mhurhangee/ep-ind-claims huggingface dataset:
A polyaryletherketone resin material for dental use, comprising a polyaryletherketone resin and inorganic particles, and having a b* value of 10.0 or more in terms of colorimetric value of a 1.0 mm molded body in a CIELab color system under a black background condition, wherein the inorganic particles comprise inorganic particles each containing an inorganic pigment, and the inorganic pigment is selected from a yellow inorganic pigment having a maximum absorption wavelength in a range of from 360 to 490 nm in a measurement range of from 360 nm to 830 nm and a brown inorganic pigment having a maximum absorption wavelength in a range of from 490 to 560 nm in a measurement range of from 360 nm to 830 nm.
A method for producing a metal cutting tool component, comprising the steps of - producing a front module, the front module comprising a main body and a front module interface at a rear end, comprising the steps of - providing an intermediate element, comprising providing the front module interface at a rear end and a build surface at a front end thereof, and - building, using an additive manufacturing process, the main body on the build surface of the intermediate element, - providing a rear module comprising providing a coupling part at a rear end and a rear module interface at a front end, - after producing the front module and providing the rear module, mounting the front module on the rear module by immovably connecting the front module interface and the rear module interface, - after the front module has been mounted on the rear module, machining at least one surface of the main body, and - separately heat treating the intermediate element with the built main body, wherein at least the main body is hardened. - producing a front module, the front module comprising a main body and a front module interface at a rear end, comprising the steps of - providing an intermediate element, comprising providing the front module interface at a rear end and a build surface at a front end thereof, and - building, using an additive manufacturing process, the main body on the build surface of the intermediate element, - providing an intermediate element, comprising providing the front module interface at a rear end and a build surface at a front end thereof, and - building, using an additive manufacturing process, the main body on the build surface of the intermediate element, - providing a rear module comprising providing a coupling part at a rear end and a rear module interface at a front end, - after producing the front module and providing the rear module, mounting the front module on the rear module by immovably connecting the front module interface and the rear module interface, - after the front module has been mounted on the rear module, machining at least one surface of the main body, and - separately heat treating the intermediate element with the built main body, wherein at least the main body is hardened.
Point-of-sale system assembly, comprising a product-sensing device for sensing selected products, said product-sensing device comprising a scanner (18, 20, 22) for sensing the products and a first conveyor belt for conveying the products located on the first conveyor belt at least out of the scanning region of the scanner (18, 20, 22), and comprising a packaging device which comprises at least two product-receiving units (32 to 42) which are separate from one another and are intended for receiving the scanned products for making the products available through a customer, wherein the first conveyor belt is driven in such a manner that products resting thereon are conveyed in a first direction, wherein a conveyor device (14, 114) is provided between the first conveyor belt and the packaging device, said conveyor device comprising a second conveyor belt (30, 130), with the aid of which the scanned products after conveying with the aid of the first conveyor belt can be conveyed to the product-receiving units (32 to 42) of the packaging device, wherein the second conveyor belt (30, 130) is driven in such a manner that products resting thereon are conveyed in a second direction, wherein the packaging device is arranged on a side of the conveyor device along the second direction of the second conveyor belt (30, 130), wherein the products are conducted with the aid of deflecting elements to from the second conveyor belt (30, 130) into the respective product-receiving unit (32 to 42), characterized in that the at least two product-receiving units (32 to 42) of the packaging device are separated from one another by a movable partition (32a, 32b, 34a, 34b, 36a, 36b, 38a, 38b, 40a, 40b, 42a, 42b), wherein the receiving volume of the product-receiving units (32 to 42) can be changed by moving the partition (32a, 32b, 34a, 34b, 36a, 36b, 38a, 38b, 40a, 40b, 42a, 42b), in that the deflecting elements (66 to 75) are connected to the packaging device, and in that the product-sensing device, the packaging device and the conveyor device (14, 114) are designed as separate modules which are connectable to one another with the aid of designated intersections via releasable and reproducible connections.
A solar cell module comprising a solar cell panel and an inverter device, the inverter device comprising: an outer case affixed to the solar cell panel; an inner case member located inside the outer case, the inner case member being detachably mounted to the outer case; a circuit board accommodated in the inner case member; a partition member mounted to the circuit board, the partition member partitioning a first surface region of the circuit board off from a second surface region of the circuit board; at least one terminal mounted to the circuit board in the first surface region and configured for electrical connection to one or more electric wire members extending from the solar cell panel; inverter circuitry mounted to the circuit board in the second surface region and electrically connected to the at least one terminal and configured for inverting a direct current supplied by the solar cell panel to an alternating current, the inverter circuitry including one or more DC-AC inverters; a potting material applied in the second surface region to cover the circuit board in the second surface region, wherein the one or more DC-AC inverters are embedded in the potting material, wherein the first surface region is free of the potting material, thereby leaving exposed the at least one terminal. an outer case affixed to the solar cell panel; an inner case member located inside the outer case, the inner case member being detachably mounted to the outer case; a circuit board accommodated in the inner case member; a partition member mounted to the circuit board, the partition member partitioning a first surface region of the circuit board off from a second surface region of the circuit board; at least one terminal mounted to the circuit board in the first surface region and configured for electrical connection to one or more electric wire members extending from the solar cell panel; inverter circuitry mounted to the circuit board in the second surface region and electrically connected to the at least one terminal and configured for inverting a direct current supplied by the solar cell panel to an alternating current, the inverter circuitry including one or more DC-AC inverters; a potting material applied in the second surface region to cover the circuit board in the second surface region, wherein the one or more DC-AC inverters are embedded in the potting material, wherein the first surface region is free of the potting material, thereby leaving exposed the at least one terminal.
A connection device assembly, having an electrical module, which comprises electrical connections (31, 32) and/or a connection, measurement and/or control electronics unit, and having a bearing rail, on which the electrical module is arranged exchangeably and which comprises a heat exchange tube for cooling the electrical module, characterised in that the heat exchange tube is L-shaped or U-shaped, and in that it is arranged at least partially on a side of the electrical module facing towards the bearing rail, wherein the electrical module comprises a first housing part, wherein the heat exchange tube is arranged at least partially on, in particular abuts, a housing underside of the first housing part, and wherein a heat-conductive plate is arranged between the heat exchange tube and the bearing rail.
A diagnostic assistance device configured to generate three-dimensional data of a biological tissue based on tomographic data of the biological tissue, and display the generated three-dimensional data as a three-dimensional image on a display, the diagnostic assistance device comprising: a control unit configured to form, in the three-dimensional data, an opening that exposes an inner wall surface of the biological tissue to an outside of the biological tissue in the three-dimensional image, and adjust a viewpoint when displaying the three-dimensional image on the display according to a position of the formed opening, and, when the position of the opening is to be changed from a first position to a second position, to move the viewpoint from a third position corresponding to the first position to a fourth position corresponding to the second position, characterized by the control unit being further configured to display, on the display, a video in which the viewpoint gradually moves from the third position to the fourth position as the three-dimensional image. a control unit configured to form, in the three-dimensional data, an opening that exposes an inner wall surface of the biological tissue to an outside of the biological tissue in the three-dimensional image, and adjust a viewpoint when displaying the three-dimensional image on the display according to a position of the formed opening, and, when the position of the opening is to be changed from a first position to a second position, to move the viewpoint from a third position corresponding to the first position to a fourth position corresponding to the second position, characterized by the control unit being further configured to display, on the display, a video in which the viewpoint gradually moves from the third position to the fourth position as the three-dimensional image.
A thermal-to-electric conversion apparatus, comprising a hot surface (S H) juxtaposed to a cold surface (S C) separated by a gas-filled or vacuum gap (g): characterized by: • the hot surface (S H) comprising hot side dipoles for transferring excitation energy across the gap by Coulomb electrostatic coupling to promote cold side carriers; and • the cold surface (S C) comprising an array of one or more cold side converter elements, each cold side converter element comprising one or more cold side carriers that can be supplied from one or more first cold side reservoirs (r 1) to one or more first cold side quantum wells (W C1), the one or more cold side carriers being promoted from a lower energy level (state 1) to a higher energy level (state 2) by the transferred excitation energy. • the hot surface (S H) comprising hot side dipoles for transferring excitation energy across the gap by Coulomb electrostatic coupling to promote cold side carriers; and • the cold surface (S C) comprising an array of one or more cold side converter elements, each cold side converter element comprising one or more cold side carriers that can be supplied from one or more first cold side reservoirs (r 1) to one or more first cold side quantum wells (W C1), the one or more cold side carriers being promoted from a lower energy level (state 1) to a higher energy level (state 2) by the transferred excitation energy.
A method for communication, the method comprising: in a Bluetooth low energy device: filtering packets received from an advertising BLE device (110, 120), wherein said filtering utilizes hardware of said BLE device (130, 140, 150, 160, 170, 200); if said advertising BLE device (110, 120) is not identified by said hardware filtering, filtering said received packets from said advertising BLE device (110, 120) utilizing firmware of said BLE device (130, 140, 150, 160, 170, 200); and concurrently supporting Resolvable Private Address resolution and white listing during said filtering. in a Bluetooth low energy device: filtering packets received from an advertising BLE device (110, 120), wherein said filtering utilizes hardware of said BLE device (130, 140, 150, 160, 170, 200); if said advertising BLE device (110, 120) is not identified by said hardware filtering, filtering said received packets from said advertising BLE device (110, 120) utilizing firmware of said BLE device (130, 140, 150, 160, 170, 200); and concurrently supporting Resolvable Private Address resolution and white listing during said filtering. filtering packets received from an advertising BLE device (110, 120), wherein said filtering utilizes hardware of said BLE device (130, 140, 150, 160, 170, 200); if said advertising BLE device (110, 120) is not identified by said hardware filtering, filtering said received packets from said advertising BLE device (110, 120) utilizing firmware of said BLE device (130, 140, 150, 160, 170, 200); and concurrently supporting Resolvable Private Address resolution and white listing during said filtering.
An absorbable implantable device comprising: an iron-based substrate having an outer wall and an inner wall, the absorbable implantable device further comprising a zinc-containing protective layer and a corrosion promoting layer disposed on the iron-based substrate, the zinc-containing protective layer completely covers the inner wall of the iron-based substrate and the zinc-containing protective layer at least partially covers the outer wall of the iron-based substrate; the corrosion promoting layer covers the zinc-containing protective layer, completely covers the outer wall of the iron-based substrate and at least partially covers the inner wall of the iron-based substrate, a thickness ratio of the zinc-containing protective layer located on the outer wall to the corrosion promoting layer located on the outer wall is less than a thickness ratio of the zinc-containing protective layer located on the inner wall to the corrosion promoting layer located on the inner wall, and wherein the absorbable implantable device is a stent. the zinc-containing protective layer completely covers the inner wall of the iron-based substrate and the zinc-containing protective layer at least partially covers the outer wall of the iron-based substrate; the corrosion promoting layer covers the zinc-containing protective layer, completely covers the outer wall of the iron-based substrate and at least partially covers the inner wall of the iron-based substrate, a thickness ratio of the zinc-containing protective layer located on the outer wall to the corrosion promoting layer located on the outer wall is less than a thickness ratio of the zinc-containing protective layer located on the inner wall to the corrosion promoting layer located on the inner wall, and wherein the absorbable implantable device is a stent.
A method for constructing an optical model of an individual's eye using a plenoptic opthalmic camera, the method comprising: the plenoptic opthalmic camera capturing in vivo a plenoptic image of a corneal anterior surface of the individual's eye; the plenoptic opthalmic camera operating as a wavefront sensor to measure in vivo a wavefront produced by the individual's eye; and generating the optical model of the individual's eye based on the captured plenoptic image and the measured wavefront characterised in that the optical model for the individual's eye includes an optical model of the corneal anterior surface of the individual's eye, and generating the optical model of the corneal anterior surface comprises: calculating a disparity map for the captured plenoptic image; and generating a depth map of the corneal anterior surface based on the disparity map. the plenoptic opthalmic camera capturing in vivo a plenoptic image of a corneal anterior surface of the individual's eye; the plenoptic opthalmic camera operating as a wavefront sensor to measure in vivo a wavefront produced by the individual's eye; and generating the optical model of the individual's eye based on the captured plenoptic image and the measured wavefront characterised in that the optical model for the individual's eye includes an optical model of the corneal anterior surface of the individual's eye, and generating the optical model of the corneal anterior surface comprises: calculating a disparity map for the captured plenoptic image; and generating a depth map of the corneal anterior surface based on the disparity map. calculating a disparity map for the captured plenoptic image; and generating a depth map of the corneal anterior surface based on the disparity map.
An arrangement for determining the angular position of a shaft, wherein the arrangement has - a housing part, - a bearing, - a fan impeller, - a printed circuit board - and a shaft, wherein the shaft is mounted in the housing part with at least the bearing, wherein the fan impeller is connected non-rotatably to the shaft, wherein the printed circuit board is fastened to the housing part, wherein the normal direction of the printed circuit board is oriented parallel to the shaft axis, wherein the printed circuit board is arranged between the housing part and the fan impeller, wherein - magnetised regions of a pole disc which is manufactured from ferrite material are provided on that side of the fan impeller, manufactured from plastics material, which is arranged towards the printed circuit board, which regions can be detected by sensors arranged on the printed circuit board, so that the angle value of the shaft can be acquired, wherein the magnetised regions form three concentric tracks and at least one sensor on the printed circuit board is associated with each track, wherein the axial direction of magnetisation is embodied in alternating manner in each track in the peripheral direction, characterised in that - a further permanent magnet is arranged on the fan impeller, with which magnet on the printed circuit board a sensor for acquiring the number of revolutions is associated, - an angular acceleration sensor is connected to the printed circuit board, which sensor comprises an electrically conductive ring which is connected non-rotatably to the fan impeller, the values acquired by the sensors, i.e. angle value, angular acceleration value and number-of-revolutions value, being transmitted via the same communication interface to a further electronic circuit, the ring of the angular acceleration sensor being connected to the fan impeller by a material-formed bond. - a housing part, - a bearing, - a fan impeller, - a printed circuit board - and a shaft, - magnetised regions of a pole disc which is manufactured from ferrite material are provided on that side of the fan impeller, manufactured from plastics material, which is arranged towards the printed circuit board, which regions can be detected by sensors arranged on the printed circuit board, so that the angle value of the shaft can be acquired, - a further permanent magnet is arranged on the fan impeller, with which magnet on the printed circuit board a sensor for acquiring the number of revolutions is associated, - an angular acceleration sensor is connected to the printed circuit board, which sensor comprises an electrically conductive ring which is connected non-rotatably to the fan impeller,
A hair care composition comprising: a) from 5 to 40 wt.% of the hair care composition of one or more detersive surfactants wherein less than 10 wt.% of the hair care composition comprises a linear anionic surfactant selected from the group consisting of: alkyl sulfates where R is a linear C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a linear C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof, wherein one of the detersive surfactant is a branched anionic surfactant selected from the group consisting of: alkyl sulfates where R is a branched C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a branched C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof; b) a carrier comprising one or more polyols and water, wherein the carrier comprises from 40 to 70 wt.% of the hair care composition of one or more polyols, and from 9% to 75% by weight of the hair care composition of water; and wherein the weight ratio of one or more polyols to water is 0.4 or higher. a) from 5 to 40 wt.% of the hair care composition of one or more detersive surfactants wherein less than 10 wt.% of the hair care composition comprises a linear anionic surfactant selected from the group consisting of: alkyl sulfates where R is a linear C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a linear C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof, wherein one of the detersive surfactant is a branched anionic surfactant selected from the group consisting of: alkyl sulfates where R is a branched C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a branched C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof; alkyl sulfates where R is a linear C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a linear C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof, alkyl sulfates where R is a branched C 8 -C 24 alkyl and M + is monovalent cation; alkyl ether sulfates where R is a branched C 8 -C 24 alkyl, n=1-2, and M + is monovalent cation; and mixtures thereof; b) a carrier comprising one or more polyols and water, wherein the carrier comprises from 40 to 70 wt.% of the hair care composition of one or more polyols, and from 9% to 75% by weight of the hair care composition of water; and wherein the weight ratio of one or more polyols to water is 0.4 or higher.
Closable pourer for a container, having an upwardly open pouring nozzle, which forms a pouring channel and onto the external thread of which a covering cap is screwed by way of its internal thread, wherein the pouring channel of the pouring nozzle has incorporated in it in a height-adjustable manner a sealing stopper, which closes the pouring channel and is retained on the cap, and therefore the operation of screwing the cap on results in the sealing stopper being drawn upwards, and wherein the sealing stopper is guided in a rotationally fixed manner in the pouring channel of the pouring nozzle, characterized - in that, instead of an upper base, the cap has an upper opening, in which the sealing stopper is incorporated by way of its upper end, and - in that the upper end of the sealing stopper has at least one tamperproof part, which breaks off or breaks open when the cap is unscrewed in relation to the sealing stopper, which is guided in a rotationally fixed manner. - in that, instead of an upper base, the cap has an upper opening, in which the sealing stopper is incorporated by way of its upper end, and - in that the upper end of the sealing stopper has at least one tamperproof part, which breaks off or breaks open when the cap is unscrewed in relation to the sealing stopper, which is guided in a rotationally fixed manner.