mhurhangee/ep-ind-claims huggingface dataset:
Cutting tool for face milling a workpiece perpendicularly to the axis of the cutting tool, the cutting tool comprising: - a tool body comprising a first and a second insert pocket (62, 64; 64, 66; 66, 68) each for the fixing of one cutting insert (32, 34, 36, 38); - a first and a second cutting insert (32, 34; 34, 36; 36, 38) able to be fixed in the first and second insert pockets (62, 64; 64, 66; 66, 68) respectively, first and second cutting inserts (32, 34; 34, 36; 36, 38) and insert pockets (62, 64; 64, 66; 66, 68) being designed such that, when first and second cutting inserts (32, 34; 34, 36; 36, 38) are fixed within the corresponding insert pocket (62, 64, 66, 68), each cutting insert (32, 34, 36, 38) presents: - a primary cutting edge for radial machining of the workpiece, - a secondary cutting edge associated to the primary cutting edge, and the intersection between the primary cutting edge and the secondary cutting edge of the second cutting insert (34; 36; 38) being axially inwardly and radially outwardly offset from the intersection between the primary cutting edge and the secondary cutting edge of the first cutting insert (32; 34; 36); characterised in that the secondary cutting edge being a wiper edge for axial machining of the workpiece, and a lead angle (Kr) of each cutting inserts (32, 34, 36, 38) defined between the primary and the secondary cutting edge (40, 44) being lower than 30°. - a tool body comprising a first and a second insert pocket (62, 64; 64, 66; 66, 68) each for the fixing of one cutting insert (32, 34, 36, 38); - a first and a second cutting insert (32, 34; 34, 36; 36, 38) able to be fixed in the first and second insert pockets (62, 64; 64, 66; 66, 68) respectively, first and second cutting inserts (32, 34; 34, 36; 36, 38) and insert pockets (62, 64; 64, 66; 66, 68) being designed such that, when first and second cutting inserts (32, 34; 34, 36; 36, 38) are fixed within the corresponding insert pocket (62, 64, 66, 68), each cutting insert (32, 34, 36, 38) presents: - a primary cutting edge for radial machining of the workpiece, - a secondary cutting edge associated to the primary cutting edge, and the intersection between the primary cutting edge and the secondary cutting edge of the second cutting insert (34; 36; 38) being axially inwardly and radially outwardly offset from the intersection between the primary cutting edge and the secondary cutting edge of the first cutting insert (32; 34; 36); characterised in that the secondary cutting edge being a wiper edge for axial machining of the workpiece, and a lead angle (Kr) of each cutting inserts (32, 34, 36, 38) defined between the primary and the secondary cutting edge (40, 44) being lower than 30°. - a primary cutting edge for radial machining of the workpiece, - a secondary cutting edge associated to the primary cutting edge, and
Thermal module for use on a spacecraft to control thermal loads coming from a heat source comprising a two-phase loop system and a heat rejection system, the two-phase loop system comprising a thermal collector, a heat flow regulator, a by-pass line and a condenser, the condenser and the heat rejection system being thermally coupled, such that the heat flow regulator of the two-phase loop system redirects part of the thermal loads from the heat source to the condenser, from which the heat rejection system directs said thermal loads to a heat sink, the temperature of the heat source being regulated by bypassing another part of the thermal loads back to the thermal collector through the by-pass line in a proportional manner, to avoid the heat source overcooling, the heat rejection system being designed based on the hottest possible conditions for the spacecraft mission, characterized in that the heat flow regulator comprises two chambers (31, 32) separated by contraction bellows, the main chamber being part of the two-phase loop system to control circulation of the thermal loads, and the second chamber being used to regulate the temperature set-up point of the thermal module.
An image processing apparatus (10, 20) comprising: an image capturing unit; an acquisition unit configured to acquire a plurality of first images that correspond to a plurality of patterns on a one-to-one basis, wherein each pattern corresponds to a different distance between the image capturing unit and a target object; a generation unit configured to generate a second image by combining the first images acquired by the acquisition unit, wherein the image capturing unit is configured to capture images of the target object having the second image displayed thereon under the condition that the distance between the image capturing unit and the target object is set to a previously determined first distance and to capture images of the target object having the second image displayed thereon under the condition that the distance between the image capturing unit and the target object is set to a previously determined second distance; and a calculation unit configured to calculate correction parameters for use in correcting captured images obtained by image capturing with the image capturing unit, based on the captured images obtained by image capturing and on the previously determined first and second distance between the image capturing unit and the target object, wherein the second image is generated so as to contain patterns corresponding to at least the previously determined first distance and the previously determined second distance. an image capturing unit; an acquisition unit configured to acquire a plurality of first images that correspond to a plurality of patterns on a one-to-one basis, wherein each pattern corresponds to a different distance between the image capturing unit and a target object; a generation unit configured to generate a second image by combining the first images acquired by the acquisition unit, wherein the image capturing unit is configured to capture images of the target object having the second image displayed thereon under the condition that the distance between the image capturing unit and the target object is set to a previously determined first distance and to capture images of the target object having the second image displayed thereon under the condition that the distance between the image capturing unit and the target object is set to a previously determined second distance; and a calculation unit configured to calculate correction parameters for use in correcting captured images obtained by image capturing with the image capturing unit, based on the captured images obtained by image capturing and on the previously determined first and second distance between the image capturing unit and the target object, wherein the second image is generated so as to contain patterns corresponding to at least the previously determined first distance and the previously determined second distance.
A load bearing assistance apparatus for transferring load from a lower extremity orthotic or prosthetic device to the ground, comprising: a lateral and a medial (12a, 22a, 12b, 22b) spring-loaded members; and a linking mechanism for connecting the load bearing assistance apparatus to the lower extremity orthotic or prosthetic device and connecting the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members in a spaced apart configuration so as to position the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members adjacent a lateral and a medial portions, respectively, of a foot of a user of the lower extremity orthotic or prosthetic device and such as a portion of the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members enters in contact with the ground during locomotion; wherein in use the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members transfer the load from the lower extremity orthotic or prosthetic device to the ground.. a lateral and a medial (12a, 22a, 12b, 22b) spring-loaded members; and a linking mechanism for connecting the load bearing assistance apparatus to the lower extremity orthotic or prosthetic device and connecting the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members in a spaced apart configuration so as to position the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members adjacent a lateral and a medial portions, respectively, of a foot of a user of the lower extremity orthotic or prosthetic device and such as a portion of the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members enters in contact with the ground during locomotion; wherein in use the lateral and medial (12a, 22a, 12b, 22b) spring-loaded members transfer the load from the lower extremity orthotic or prosthetic device to the ground..
A metal-ion battery, comprising: a positive electrode, wherein the positive electrode comprises intercalated carbon material; a first negative electrode; a first separator disposed between the positive electrode and the first negative electrode; a second negative electrode; a second separator disposed between the first negative electrode and the second negative electrode; an electrolyte, wherein the electrolyte comprises an ionic liquid and a metal halide; and a control element coupled to the first negative electrode and the second negative electrode, wherein the control element determines whether to electrically connect the first negative electrode to the second negative electrode, the first negative electrode comprises a first metal or an alloy thereof and the second negative electrode comprises a second metal, the reduction potential of the second metal is smaller than the reduction potential of the first metal, and the first metal is nickel and the second metal is aluminum, zinc, or iron. a positive electrode, wherein the positive electrode comprises intercalated carbon material; a first negative electrode; a first separator disposed between the positive electrode and the first negative electrode; a second negative electrode; a second separator disposed between the first negative electrode and the second negative electrode; an electrolyte, wherein the electrolyte comprises an ionic liquid and a metal halide; and a control element coupled to the first negative electrode and the second negative electrode, wherein the control element determines whether to electrically connect the first negative electrode to the second negative electrode, the first negative electrode comprises a first metal or an alloy thereof and the second negative electrode comprises a second metal, the reduction potential of the second metal is smaller than the reduction potential of the first metal, and the first metal is nickel and the second metal is aluminum, zinc, or iron.
Measuring system comprising a measuring probe for use in contact with a process material, comprising: • a measurement signal circuit; • a test signal circuit; • an electrode provided with a sensing element arranged so as to deliver a measurement signal into the measurement signal circuit, the electrode voltage being related to at least one property of the process material when the electrode is in contact with the process material; • a signal-processing unit adapted to determine a measurement quantity related to the at least one property of the process material during operation of the measuring probe according to the measurement signal; • a signal source configured to deliver, during a verification phase, a test signal into the test signal circuit; • a coupling element arranged to modulate the electrode voltage U E with the test signal SIG and to ensure galvanic isolation between the measurement signal circuit and the test signal circuit. • a measurement signal circuit; • a test signal circuit; • an electrode provided with a sensing element arranged so as to deliver a measurement signal into the measurement signal circuit, the electrode voltage being related to at least one property of the process material when the electrode is in contact with the process material; • a signal-processing unit adapted to determine a measurement quantity related to the at least one property of the process material during operation of the measuring probe according to the measurement signal; • a signal source configured to deliver, during a verification phase, a test signal into the test signal circuit; • a coupling element arranged to modulate the electrode voltage U E with the test signal SIG and to ensure galvanic isolation between the measurement signal circuit and the test signal circuit.
An automatic machine for bending and/or calendering spacer profiles intended to form spacer frames (4, 4', 4") for an insulating glazing unit composed of: a carriage or a belt feeder for the synchronous movement of the spacer profile upstream of a bending head; a bending head composed of a matrix that consists of jaws (401a, 401p) that are adjustable as a function of the width of the spacer profile and of a punch that can be moved toward the inside curve of said profile; a bending lever directly downstream of the punch that is provided with a synchronous rotary motion (ω); the coordinated operation of all these mechanisms actuating the bending and/or calendering of the spacer profiles, characterized in that downstream of the bending head there is arranged a mechanism that mates with and retains the initial portion of the spacer frame (3, 3', 3"), configured for supporting said initial portion and movably guiding said initial portion during all the operating steps of bending and/or calendering along a path that is synchronous with the geometric position described by said initial portion of the spacer frame during the forming of the spacer frame (3, 3', 3") performed by the feeder and by the bending head.
A toughener for a thermosetting resin comprising: a linear block copolymer comprising a plurality of alternating units of polydimethylsiloxane and bisphenol A poly(ethylene oxide) bis-propyl ether arranged in a sequence of - z A-, where A is the polydimethylsiloxane, B is the bisphenol A poly(ethylene oxide) bis-propyl ether, and z is a number between 1 and 100; and two acrylate functional groups, where one acrylate functional group is positioned on one end of the linear block copolymer and the other acrylate functional group is positioned on the other end of the linear block copolymer. a linear block copolymer comprising a plurality of alternating units of polydimethylsiloxane and bisphenol A poly(ethylene oxide) bis-propyl ether arranged in a sequence of - z A-, where A is the polydimethylsiloxane, B is the bisphenol A poly(ethylene oxide) bis-propyl ether, and z is a number between 1 and 100; and two acrylate functional groups, where one acrylate functional group is positioned on one end of the linear block copolymer and the other acrylate functional group is positioned on the other end of the linear block copolymer.
Multi-platform wind tower, of the type consisting of a series of vertical segments of concrete sections obtained by joining two or more concrete segments, and wherein the various segments participating in the tower present a frustoconical configuration, with a different inclination for each segment, such that a broken profile is obtained, characterized in that the profile of the tower geometrically corresponds to a load envelope that is valid for a set of different turbines, such that in order to secure the various turbines to the top end or coronation of the tower a number of adaptors or reels (4, 4') have been included embodied as a metal body, where the lower base thereof has a diameter matching the invariable diameter of the upper end or coronation of the tower and the upper base has the specific diameter of the turbine to install, these adaptors being provided with means for securing them to the tower coronation and to the turbine, at their upper and lower bases.
CT imaging system for determining the flow of a substance within an object, comprising: - a polychromatic X-ray source for emitting polychromatic X-ray radiation, - an energy-resolving X-ray detector for obtaining detection signals (d i) depending on the X-ray radiation after passing through the object, - a calculation unit for determining a k-edge component of the substance from the detection signals (d i), - a reconstruction unit for reconstructing a time series of k-edge images from the determined k-edge component, - a flow determination unit for determining flow values indicative for the flow within the object from the time series of k-edge images. - a polychromatic X-ray source for emitting polychromatic X-ray radiation, - an energy-resolving X-ray detector for obtaining detection signals (d i) depending on the X-ray radiation after passing through the object, - a calculation unit for determining a k-edge component of the substance from the detection signals (d i), - a reconstruction unit for reconstructing a time series of k-edge images from the determined k-edge component, - a flow determination unit for determining flow values indicative for the flow within the object from the time series of k-edge images.
A pharmaceutical composition comprising a mixture of: (a) an immunostimulatory polypeptide capable of activating CD40; and (b) polyglutamic acid nanoparticles; in a pharmaceutically acceptable diluent, carrier or excipient. (a) an immunostimulatory polypeptide capable of activating CD40; and (b) polyglutamic acid nanoparticles;
A counter-flow heat exchanger defining a centerline, the counter-flow heat exchanger comprising: a first fluid path, wherein the first fluid path comprises a first supply tube connected to a first transition area separating the first fluid path into a first array of first passageways, and wherein the first array of first passageways merge at a first converging area into a first discharge tube; and a second fluid path, wherein the second fluid path comprises a second supply tube connected to a second transition area separating the second fluid path into a second array of second passageways, and wherein the second array of second passageways merge at a second converging area into a second discharge tube, wherein the first passageways and the second passageways have a substantially helical path around the centerline of the counter-flow heat exchanger, and wherein the first array and the second array are arranged together such that each first passageway is adjacent to at least one second passageway, characterized in that the first passageways and the second passageways alternate moving outwardly in the radial direction from the centerline, wherein each first passageway is separated from an adjacent second passageway by a dividing wall, wherein the dividing wall has a first surface that defines a side surface of the first passageway and a second surface that defines a side surface of the second passageway, wherein the first fluid path and the second fluid path and an outer wall encasing are additively manufactured as a single, integrated component. a first fluid path, wherein the first fluid path comprises a first supply tube connected to a first transition area separating the first fluid path into a first array of first passageways, and wherein the first array of first passageways merge at a first converging area into a first discharge tube; and a second fluid path, wherein the second fluid path comprises a second supply tube connected to a second transition area separating the second fluid path into a second array of second passageways, and wherein the second array of second passageways merge at a second converging area into a second discharge tube, wherein the first passageways and the second passageways have a substantially helical path around the centerline of the counter-flow heat exchanger, and wherein the first array and the second array are arranged together such that each first passageway is adjacent to at least one second passageway, characterized in that the first passageways and the second passageways alternate moving outwardly in the radial direction from the centerline, wherein each first passageway is separated from an adjacent second passageway by a dividing wall, wherein the dividing wall has a first surface that defines a side surface of the first passageway and a second surface that defines a side surface of the second passageway, wherein the first fluid path and the second fluid path and an outer wall encasing are additively manufactured as a single, integrated component.
A sludge condensing machine comprising: a gravity filtration section conducting a gravity filtering to a sludge while conveying the sludge on an upper surface of a filtration body (12; 78); a screw (24a, 24b; 56a, 56b) disposed at a downstream side of a sludge insertion position of the gravity filtration section, the screw including a screw shaft extending in a direction intersecting a conveying direction in which the sludge is conveyed by the filtration body (12; 78) and crossing the filtration body in the width direction of the filtration body, and a screw blade (30a, 30b) provided on the outer surface of the screw shaft; characterized by guide plates (26a, 26b) standing at a downstream side of the screw (24a, 24b; 56a, 56b) and extending in the direction intersecting the conveying direction, configured to block the sludge and to introduce the sludge to the screw, wherein the screw (24a, 24b; 56a, 56b) is configured to reduce a dimension of the sludge in the width direction of the filtration body (12; 78) by moving the sludge in the direction intersecting the conveying direction by rotation of the screw blade (30a, 30b). a gravity filtration section conducting a gravity filtering to a sludge while conveying the sludge on an upper surface of a filtration body (12; 78); a screw (24a, 24b; 56a, 56b) disposed at a downstream side of a sludge insertion position of the gravity filtration section, the screw including a screw shaft extending in a direction intersecting a conveying direction in which the sludge is conveyed by the filtration body (12; 78) and crossing the filtration body in the width direction of the filtration body, and a screw blade (30a, 30b) provided on the outer surface of the screw shaft; characterized by guide plates (26a, 26b) standing at a downstream side of the screw (24a, 24b; 56a, 56b) and extending in the direction intersecting the conveying direction, configured to block the sludge and to introduce the sludge to the screw, wherein the screw (24a, 24b; 56a, 56b) is configured to reduce a dimension of the sludge in the width direction of the filtration body (12; 78) by moving the sludge in the direction intersecting the conveying direction by rotation of the screw blade (30a, 30b).