained by the sending device by compressing first data using a first compression mode, the first check value is obtained by the sending device by processing a second CRC check value using a first CRC check algorithm, and the second check value is obtained by the sending device by processing the first compressed data using a second CRC check algorithm; b) obtaining, by the receiving device, a first CRC check code by processing the first packet using a third CRC check algorithm, wherein the second CRC check algorithm and the third CRC check algorithm comprise a same CRC generator polynomial; c) determining, by the receiving device according to the obtained first check code and a correspondence between the first check code and the first compression mode, that the first compression mode is a compression mode used when the sending device compresses the first data, wherein the correspondence is established in advance by the receiving and the sending device; and d) obtaining, by the receiving device, the first data by decompressing, using a first decompression mode, the first compressed data comprised in the first packet, wherein the first decompression mode is a decompression mode corresponding to the first compression mode.
An adaptive MAP channel decoding apparatus, comprising: a channel estimator adapted to calculate a channel noise power and a scaling factor; a MAP channel decoder; a controller adapted to determine an operation mode of the MAP channel decoder; and the MAP channel decoder being adapted to selectively operate in a static channel mode or in a time-varying mode, wherein the MAP channel decoder is adapted to use in the static channel mode the following equation for decoding: xEy = min x y − log 1 + e − x − y and wherein the MAP channel decoder is adapted to use in the time-varying mode the following equation for decoding: xEy = min x y where x and y are metric values, wherein a current channel state is determined by the controller to be time-varying or static based on changes in the channel noise power or the scaling factor, and wherein the time-varying channel mode is determined if the current channel state is determined to be time-varying, and otherwise the static channel mode is determined. a channel estimator adapted to calculate a channel noise power and a scaling factor; a MAP channel decoder; a controller adapted to determine an operation mode of the MAP channel decoder; and the MAP channel decoder being adapted to selectively operate in a static channel mode or in a time-varying mode, wherein the MAP channel decoder is adapted to use in the static channel mode the following equation for decoding: xEy = min x y − log 1 + e − x − y and wherein the MAP channel decoder is adapted to use in the time-varying mode the following equation for decoding: xEy = min x y where x and y are metric values, wherein a current channel state is determined by the controller to be time-varying or static based on changes in the channel noise power or the scaling factor, and wherein the time-varying channel mode is determined if the current channel state is determined to be time-varying, and otherwise the static channel mode is determined.
A method of preparing an organometallic complex of formula: M 2 wherein M= iron, ruthenium, or osmium; R = H or an alkyl group having about 1 to 4 carbon atoms; PD = a cyclic or open chain dienyl system that forms a sandwich type complex, and wherein the complex having formula has a metal purity of at least about 99.99%; the method comprising reacting a M trichloride hydrate and an HRPD compound with aluminum in an alcohol solvent wherein Al 3 is formed as a byproduct, the method further comprising adding to the reaction water in an amount effective to completely decompose the Al 3, characterized in that the method comprises purifying the organometallic complex having formula by distilling under reduced pressure.
A harvester comprising: a bottom floor assembly (220, 420) comprising: at least a first hydraulic cylinder (224, 424, 428); a bottom floor frame (222, 422) comprising at least one face comprising a concave curvature and extending laterally across the bottom floor assembly (220, 420); and one or a plurality of bottom floor plates, covering the at least one face, and defining the concave curvature of a crop collection channel; at least a first sensor (240, 440), located on, within or proximate to the bottom floor assembly (220, 420), characterised in that said at least first sensor is a rotation sensor (240, 440) configured to measure the rotation angle of the bottom floor assembly (220, 420); and in that the harvester further comprises a controller, in operable communication and configured to process information from the first rotation sensor (240, 440); and an operator interface, in electronic communication with the controller, configured to display information about the rotation angle of the bottom floor assembly (220, 420) to an operator. a bottom floor assembly (220, 420) comprising: at least a first hydraulic cylinder (224, 424, 428); a bottom floor frame (222, 422) comprising at least one face comprising a concave curvature and extending laterally across the bottom floor assembly (220, 420); and one or a plurality of bottom floor plates, covering the at least one face, and defining the concave curvature of a crop collection channel; at least a first hydraulic cylinder (224, 424, 428); a bottom floor frame (222, 422) comprising at least one face comprising a concave curvature and extending laterally across the bottom floor assembly (220, 420); and one or a plurality of bottom floor plates, covering the at least one face, and defining the concave curvature of a crop collection channel; at least a first sensor (240, 440), located on, within or proximate to the bottom floor assembly (220, 420), characterised in that said at least first sensor is a rotation sensor (240, 440) configured to measure the rotation angle of the bottom floor assembly (220, 420); and in that the harvester further comprises a controller, in operable communication and configured to process information from the first rotation sensor (240, 440); and an operator interface, in electronic communication with the controller, configured to display information about the rotation angle of the bottom floor assembly (220, 420) to an operator.
A field programmable gate array comprising: a plurality of programmable processing elements, including processing elements programmed to perform cryptographic operations; a plurality of isolated registers for storing cryptographic secrets, the cryptographic secrets being used in the cryptographic operations performed by the processing elements such that encrypted data received by the field programmable gate array can be decrypted solely by the field programmable gate array using the cryptographic secrets; and a loading mechanism for securely updating the cryptographic operations performed by the programmable processing elements, wherein the loading mechanism securely updates the cryptographic secrets stored in the isolated registers and wherein updating the cryptographic operations is performed on the field programmable array by decrypting, verifying and installing a received encrypted program logic, thus installing new cryptographic functionality. a plurality of programmable processing elements, including processing elements programmed to perform cryptographic operations; a plurality of isolated registers for storing cryptographic secrets, the cryptographic secrets being used in the cryptographic operations performed by the processing elements such that encrypted data received by the field programmable gate array can be decrypted solely by the field programmable gate array using the cryptographic secrets; and a loading mechanism for securely updating the cryptographic operations performed by the programmable processing elements, wherein the loading mechanism securely updates the cryptographic secrets stored in the isolated registers and wherein updating the cryptographic operations is performed on the field programmable array by decrypting, verifying and installing a received encrypted program logic, thus installing new cryptographic functionality.
A method of generating a lipooligosaccharide/lipid A composition, comprising the steps of: engineering a Yersinia pestis KIM6 bacterial strain so that it expresses PagP (lipid A palmitoyltransferase) which adds C16 fatty acids to lipid A; and subjecting said Yersinia pestis KIM6 strain to mammalian host temperature. engineering a Yersinia pestis KIM6 bacterial strain so that it expresses PagP (lipid A palmitoyltransferase) which adds C16 fatty acids to lipid A; and subjecting said Yersinia pestis KIM6 strain to mammalian host temperature.
A method of manufacturing a powdered or liquid dairy product characterised by the step of combining a. a recombined milk, or dried or liquid components thereof, with b. a milk-based retentate, wherein the milk-based retentate contributes 30 to 70% w/w of the total protein of the dairy product, wherein the milk-based retentate is denatured prior to combining with the recombined milk, or dried or liquid components thereof and wherein the denaturing step includes heat denaturation at a temperature of between 85-90°C for a period of 20 to 40 minutes, optionally wherein the dried component of recombined milk is selected from the group consisting of skimmed milk powder, partially defatted milk powder, protein rich dairy powder, dairy powder depleted in fat and lactose and combinations thereof. a. a recombined milk, or dried or liquid components thereof, with b. a milk-based retentate, wherein the milk-based retentate contributes 30 to 70% w/w of the total protein of the dairy product, wherein the milk-based retentate is denatured prior to combining with the recombined milk, or dried or liquid components thereof and wherein the denaturing step includes heat denaturation at a temperature of between 85-90°C for a period of 20 to 40 minutes, optionally wherein the dried component of recombined milk is selected from the group consisting of skimmed milk powder, partially defatted milk powder, protein rich dairy powder, dairy powder depleted in fat and lactose and combinations thereof.
A device for elongating, extending, or repairing an arteriovenous fistula between a first blood vessel and an adjacent second blood vessel, comprising: a handle; a body connected to and extending distally from the handle, comprised of a flexible material and having a primary lumen; a rigid jaw member connected to and extending distally from the flexible body, the jaw member including two elements (34, 36) each having distal ends, wherein one of the elements (34, 36) is pivotable relative to the other element (34, 36) to create a spacing of varying sizes between the two elements at their respective distal ends; a tissue cutting element disposed on the jaw member; a lever on the handle for moving at least one of the jaw member elements (34, 36) relative to the other one to increase or decrease the spacing between the distal ends of the elements (34, 36), thereby opening or closing the jaws of the jaw member; a ratcheting mechanism on said lever for applying variable incremental pressure to the jaw member; characterized by a wire connecting the lever to the jaw member for opening or closing the jaw member; and a secondary lumen disposed in one of the jaw elements. a handle; a body connected to and extending distally from the handle, comprised of a flexible material and having a primary lumen; a rigid jaw member connected to and extending distally from the flexible body, the jaw member including two elements (34, 36) each having distal ends, wherein one of the elements (34, 36) is pivotable relative to the other element (34, 36) to create a spacing of varying sizes between the two elements at their respective distal ends; a tissue cutting element disposed on the jaw member; a lever on the handle for moving at least one of the jaw member elements (34, 36) relative to the other one to increase or decrease the spacing between the distal ends of the elements (34, 36), thereby opening or closing the jaws of the jaw member; a ratcheting mechanism on said lever for applying variable incremental pressure to the jaw member; characterized by a wire connecting the lever to the jaw member for opening or closing the jaw member; and a secondary lumen disposed in one of the jaw elements.