mhurhangee/ep-ind-claims huggingface dataset:
A hinge structure for rotatably connecting a first member and a second member to each other, comprising: a first shaft adapted to be provided in the first member, wherein an end portion thereof becomes a free end; a support portion adapted to be provided in the second member to support the first shaft; a bottomed first hole concaved on a side face of the support portion, and rotatably receiving the end portion of the first shaft; a second shaft projecting from a bottom portion of the first hole; a second hole concaved on an end face of the first shaft, and rotatably receiving an end portion of the second shaft; a first groove concaved on the side face of the support portion, extending in a radial direction of the first hole from the first hole, and opening at an end portion thereof; and a second groove concaved on the end face of the first shaft, extending in a radial direction of the second hole from the second hole, and opening at an end portion thereof, wherein when the first member and the second member are assembled to each other, the first shaft passes through the first groove to be disposed in the first hole, and the second shaft passes through the second groove to be disposed in the second hole, said hinge structure being characterized in that only when the extending direction of the first groove and the extending direction of the second groove correspond, the first shaft can be inserted into or pulled out of the first hole, and the second shaft can be inserted into or pulled out of the second hole. a first shaft adapted to be provided in the first member, wherein an end portion thereof becomes a free end; a support portion adapted to be provided in the second member to support the first shaft; a bottomed first hole concaved on a side face of the support portion, and rotatably receiving the end portion of the first shaft; a second shaft projecting from a bottom portion of the first hole; a second hole concaved on an end face of the first shaft, and rotatably receiving an end portion of the second shaft; a first groove concaved on the side face of the support portion, extending in a radial direction of the first hole from the first hole, and opening at an end portion thereof; and a second groove concaved on the end face of the first shaft, extending in a radial direction of the second hole from the second hole, and opening at an end portion thereof, wherein when the first member and the second member are assembled to each other, the first shaft passes through the first groove to be disposed in the first hole, and the second shaft passes through the second groove to be disposed in the second hole, said hinge structure being characterized in that only when the extending direction of the first groove and the extending direction of the second groove correspond, the first shaft can be inserted into or pulled out of the first hole, and the second shaft can be inserted into or pulled out of the second hole.
A system for processing material, the system comprising: - a compacting device (101, 201, 301, 401, 501, 601, 701) for compacting the material, and - a treatment device (102, 202, 302, 402, 502, 602, 702) for agglomerating, pelletizing, or nozzle-extruding the compacted material, wherein the compacting device comprises a compacting chamber (103, 203, 503, 603, 703) and a compacting element (104, 204, 504a, 504b, 603a, 603b, 703a-703c) moveable in the compacting chamber to reduce volume of the compacting chamber so as to compact the material to be delivered to the treatment device, characterized in that the system comprises a closing element (107, 207) for closing a passage from the compacting chamber to the treatment device when the compacting element is compacting the material and the treatment device is agglomerating, pelletizing, or nozzle-extruding a previous batch of the material. - a compacting device (101, 201, 301, 401, 501, 601, 701) for compacting the material, and - a treatment device (102, 202, 302, 402, 502, 602, 702) for agglomerating, pelletizing, or nozzle-extruding the compacted material,
A method of encoding a linear predictive coding, LPC, coefficient in an encoding device, the method comprising: obtaining a line spectral frequency, LSF, coefficient from the LPC coefficient of a subframe in an audio signal; obtaining a first weighting function of the subframe based on a magnitude of a spectral bin corresponding to a frequency of the LSF coefficient and magnitudes of neighboring spectral bins adjacent to the corresponding spectral bin; obtaining a second weighting function of the subframe based on frequency information of the LSF coefficient; combining the first weighting function of the subframe and the second weighting function of the subframe; obtaining a third weighting function of the subframe associated with spectral sensitivity based on an interval between adjacent LSF coefficients; characterized by combining a result of the combining and the third weighting function of the subframe to determine a weighting function of the subframe; quantizing the LSF coefficient based on the weighting function of the subframe; and converting the quantized LSF coefficient to a quantized LPC coefficient. obtaining a line spectral frequency, LSF, coefficient from the LPC coefficient of a subframe in an audio signal; obtaining a first weighting function of the subframe based on a magnitude of a spectral bin corresponding to a frequency of the LSF coefficient and magnitudes of neighboring spectral bins adjacent to the corresponding spectral bin; obtaining a second weighting function of the subframe based on frequency information of the LSF coefficient; combining the first weighting function of the subframe and the second weighting function of the subframe; obtaining a third weighting function of the subframe associated with spectral sensitivity based on an interval between adjacent LSF coefficients; characterized by combining a result of the combining and the third weighting function of the subframe to determine a weighting function of the subframe; quantizing the LSF coefficient based on the weighting function of the subframe; and converting the quantized LSF coefficient to a quantized LPC coefficient.
An amphibious personal watercraft vehicle comprising: a sit-astride seat, a lower planing hull section, an upper deck section comprising one or more deck components, the or at least one of the one or more deck components being demountable, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location, two of the wheels being front steerable wheels (50, 53), which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water. a sit-astride seat, a lower planing hull section, an upper deck section comprising one or more deck components, the or at least one of the one or more deck components being demountable, at least four wheels (50, 51, 52, 53), each of which is movable between an extended land mode location and a retracted water mode location, two of the wheels being front steerable wheels (50, 53), which are, at least in the land mode of the vehicle, connected to a steering control which can be operated by a driver to steer the vehicle, an engine which in the land mode of the vehicle is connected to at least one of the wheels to drive the wheel, and marine propulsion means to propel the vehicle on water.
A header assembly for a leadless biostimulator, comprising: a flange including a flange channel extending along a longitudinal axis; an insulator in the flange channel and including an insulator cavity; an electrode extending longitudinally through the insulator cavity; and a monolithic controlled release device (MCRD) in the insulator cavity, characterized in that the MCRD is within a space radially between the insulator in the flange channel and the electrode to elute therapeutic agent into the space when the leadless biostimulator is implanted. a flange including a flange channel extending along a longitudinal axis; an insulator in the flange channel and including an insulator cavity; an electrode extending longitudinally through the insulator cavity; and a monolithic controlled release device (MCRD) in the insulator cavity, characterized in that the MCRD is within a space radially between the insulator in the flange channel and the electrode to elute therapeutic agent into the space when the leadless biostimulator is implanted.
A thin, low-profile string light engine comprising: a plurality of LEDs; a plurality of IDC connectors, each IDC connector being in electrical communication with at least one of the plurality of LEDs and operatively mechanically connected to at least one of the plurality of LEDs; an insulated flexible conductor including at least two wires, the IDC connectors including a terminal inserted into the conductor, the conductor including a first portion where the IDC connector is inserted into the conductor where the at least two wires reside generally in a first plane and a second portion spaced along a length of the conductor from the first portion, in the second portion the at least two wires reside in a second plane that is at an angle other than 180° as compared to the first plane; an overmolded housing at least partially encapsulating at least one of the plurality of LEDs, at least one of the plurality of IDC connectors and at least a portion of the flexible conductor. a plurality of LEDs; a plurality of IDC connectors, each IDC connector being in electrical communication with at least one of the plurality of LEDs and operatively mechanically connected to at least one of the plurality of LEDs; an insulated flexible conductor including at least two wires, the IDC connectors including a terminal inserted into the conductor, the conductor including a first portion where the IDC connector is inserted into the conductor where the at least two wires reside generally in a first plane and a second portion spaced along a length of the conductor from the first portion, in the second portion the at least two wires reside in a second plane that is at an angle other than 180° as compared to the first plane; an overmolded housing at least partially encapsulating at least one of the plurality of LEDs, at least one of the plurality of IDC connectors and at least a portion of the flexible conductor.
A method of displaying a three-dimensional, 3D, image on an apparatus arranged to display an image selectively in a two-dimensional, 2D, display mode and a three-dimensional display mode, the method comprising: receiving a 3D image; if a first instruction is input in the 2D display mode to change to the 3D display mode, determining a 3D display format to be applied to the received 3D image; if the 3D display format is determined, applying the 3D display format, and displaying the resultant 3D image, the method characterized by: if the 3D display format cannot be determined, displaying the 3D image according to one of the 3D display formats applicable to the 3D image, displaying a Graphic User Interface, GUI, corresponding to the determined format or the one of the formats applicable to the 3D image, along with the 3D image and comprising an indicator to guide the viewer in changing the format, and displaying the 3D image according to another one of the formats applicable to the 3D image if a further instruction is received within a predetermined time of the displaying the GUI. receiving a 3D image; if a first instruction is input in the 2D display mode to change to the 3D display mode, determining a 3D display format to be applied to the received 3D image; if the 3D display format is determined, applying the 3D display format, and displaying the resultant 3D image, the method characterized by: if the 3D display format cannot be determined, displaying the 3D image according to one of the 3D display formats applicable to the 3D image, displaying a Graphic User Interface, GUI, corresponding to the determined format or the one of the formats applicable to the 3D image, along with the 3D image and comprising an indicator to guide the viewer in changing the format, and displaying the 3D image according to another one of the formats applicable to the 3D image if a further instruction is received within a predetermined time of the displaying the GUI. if the 3D display format cannot be determined, displaying the 3D image according to one of the 3D display formats applicable to the 3D image, displaying a Graphic User Interface, GUI, corresponding to the determined format or the one of the formats applicable to the 3D image, along with the 3D image and comprising an indicator to guide the viewer in changing the format, and displaying the 3D image according to another one of the formats applicable to the 3D image if a further instruction is received within a predetermined time of the displaying the GUI.
Vibrating piston pump for liquids applicable in the displacement of fluids, including an electromagnetic system comprising a coil and a metallic structure composed by a "U" shaped piece placed around the said coil, two bushings (7.1, 7.2) placed inside the said coil, a lower plate closure placed below on the open side of the "U" shaped piece and a stud completing the metallic structure; a driver chamber which is positioned inside the coil and the two bushings (7.1, 7.2); a pumping means capable of moving axially and in alternating directions inside the driver chamber composed by a magnetic core and a plunger linked to the top of said magnetic core by a set of semi-housing; an energy exchange system composed by a compression spring positioned below the bottom of the magnetic core and a return spring positioned above the top of the magnetic core; a compression chamber with an inlet and an outlet assembled to the driver chamber and fixed by a fork shape clip characterized in that: the stud is axially aligned and positioned below the bottom of the magnetic core so that this stud is made part of the metallic structure (2, 3, 4, 7.1, 7.2) and the plunger has axial flexibility relative to the magnetic core due to a patella on the side where the plunger is linked to the magnetic core by the set of semi-housings.
A method for depositing an interlayer on a composite material substrate surface, the method comprising: providing a composite material substrate having a surface; depositing an interlayer on the surface, the interlayer having a substrate-proximal layer comprising a first composition, and a surface-proximal layer comprising a second composition, the second composition having a chemical composition different from the first composition, wherein the interlayer is suitable for protecting the substrate during a subsequent thermal spray coating process, wherein the interlayer is substantially silicon oxy-carbide, wherein the interlayer has a varying chemical concentration gradient of at least one chemical element from the substrate-proximal layer to the surface-proximal layer, and wherein the concentration of the at least one chemical element is higher in the substrate-proximal layer than the surface-proximal layer. providing a composite material substrate having a surface; depositing an interlayer on the surface, the interlayer having a substrate-proximal layer comprising a first composition, and a surface-proximal layer comprising a second composition, the second composition having a chemical composition different from the first composition, wherein the interlayer is suitable for protecting the substrate during a subsequent thermal spray coating process, wherein the interlayer is substantially silicon oxy-carbide, wherein the interlayer has a varying chemical concentration gradient of at least one chemical element from the substrate-proximal layer to the surface-proximal layer, and wherein the concentration of the at least one chemical element is higher in the substrate-proximal layer than the surface-proximal layer.
A housing for accommodating a plurality of battery cells, the housing comprising a pair of side plates (113, 513), a bottom plate (114, 514), and at least one bending portion (116, 516) between a respective one of the side plates (113,513) and the bottom plate (114,514), wherein the at least one bending portion (116, 516) protrudes outwardly at least from the side plate.
A process for preparing micro size abiraterone acetate which comprises: a) dissolving abiraterone acetate in a polar aprotic solvent; b) precipitating abiraterone acetate crystals out of the solution by addition of an antisolvent; c) agglomerating said crystals in the presence of a bridging liquid, wherein said bridging liquid is an ether; d) isolating so obtained spherical agglomerates of abiraterone acetate crystals; and e) milling the agglomerates. a) dissolving abiraterone acetate in a polar aprotic solvent; b) precipitating abiraterone acetate crystals out of the solution by addition of an antisolvent; c) agglomerating said crystals in the presence of a bridging liquid, wherein said bridging liquid is an ether; d) isolating so obtained spherical agglomerates of abiraterone acetate crystals; and e) milling the agglomerates.
System with a dishwasher, preferably a household dishwasher, comprising a control device for carrying out a washing program for washing washware arranged in a washing chamber of the dishwasher, a sensor unit for detecting a time curve (R1, R2, R3) of at least one sensor signal of a washing liquor and for outputting the detected time curve (R1, R2, R3) of the at least one sensor signal, a memory unit for storing the time curve (R1, R2, R3) of the at least one sensor signal and an ascertaining unit for ascertaining a temporal functional value (RES, RES1, RES2) on the basis of the time curve (R1, R2, R3) of the at least one sensor signal, wherein the control device is designed to carry out a specified action as a function of the temporal functional value (RES, RES1, RES2), wherein the ascertaining unit is designed to ascertain a washing program functional value as a function of the stored time curve (R1, R2, R3) of the at least one sensor signal for a washing program cycle, to store the washing program functional value and to ascertain a curve of the washing program functional value (SIG1, SIG2) on the basis of the washing program functional value over a plurality of washing program cycles, wherein the control device is designed to carry out the specified action as a function of the ascertained curve of the washing program functional value (SIG1, SIG2), characterised in that the sensor unit has at least two of a turbidity sensor, a conductivity sensor, a temperature sensor and a filter soiling sensor, wherein the ascertaining unit is designed to ascertain the respective washing program functional value as a function of the stored time curve (R1, R2, R3) of the respective signal of the at least two sensor signals for a washing program cycle, to store the respective value of the at least two washing program functional values and to ascertain a statistic on the basis of the respective curve of the at least two washing program functional values over a plurality of washing program cycles, wherein the control device is designed to carry out the specified action as a function of the ascertained statistic.
Machine to work a box-like element (23, 24) or suchlike, wherein that it comprises at least a work apparatus provided with: at least a cutting unit to cut at least a strip-like element positioned on a corresponding lying plane in a first substantially plane configuration; at least a loading unit provided with at least a thrust blade translatable in a first direction; at least a folding and insertion unit provided with a housing seating of the strip-like element, said housing seating being directed substantially in an orthogonal direction with respect to said lying plane of the strip-like element in said first substantially plane configuration, so that following the translation of the thrust blade in said first direction the strip-like element is introduced into said housing seating, assumes a substantial "U" shape and has at least a pair of flaps and at least a connection part, said folding and insertion unit being translatable in a second direction toward the box-like element (23, 24) so as to at least partly insert said pair of flaps in a slit made in the box-like element (23, 24); and at least an attachment unit of part of said flaps of the strip-like element inside said box-like element (23, 24) on which the slit is made, so that at least the connection part protrudes from the box-like element (23, 24).
Device for regulating a steam mass flow rate (ṁ) in a steam turbine, in particular in a low-pressure stage of a steam turbine, wherein the device comprises at least one rotary slide and a further regulating valve characterized in that the rotary slide and the regulating valve are arranged parallel to one another in the flow path, and wherein the device comprises at least one regulating device which determines a pressure difference Δp from the pressure upstream and downstream of the device and which actuates the rotary slide and/or the regulating valve in dependence on the pressure difference Δp.
Method for producing a soft-magnetic core for generators, the method comprising the following steps: - the production of a plurality of magnetically formed sheets of a CoFe alloy or a CoFeV alloy by means of a final annealing process from sheets having a cold-rolling texture; - followed by the stacking the plurality of sheets to form a laminated core; - followed by the structuring of the laminated core of magnetically formed sheets into a soft-magnetic core, wherein the laminated core is structured into a soft-magnetic core by means of an erosion process, preferably by means of a wire erosion process, or by means of chip removal, or by means of water jet cutting, or by means of laser beam cutting or by means of water jet-guided laser beam cutting, characterised in that an electrically insulating coating is applied to at least one side of the magnetically formed sheets before stacking. - the production of a plurality of magnetically formed sheets of a CoFe alloy or a CoFeV alloy by means of a final annealing process from sheets having a cold-rolling texture; - followed by the stacking the plurality of sheets to form a laminated core; - followed by the structuring of the laminated core of magnetically formed sheets into a soft-magnetic core, wherein the laminated core is structured into a soft-magnetic core by means of an erosion process, preferably by means of a wire erosion process, or by means of chip removal, or by means of water jet cutting, or by means of laser beam cutting or by means of water jet-guided laser beam cutting,