mhurhangee/ep-ind-claims huggingface dataset:
A juice extractor comprising: a food processing chamber including a food inlet, a juice outlet and a pulp outlet; a spindle extending through the food processing chamber for transporting food from the food inlet towards the pulp outlet and extracting juice from the food; a drivetrain for rotating the spindle, wherein the drivetrain is releasably coupled to the food processing chamber, and wherein the releasable coupling between the drivetrain and the food processing chamber comprises: a lever arrangement having a handle end and an actuator end (204,204'); a pivot shaft between the handle end and the actuator end (204,204') about which the lever arrangement is rotatable; and a locking member for locking and unlocking the drivetrain from the food processing chamber, wherein the locking member is controlled by the actuator end in response to rotation of the lever arrangement; the locking member comprising a locking wheel, wherein the locking wheel comprises a ring of notches adapted to receive projections at a mating part of the food processing chamber, wherein the rotation of the locking wheel moves the ring of notches into and out of alignment with the projections. a food processing chamber including a food inlet, a juice outlet and a pulp outlet; a spindle extending through the food processing chamber for transporting food from the food inlet towards the pulp outlet and extracting juice from the food; a drivetrain for rotating the spindle, wherein the drivetrain is releasably coupled to the food processing chamber, and wherein the releasable coupling between the drivetrain and the food processing chamber comprises: a lever arrangement having a handle end and an actuator end (204,204'); a pivot shaft between the handle end and the actuator end (204,204') about which the lever arrangement is rotatable; and a locking member for locking and unlocking the drivetrain from the food processing chamber, wherein the locking member is controlled by the actuator end in response to rotation of the lever arrangement; the locking member comprising a locking wheel, wherein the locking wheel comprises a ring of notches adapted to receive projections at a mating part of the food processing chamber, wherein the rotation of the locking wheel moves the ring of notches into and out of alignment with the projections. a lever arrangement having a handle end and an actuator end (204,204'); a pivot shaft between the handle end and the actuator end (204,204') about which the lever arrangement is rotatable; and a locking member for locking and unlocking the drivetrain from the food processing chamber, wherein the locking member is controlled by the actuator end in response to rotation of the lever arrangement; the locking member comprising a locking wheel, wherein the locking wheel comprises a ring of notches adapted to receive projections at a mating part of the food processing chamber, wherein the rotation of the locking wheel moves the ring of notches into and out of alignment with the projections.
Gas turbine burner component, co mprising a body with a first, a second and a third section, the first, second and third section (20, 21, 22) being integrally formed with another and built from a same material, an end face of the first section of the body, wherein the end face, during operation, is exposable to a first temperature higher than a second temperature of a cooling fluid, wherein the second section is located between the first and the third section and is formed in parts as a lattice structure, wherein the lattice structure comprises a plurality of rod-shaped struts, wherein each of a first set of the plurality of struts has a first end, the first end being connected to the first section, and a void penetrated by the plurality of struts, the void providing at least one fluid passage via which the cooling fluid is guidable through an interior of the second section during operation, characterized in that the first end of each of the first set of the plurality of struts has a conical shape with increasing diameter in direction of the first section. a plurality of rod-shaped struts, wherein each of a first set of the plurality of struts has a first end, the first end being connected to the first section, and a void penetrated by the plurality of struts, the void providing at least one fluid passage via which the cooling fluid is guidable through an interior of the second section during operation, characterized in that the first end of each of the first set of the plurality of struts has a conical shape with increasing diameter in direction of the first section.
An electronic device, comprising: a connector, arranged for coupling to a power supply external to the electronic device, wherein the power supply is arranged to provide a supply voltage to the electronic device to charge a battery of the electronic device; and a charger, coupled to the connector and selectively operated in a normal mode or a self-test mode, wherein when the charger operates in the normal mode, the charger is arranged for receiving the supply voltage via a power pin of the connector to charge the battery of the electronic device; characterized in that, when the charger operates in the self-test mode, a booster of the charger receives a battery voltage provided by the battery and provides a specific voltage to the power pin of the connector; wherein the charger comprises a voltage detector, for detecting a voltage of a non-power pin (204, 206) of the connector to generate a detecting result; wherein when the voltage of the non-power pin (204, 206) is greater than a threshold, the voltage detector notifies a controller of the electronic device to notify the power supply to disable or reduce the supply voltage or an output current. a connector, arranged for coupling to a power supply external to the electronic device, wherein the power supply is arranged to provide a supply voltage to the electronic device to charge a battery of the electronic device; and a charger, coupled to the connector and selectively operated in a normal mode or a self-test mode, wherein when the charger operates in the normal mode, the charger is arranged for receiving the supply voltage via a power pin of the connector to charge the battery of the electronic device;
A recombinant adeno-associated virus (rAAV) vector having an expression cassette comprising a modified human low density lipoprotein receptor (hLDLR) gene, wherein said hLDLR gene encodes a modified hLDLR that is resistant to degradation of hLDLR by interfering with the PCSK9 pathway and the IDOL pathway and is capable of reducing cholesterol following expression in a subject, wherein the hLDLR has 95% identity to 99.9% identity to a sequence selected from SEQ ID NOs: 1 and 3-7, and wherein said modified hLDLR comprises: (a) one or more amino acid substitutions selected from: N295D, H306G, V307D, N309A, D310N, L318H, or L318D, based on the numbering of SEQ ID NO:1; and (b) an amino acid substitution of at least one of L769R, K809R or C818A, based on the numbering of SEQ ID NO:1. (a) one or more amino acid substitutions selected from: N295D, H306G, V307D, N309A, D310N, L318H, or L318D, based on the numbering of SEQ ID NO:1; and (b) an amino acid substitution of at least one of L769R, K809R or C818A, based on the numbering of SEQ ID NO:1.
A method of manufacturing a hair care composition comprising the steps of i) forming an aqueous conditioning gel network having no overall charge or being anionic, the gel network comprising: (a) fatty material; (b) a gel network anionic surfactant comprising an alkyl group with from 16 to 30 carbons; (c) cationic surfactant; (d) an active material selected from fragrances, vitamins, sunscreens and cooling agents; and ii) adding the resulting gel network to diluted primary surfactant solution; i) forming an aqueous conditioning gel network having no overall charge or being anionic, the gel network comprising: (a) fatty material; (b) a gel network anionic surfactant comprising an alkyl group with from 16 to 30 carbons; (c) cationic surfactant; (d) an active material selected from fragrances, vitamins, sunscreens and cooling agents; and (a) fatty material; (b) a gel network anionic surfactant comprising an alkyl group with from 16 to 30 carbons; (c) cationic surfactant; (d) an active material selected from fragrances, vitamins, sunscreens and cooling agents; and ii) adding the resulting gel network to diluted primary surfactant solution;
A tire comprising: a circular tire frame formed from a resin material; and a reinforcing metal cord member that is wound on an outer circumference of the tire frame, at least a portion of the reinforcing metal cord member being covered, via an adhesion layer including a solvent-based adhesive, with a covering composition that comprises at least one thermoplastic material selected from the group consisting of a thermoplastic resin and a thermoplastic elastomer, wherein the covering composition for covering the reinforcing metal cord member includes a polyamide-based thermoplastic elastomer; the solvent-based adhesive includes an epoxy-based resin and/or a phenol-based resin; the reinforcing metal cord member includes a multifilament strand; and a thickness of the adhesion layer is from 1 μm to 100 μm. a circular tire frame formed from a resin material; and a reinforcing metal cord member that is wound on an outer circumference of the tire frame, at least a portion of the reinforcing metal cord member being covered, via an adhesion layer including a solvent-based adhesive, with a covering composition that comprises at least one thermoplastic material selected from the group consisting of a thermoplastic resin and a thermoplastic elastomer, wherein the covering composition for covering the reinforcing metal cord member includes a polyamide-based thermoplastic elastomer; the solvent-based adhesive includes an epoxy-based resin and/or a phenol-based resin; the reinforcing metal cord member includes a multifilament strand; and a thickness of the adhesion layer is from 1 μm to 100 μm.
Method for actuating a magnetic resonance imaging system for generating magnetic resonance image data of an object under examination with which magnetic resonance raw data is acquired, wherein the method has at least one diffusion contrast pulse sequence with - an excitation process, wherein an RF excitation pulse is generated, - a readout process for the acquisition of magnetic resonance raw data, which comprises the reception of RF signals, - a step for diffusion-sensitisation using a diffusion contrast gradient pulse sequence, wherein - the diffusion contrast gradient pulse sequence comprises an uneven number of 2n+1 diffusion contrast gradient pulses (13, 14, 15, 16, 17) switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero, - the sum of the first gradient moments (m 1) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero, characterised in that the diffusion contrast gradient pulse sequence comprises precisely one RF refocusing pulse, wherein the one RF refocusing pulse is switched between two of the diffusion contrast gradient pulses (13, 14, 15, 16, 17). - an excitation process, wherein an RF excitation pulse is generated, - a readout process for the acquisition of magnetic resonance raw data, which comprises the reception of RF signals, - a step for diffusion-sensitisation using a diffusion contrast gradient pulse sequence, wherein - the diffusion contrast gradient pulse sequence comprises an uneven number of 2n+1 diffusion contrast gradient pulses (13, 14, 15, 16, 17) switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero, - the sum of the first gradient moments (m 1) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero, characterised in that the diffusion contrast gradient pulse sequence comprises precisely one RF refocusing pulse, wherein the one RF refocusing pulse is switched between two of the diffusion contrast gradient pulses (13, 14, 15, 16, 17). - the diffusion contrast gradient pulse sequence comprises an uneven number of 2n+1 diffusion contrast gradient pulses (13, 14, 15, 16, 17) switched in chronological succession, where n is a natural number, - the sum of the zero gradient moments (m 0) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero, - the sum of the first gradient moments (m 1) of the diffusion contrast gradient pulses (13, 14, 15, 16, 17) has the value zero,
An esophageal temperature measuring catheter comprising: a catheter tube including a tip-flexible part, the tip-flexible part having an inner tube and a plurality of divided tube members (620 to 625), the divided tube members (620 to 625) being disposed on outer circumference of the inner tube and independent of each other; one or a plurality of metal rings (111 to 115) disposed in the tip-flexible part; one or a plurality of temperature sensors (51 to 55) disposed corresponding to the one or the plurality of metal rings (111 to 115); a handle attached at a base end of the catheter tube, a rate of a thickness of the one or each of the metal rings (111 to 115) to an outer diameter of the one or each of the metal rings (111 to 115) being 7.5% or greater, and the one or the plurality of metal rings (111 to 115) and the divided tube members (621 to 625) both being fitted, in the tip-flexible part, on an outer circumferential surface of the inner tube side by side in an axial direction of the catheter tube; and wherein the inner tube has an opening that is formed in the axial direction from a tip end of the inner tube and allows the one or the plurality of metal rings (111 to 115) and the one or the plurality of temperature sensors (51 to 55) to be electrically coupled to one another. a catheter tube including a tip-flexible part, the tip-flexible part having an inner tube and a plurality of divided tube members (620 to 625), the divided tube members (620 to 625) being disposed on outer circumference of the inner tube and independent of each other; one or a plurality of metal rings (111 to 115) disposed in the tip-flexible part; one or a plurality of temperature sensors (51 to 55) disposed corresponding to the one or the plurality of metal rings (111 to 115); a handle attached at a base end of the catheter tube, a rate of a thickness of the one or each of the metal rings (111 to 115) to an outer diameter of the one or each of the metal rings (111 to 115) being 7.5% or greater, and the one or the plurality of metal rings (111 to 115) and the divided tube members (621 to 625) both being fitted, in the tip-flexible part, on an outer circumferential surface of the inner tube side by side in an axial direction of the catheter tube; and wherein the inner tube has an opening that is formed in the axial direction from a tip end of the inner tube and allows the one or the plurality of metal rings (111 to 115) and the one or the plurality of temperature sensors (51 to 55) to be electrically coupled to one another.
A method for classifying a powder using a classifier comprising the steps of: mixing a powder and an auxiliary agent formed from an alcohol aqueous solution containing 10 to 50 mass% of alcohol; introducing the powder mixed in the mixing step to the classifier; heating a gas; feeding the gas heated in the heating step to the classifier; and classifying the powder in the classifier on the basis of grain size. mixing a powder and an auxiliary agent formed from an alcohol aqueous solution containing 10 to 50 mass% of alcohol; introducing the powder mixed in the mixing step to the classifier; heating a gas; feeding the gas heated in the heating step to the classifier; and classifying the powder in the classifier on the basis of grain size.
A device comprising an arranging mechanism (50, 128) to arrange materials from a material supply onto a receiving surface to additively form a 3D object, the device further comprising a control portion (70, 200) including a processing resource to execute machine-readable instructions, stored in a non-transitory medium, to: Arrange, via the arranging mechanism, electrically non-conductive material relative to a receiving surface to additively form a monolithic three-dimensional object; and arrange, via the arranging mechanism, during additive formation of the 3D object, electrically conductive material to form a first conductive channel (88A-88D) extending internally within the electrically non-conductive portion of the 3D object, characterized in that the conductive channel being formed to extend in a second orientation generally perpendicular to a first orientation where a layer connection of the additively formed 3D object extends. Arrange, via the arranging mechanism, electrically non-conductive material relative to a receiving surface to additively form a monolithic three-dimensional object; and arrange, via the arranging mechanism, during additive formation of the 3D object, electrically conductive material to form a first conductive channel (88A-88D) extending internally within the electrically non-conductive portion of the 3D object, characterized in that the conductive channel being formed to extend in a second orientation generally perpendicular to a first orientation where a layer connection of the additively formed 3D object extends.
A light emitting diode comprising: an active portion; a raised border on the top surface of said active portion such that said raised border defines a first space on said top surface of said active portion, said first space configured to receive a resin, and said border further defines a second space, wherein said second space is between an edge of said active portion and said raised border; a said resin confined within said first space defined by said raised border and said top surface of said active portion; and phosphor particles in said resin that convert the frequencies emitted by said active portion, wherein said raised border allows said phosphor particles to occupy the portion of said resin near said raised border; and an ohmic contact to said top surface of said active portion, wherein said ohmic contact is outside said raised border. an active portion; a raised border on the top surface of said active portion such that said raised border defines a first space on said top surface of said active portion, said first space configured to receive a resin, and said border further defines a second space, wherein said second space is between an edge of said active portion and said raised border; a said resin confined within said first space defined by said raised border and said top surface of said active portion; and phosphor particles in said resin that convert the frequencies emitted by said active portion, wherein said raised border allows said phosphor particles to occupy the portion of said resin near said raised border; and an ohmic contact to said top surface of said active portion, wherein said ohmic contact is outside said raised border.
A fluid transmission fitting comprising at least two female couplers inserted in a hydraulic feeding block belonging to said fitting, and two respective male couplers, which can be coupled to said female couplers, said block including at least two hydraulic lines and at least one draining line, and a lever integral with a cam adapted to relieve the pressure from a chamber inside each female coupler and adapted to uncouple the male coupler from the female coupler, each female coupler comprising a pressure relief valve which puts said chamber into communication with the draining line, said cam comprising a first member, which acts on the female coupler of a first hydraulic line, and a second member, which acts on the female coupler of a second hydraulic line, characterized in that said first and second member (82, 83) are independent so that while said first member is moved to act on said first hydraulic line by turning said lever in one sense, said second member remains in resting position, and vice versa, by rotating said lever in the opposite sense, said first and second member (82, 83) have a first and a second disc-shaped attachment portion (821, 831) with a first and a second loop (822, 832), respectively, said attachment portions (821, 831) being associated with a central shaft controlled by the rotation of the lever, by means of said loops (822, 832) in which said central shaft is housed with clearance, and in that the fluid transmission fitting is arranged such that by applying stress to the lever the rotation of the central shaft is determined which, in one direction, moves the first attachment portion of the first member but, being free in the second loop of the second attachment portion, it leaves the second attachment portion of the second member stationary, while, in the other direction, it moves the second attachment portion of the second member but, being free in the first loop, it leaves the first attachment portion of the first member stationary.
A vibration sensor, comprising: an RF receiver circuit configured to receive an RF input signal; an RF signal characterization circuit configured to measure an attribute of the RF input signal over a set time-period; wherein the attribute of the RF input signal varies based on a physical motion between the vibration sensor and an RF source transmitting the RF input signal; and a vibration profiling circuit configured to map the attribute of the RF input signal to a vibration level, characterized in that: the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period. an RF receiver circuit configured to receive an RF input signal; an RF signal characterization circuit configured to measure an attribute of the RF input signal over a set time-period; wherein the attribute of the RF input signal varies based on a physical motion between the vibration sensor and an RF source transmitting the RF input signal; and a vibration profiling circuit configured to map the attribute of the RF input signal to a vibration level, characterized in that: the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period. the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period.
Circuitry for DC to AC conversion using resonant bidirectional single stage, comprising a magnetic transformer T1 that has a primary winding T1:1 connected with a non-dotted end to capacitors C1 and C2 forming a first part of a half-bridge structure, and with a dotted end connected to a small value inductor LLK, which is further connected to switches S1 and S2 forming a second part of the half-bridge structure, where the T1 transformer has a secondary winding T1:2 connectable with a non-dotted end to an AC line phase L and with a dotted end connected to an output switch So that is arranged to make a connection with an AC line phase N.