mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a propulsion operation of a propulsion unit to reach a desired speed of a marine vessel upon acceleration, the method comprising obtaining a target speed configuration indicating the desired speed, obtaining a current speed value associated with a current speed of the marine vessel, obtaining a fill level value associated with a fill level of one or more ballast tanks (310a, 310b, 310c) of the marine vessel, and controlling the propulsion operation of the propulsion unit to reach the desired speed based on the target speed configuration, the current speed value, and on the fill level value, characterized in that if the fill level value is increasing then also increasing the propulsion power of the propulsion unit to account for added resistivity. obtaining a target speed configuration indicating the desired speed, obtaining a current speed value associated with a current speed of the marine vessel, obtaining a fill level value associated with a fill level of one or more ballast tanks (310a, 310b, 310c) of the marine vessel, and controlling the propulsion operation of the propulsion unit to reach the desired speed based on the target speed configuration, the current speed value, and on the fill level value, characterized in that if the fill level value is increasing then also increasing the propulsion power of the propulsion unit to account for added resistivity.
Antenna device for the transmission of data of a level transmitter comprising at least two, preferably three, coil arrangements ( i = 1, 2,...n), wherein the coil arrangements i = 1, 2,...n have a coil length (/ i) and a coil diameter ( d i), wherein the coil diameter ( d i) is less than the corresponding coil length ( l i), wherein the coil arrangements ( i = 1, 2,...n) each cut a straight (e) in such a way that the straight (e) and the longitudinal axis of the coil arrangements ( i = 1, 2,...n) have, at the point of intersection, a smaller angle of intersection (g) of at least 60°, preferably at least 75° and particularly preferably of at least 85°, wherein the point of intersection of each coil arrangement ( i = 1, 2,...n) is arranged at a point between 1/3 l i and 2/3 l i,, preferably between 2/5 l i and 3/5 l i, particularly preferably between 3/7 l i and 4/7 l i, wherein the at least two, preferably three, coil arrangements ( i = 1, 2,...n) are arranged along this straight (e) in a sequence in which the coil length l i of the coil arrangements ( i = 1, 2,...n) decreases monotonically l 1 > l 2 > l n, wherein the at least two, preferably three, coil arrangements ( i = 1, 2,...n) each has a distance ( s i) along the straights (e) between the coil arrangement ( i) and ( i + 1), said distance being at the very maximum just as large as the coil length ( l i), preferably at the very maximum half the size, and particularly preferably at the very maximum a quarter the size of the coil length ( l i), wherein the coil arrangements ( i = 1, 2,...n) have one or more coil cores (B, D), and wherein the coil cores (B, D) of the coil arrangements ( i = 1, 2,...n) are designed as permanent magnets.
A light deflection device comprising a photonic crystal waveguide having a waveguide core and having a lattice array with low refractive index parts periodically arranged in a surface of a high refractive-index member, wherein the waveguide core is configured by providing a section devoid of the low refractive index parts, wherein light propagates in the waveguide core in the longitudinal direction and is radiated to the outside via the waveguide core, wherein the lattice array includes a dual-periodic structure including a first periodic array and a second periodic array different from each other in periodic arrangement of the low refractive index parts, characterised in that the low refractive index parts have an asymmetrical cross-sectional shape with reference to a thickness direction in at least either of the first and second periodic arrays of the dual-periodic structure, and thereby increasing intensity of radiation of light in one direction of a thickness directions. the lattice array includes a dual-periodic structure including a first periodic array and a second periodic array different from each other in periodic arrangement of the low refractive index parts, characterised in that the low refractive index parts have an asymmetrical cross-sectional shape with reference to a thickness direction in at least either of the first and second periodic arrays of the dual-periodic structure, and thereby increasing intensity of radiation of light in one direction of a thickness directions.
A method for improving forwarding efficiency of a virtual private LAN services, "VPLS", network, comprising: a root node provider edge "PE" in the VPLS network establishing a point-to-multipoint pseudo wire, "P2MP PW", to leaf nodes PE within the same VPLS; the root node provider edge "PE" in the VPLS network transmitting at least one of broadcast message, multicast message and unknown unicast message to the leaf nodes PE within the same VPLS through the point-to-multipoint pseudo wire "P2MP PW", wherein all or part of the PEs in the VPLS network transmits at least one of the broadcast message, multicast message and unknown unicast message through the P2MP PW; characterized in that, after receiving the at least one of broadcast message, multicast message and unknown unicast message sent by the root node PE through the P2MP PW, the leaf node PE forwarding the at least one of broadcast message, multicast message and unknown unicast message to all recipient custom edges "CEs" connected with the leaf node PE, and learning a source media access control "MAC" address of the at least one of broadcast message, multicast message and unknown unicast message, thus forming a MAC forwarding table corresponding to a unicast message by taking the source MAC address of the at least one of broadcast message, multicast message and unknown unicast message as an index entry of the MAC forwarding table and a point-to-point pseudo wire "P2P PW" between present leaf node PE and the root node PE as an output interface. a root node provider edge "PE" in the VPLS network establishing a point-to-multipoint pseudo wire, "P2MP PW", to leaf nodes PE within the same VPLS; the root node provider edge "PE" in the VPLS network transmitting at least one of broadcast message, multicast message and unknown unicast message to the leaf nodes PE within the same VPLS through the point-to-multipoint pseudo wire "P2MP PW", wherein all or part of the PEs in the VPLS network transmits at least one of the broadcast message, multicast message and unknown unicast message through the P2MP PW; characterized in that, after receiving the at least one of broadcast message, multicast message and unknown unicast message sent by the root node PE through the P2MP PW, the leaf node PE forwarding the at least one of broadcast message, multicast message and unknown unicast message to all recipient custom edges "CEs" connected with the leaf node PE, and learning a source media access control "MAC" address of the at least one of broadcast message, multicast message and unknown unicast message, thus forming a MAC forwarding table corresponding to a unicast message by taking the source MAC address of the at least one of broadcast message, multicast message and unknown unicast message as an index entry of the MAC forwarding table and a point-to-point pseudo wire "P2P PW" between present leaf node PE and the root node PE as an output interface.
A method for preparation of an oil-in-water emulsion comprising the steps: a) providing an aqueous dispersion of cellulosic fibres at a concentration ranging from 1 to 5% by weight, wherein the cellulosic fibres are water-insoluble citrus fibres, wherein the concentration of oil is maximally 1% by weight, and wherein the dispersion has been subjected to a heating process at a temperature of at least 30°C; and b) optionally homogenising the dispersion from step a) in a high pressure homogeniser at a pressure of at least 250 bar; c) mixing the dispersion from step a) or, in case step b) has been performed the dispersion from step b), with 20% to 80% by weight of water, 5% to 70% by weight of oil, 0.1% to 5% by weight of one or more food acids, and 0% to 10% by weight of dry matter from other edible ingredients, to prepare a pre-emulsion having a pH ranging from 2 to 5; and d) homogenising the mixture from step c) to produce the emulsion having oil droplets with a volume weighted geometric mean droplet size D3,3 of less than 10 micrometer, and in case the mixture from step a) has been combined with the other ingredients of the emulsion in step c), without performing step b), then homogenisation is performed in a high pressure homogeniser at a pressure of at least 350 bar, preferably at least 450 bar. a) providing an aqueous dispersion of cellulosic fibres at a concentration ranging from 1 to 5% by weight, wherein the cellulosic fibres are water-insoluble citrus fibres, wherein the concentration of oil is maximally 1% by weight, and wherein the dispersion has been subjected to a heating process at a temperature of at least 30°C; and b) optionally homogenising the dispersion from step a) in a high pressure homogeniser at a pressure of at least 250 bar; c) mixing the dispersion from step a) or, in case step b) has been performed the dispersion from step b), with 20% to 80% by weight of water, 5% to 70% by weight of oil, 0.1% to 5% by weight of one or more food acids, and 0% to 10% by weight of dry matter from other edible ingredients, to prepare a pre-emulsion having a pH ranging from 2 to 5; and d) homogenising the mixture from step c) to produce the emulsion having oil droplets with a volume weighted geometric mean droplet size D3,3 of less than 10 micrometer, and in case the mixture from step a) has been combined with the other ingredients of the emulsion in step c), without performing step b), then homogenisation is performed in a high pressure homogeniser at a pressure of at least 350 bar, preferably at least 450 bar.
Method for at least partially extracting a mould core forming at least one undercut from an injection-moulding tool, wherein the mould core comprises an inner core and a number of segments (18.1 to 18.8) arranged around the inner core, wherein the inner core is moved along a central longitudinal axis of the mould core, wherein at least one group of first segments (18.1, 18.2, 18.7, 18.8) being moved in a movement direction (17, 19) perpendicular to the central longitudinal axis, and at least one group of second segments (18.3, 18.4, 18.5, 18.6) being moved in at least two movement directions (24, 25, 26, 27) on at least one plane, the vector of which is being arranged in parallel to the central longitudinal axis, wherein the movements into the at least two movement directions (24, 25, 26, 27) are in chronological order.
A silencer for an exhaust system of an internal combustion engine, - with a housing which has a casing running in circumferential direction, - with a Helmholtz resonator, which is not flowed through by the exhaust gas and which has a resonator chamber and a resonator pipe, - wherein the resonator chamber is delimited radially by the casing and axially by an intermediate base, which is arranged axially between two axial ends of the housing, - wherein the resonator pipe penetrates the intermediate base, characterized in - that the resonator pipe is axially fastened to the intermediate base by means of a form- and/or force-fitting connection, - that the resonator pipe in the resonator chamber is equipped with an overpipe, which encloses an end section of the resonator pipe and which is closed at an end facing away from the intermediate base, - that the resonator pipe is fluidically connected with the resonator chamber through an intermediate space formed radially between the overpipe and the resonator pipe. - with a housing which has a casing running in circumferential direction, - with a Helmholtz resonator, which is not flowed through by the exhaust gas and which has a resonator chamber and a resonator pipe, - wherein the resonator chamber is delimited radially by the casing and axially by an intermediate base, which is arranged axially between two axial ends of the housing, - wherein the resonator pipe penetrates the intermediate base, characterized in - that the resonator pipe is axially fastened to the intermediate base by means of a form- and/or force-fitting connection, - that the resonator pipe in the resonator chamber is equipped with an overpipe, which encloses an end section of the resonator pipe and which is closed at an end facing away from the intermediate base, - that the resonator pipe is fluidically connected with the resonator chamber through an intermediate space formed radially between the overpipe and the resonator pipe.
A speaker comprising: a frame; a diaphragm disposed in a top end of the frame; a bobbin disposed below the diaphragm; a voice coil wound around a bottom end of the bobbin; a magnetic member having a groove, the bottom end of the bobbin, around which the voice coil is wound, being inserted in the groove and being adapted to reciprocate in a straight line upward and downward in the groove characterised in that the speaker further comprises: a central pillar fixed to the magnetic member in a location at the center C of the bobbin and extending parallel to the bobbin; and an outer damper secured to the frame and supporting the outer circumferential surface of the bobbin so that the bobbin reciprocates in a straight line; and an inner damper secured to the central pillar and supporting the inner circumferential surface of the bobbin outwardly from the central pillar. a frame; a diaphragm disposed in a top end of the frame; a bobbin disposed below the diaphragm; a voice coil wound around a bottom end of the bobbin; a magnetic member having a groove, the bottom end of the bobbin, around which the voice coil is wound, being inserted in the groove and being adapted to reciprocate in a straight line upward and downward in the groove characterised in that the speaker further comprises: a central pillar fixed to the magnetic member in a location at the center C of the bobbin and extending parallel to the bobbin; and an outer damper secured to the frame and supporting the outer circumferential surface of the bobbin so that the bobbin reciprocates in a straight line; and an inner damper secured to the central pillar and supporting the inner circumferential surface of the bobbin outwardly from the central pillar.
A weld inspection device for inspecting a weld of lap fillet joint, the weld inspection device comprising: a first laser irradiation device configured to irradiate the weld of an inspection target after welding with generation laser beam exciting an ultrasonic wave inside the inspection target, wherein the inspection target comprises two base materials (2, 4) joint by the weld of a lap fillet joint; a second laser irradiation device configured to irradiate a predetermined position on the inspection target where the ultrasonic wave is to be detected with detection laser beam for detecting the ultrasonic wave, the ultrasonic wave passing through the weld and being reflected by a base material lower surface of the inspection target, wherein the second laser irradiation device is configured to irradiate one of the two base materials (2, 4); a laser interferometer configured to measure interference of reflected light of the detection laser; and a determination device configured to determine existence of an internal defect of the weld based on a measurement result of the laser interferometer, wherein the first laser irradiation device includes a scanning mechanism configured to scan an irradiation position of the generation laser in a direction intersecting a welding direction. a first laser irradiation device configured to irradiate the weld of an inspection target after welding with generation laser beam exciting an ultrasonic wave inside the inspection target, wherein the inspection target comprises two base materials (2, 4) joint by the weld of a lap fillet joint; a second laser irradiation device configured to irradiate a predetermined position on the inspection target where the ultrasonic wave is to be detected with detection laser beam for detecting the ultrasonic wave, the ultrasonic wave passing through the weld and being reflected by a base material lower surface of the inspection target, wherein the second laser irradiation device is configured to irradiate one of the two base materials (2, 4); a laser interferometer configured to measure interference of reflected light of the detection laser; and a determination device configured to determine existence of an internal defect of the weld based on a measurement result of the laser interferometer, wherein the first laser irradiation device includes a scanning mechanism configured to scan an irradiation position of the generation laser in a direction intersecting a welding direction.
A vehicle lighting unit comprising at least one optical module (20, 40A, 40B) comprising a first light source having a first semiconductor light emitting element; a second light source having a second semiconductor light emitting element; a first optical member configured to control light from the first light source; and a second optical member configured to control light from the second light source; characterized in that the first optical member comprises a first optical member main body and an outer peripheral optical member configured to surround the first optical member main body at an outer periphery of the first optical member so that the first optical member main body and the outer peripheral optical member are integrally injection-molded with each other, the first optical member main body includes an incident surface, a front surface, and a rear surface and is configured to receive light from the first light source through the incident surface and reflect the light by at least part of the front surface and then by at least part of the rear surface to project the reflected light through at least part of the front surface, the outer peripheral optical member includes a front surface and a rear surface that includes an incident surface on which light emitted from the second light source and having been guided through the second optical member is incident; the second optical member is configured to guide the light from the second light source to the incident surface of the outer peripheral optical member configured to surround the first optical member main body so as to allow the light to exit through the outer peripheral optical member, and the optical module (20, 40A, 40B) further comprises a support member configured to support the first light source, the second light source, the first optical member, and the second optical member, and the second light source and the second optical member are disposed between the first optical member and the support member behind the first optical member. a first light source having a first semiconductor light emitting element; a second light source having a second semiconductor light emitting element; a first optical member configured to control light from the first light source; and a second optical member configured to control light from the second light source;
A combined solar and wind energy collecting apparatus, which has in a built-in manner a wind unit for converting force of the wind into electricity by means of a rotor arrangement and a generator arrangement converting rotating motion (w) of the rotor arrangement into electricity, and a solar unit for converting solar radiation at least into electricity by means of a solar radiation collector arrangement, wherein the rotor arrangement discloses at least one rotor (1a1) rotatable (w) around a vertical center axis (s) of the apparatus, wherein the solar unit having the solar radiation collector arrangement is arranged on top of the wind unit, and, wherein the solar radiation collector arrangement comprises a rotationally symmetrical solar radiation collector surface, the horizontal cross-section of which diminishes essentially conically or hemispherically upward along the vertical center line (s), wherein the combined solar and wind energy collecting apparatus is applicable for converting solar radiation into heat and electricity, wherein the solar radiation collector arrangement of the solar unit comprises a solar cell assembly (2a1) on the solar radiation collection surface, and, wherein the apparatus comprises furthermore a hollow liquid space (x) inside the solar radiation collector arrangement in order to recover solar radiation originated heat in the internal liquid space into liquid, such as water, wherein the solar radiation collector arrangement comprises a piping (2a3) coupled with the internal liquid space (x) and passing inside a stationary frame (1a") of the wind unit for removing of warmer liquid from the top of the internal liquid space and for bringing colder liquid at the bottom of the internal liquid space characterized in that, the combined solar and wind energy collecting apparatus is arranged on top of a plant cultivation apparatus and the internal liquid space is connected by a channel with a liquid heat exchanger for recovering the solar radiation originated heat into air.
A system consisting of a spring adapter for arrangement on an orthopedic joint device and the orthopedic joint device having an upper part and a lower part fastened thereto so as to be pivotable about a pivot axis, whereas the joint device having a resistance device that applies a resistance to pivoting about the pivot axis, whereas the spring adapter comprises at least one compression spring element (15, 16, 16', 16", 18), bending spring element and/or torsion spring element and is tensioned when the upper part is pivoted relative to the lower part, whereas the resistance device comprises a housing in which a piston divides a fluid chamber into a flexion chamber and an extension chamber, and wherein the spring adapter comprises a fastening device for securing it to the joint device and the resistance device is embodied as a damper comprising a piston rod which protrudes from the housing and on which a piston divides a fluid chamber in the housing into a flexion chamber and an extension chamber, and the fastening device is designed to secure the spring adapter to the piston rod, characterized in that a plurality of compression springs are arranged around the piston rod.
Particle comprising: - a first lipid component, which is grape seed oil; - a second lipid component, which is cocoa butter; - an ascophyllum nodosum extract in organic solvents such as lipidic solvents; - chlorella vulgaris. wherein the particle contains a core and a shell surrounding the core; wherein the first lipid component, the second lipid component and the ascophyllum nodosum extract are comprised in the core; and wherein the chlorella vulgaris is comprised in the shell. - a first lipid component, which is grape seed oil; - a second lipid component, which is cocoa butter; - an ascophyllum nodosum extract in organic solvents such as lipidic solvents; - chlorella vulgaris. wherein the particle contains a core and a shell surrounding the core; wherein the first lipid component, the second lipid component and the ascophyllum nodosum extract are comprised in the core; and wherein the chlorella vulgaris is comprised in the shell.