mhurhangee/ep-ind-claims huggingface dataset:
Grinding plate comprising a base plate which is firmly connected with a tissue part made of a first resilient plastic, wherein on the base plate a tool receptacle for connection with a motor-driven drive shaft is provided and within the tissue part a plurality of suction channels are provided which yield into suction openings at a working surface, wherein in the tissue part a hollow air-guiding part made of a second plastic being harder than the first plastic is received, the air guiding part at least partially limiting the suction channels against the first plastic, wherein the suction channels are open toward the base plate and yield at the suction surface through the suction openings, and wherein the suction openings (18, 20) at the base plate can be connected with a suction channel, characterized in that the air guiding part encloses the suction channels, and in that the suction channels are closed by resting against the base plate.
A hydroxypropyl methyl cellulose hard capsule shell characterized that it contains a hydroxypropyl methyl cellulose having a methoxy content of 27.0 - 30.0% (w/w), a hydroxypropoxy content of 4.0 - 7.5% (w/w), a viscosity of 3.5 - 6.0 mPa•s as a 2% weight solution in water at 20°C, and a gelling temperature of between 30°C and 40°C for a concentration of about 19% w/w in water, characterized in that it contains the hydroxypropoxy methyl cellulose in an amount between 70% and 99% by weight on the shell weight.
A method for protecting a wind turbine from overloading during operation caused by a fault, the method comprising: receiving, via a controller, a plurality of pitch signals from a plurality of pitch control mechanisms of a pitch system of the wind turbine, the pitch system configured to rotate a plurality of rotor blades mounted to a rotatable hub of a rotor of the wind turbine about respective pitch axes; determining, via the controller, a collective pitch rate of the pitch system as a function of the plurality of pitch signals; defining, via the controller, a minimum pitch rate threshold that varies with a speed parameter of the wind turbine; receiving, via the controller, a first speed parameter of the wind turbine; comparing, via the controller, the collective pitch rate to the minimum pitch rate threshold for the first speed parameter; and, controlling, via the controller, the wind turbine based on the comparison. receiving, via a controller, a plurality of pitch signals from a plurality of pitch control mechanisms of a pitch system of the wind turbine, the pitch system configured to rotate a plurality of rotor blades mounted to a rotatable hub of a rotor of the wind turbine about respective pitch axes; determining, via the controller, a collective pitch rate of the pitch system as a function of the plurality of pitch signals; defining, via the controller, a minimum pitch rate threshold that varies with a speed parameter of the wind turbine; receiving, via the controller, a first speed parameter of the wind turbine; comparing, via the controller, the collective pitch rate to the minimum pitch rate threshold for the first speed parameter; and, controlling, via the controller, the wind turbine based on the comparison.
A plasma jet ignition plug comprising: a tubular insulator having an axial hole extending therethrough in a direction of an axis; a rodlike center electrode inserted into the axial hole in such a manner that a front end thereof is located rearward of a front end of the insulator with respect to the direction of the axis; and a ground electrode disposed frontward of the front end of the insulator; the insulator having a cavity which is defined by a wall surface of the axial hole and a front end surface of the center electrode and opens frontward, and the ground electrode having a through hole for establishing communication between the cavity and an ambient atmosphere; wherein a front end portion of the center electrode is formed into a taper portion whose diameter reduces frontward with respect to the direction of the axis; an outside diameter of a front end of the taper portion is smaller than a diameter of the through hole; characterized in that a diameter of the cavity is substantially constant with respect to the direction of the axis, and the diameter DC of the cavity and a length LC of the cavity along the direction of the axis satisfy a dimensional relation 0.5 ≤ LC / DC < 1.0. a tubular insulator having an axial hole extending therethrough in a direction of an axis; a rodlike center electrode inserted into the axial hole in such a manner that a front end thereof is located rearward of a front end of the insulator with respect to the direction of the axis; and a ground electrode disposed frontward of the front end of the insulator; the insulator having a cavity which is defined by a wall surface of the axial hole and a front end surface of the center electrode and opens frontward, and the ground electrode having a through hole for establishing communication between the cavity and an ambient atmosphere; wherein a front end portion of the center electrode is formed into a taper portion whose diameter reduces frontward with respect to the direction of the axis; an outside diameter of a front end of the taper portion is smaller than a diameter of the through hole; characterized in that a diameter of the cavity is substantially constant with respect to the direction of the axis, and the diameter DC of the cavity and a length LC of the cavity along the direction of the axis satisfy a dimensional relation 0.5 ≤ LC / DC < 1.0.
An in vitro method for detecting slaughter byproducts and/or mechanically separated meat in a sample, characterized in that the method comprises at least the steps in which a) a sample is provided; and b) at least one protein or protein fragment (peptide) which is specific to the slaughter byproduct and/or mechanically separated meat is detected by means of a mass spectrometry method, wherein, in preparation for performing the mass spectrometry method (step b), one or several marker proteins contained in the sample are split into protein fragments (peptides) by means of thermolysin, wherein at least one of the peptides is specific to the slaughter byproduct and/or mechanically separated meat. a) a sample is provided; and b) at least one protein or protein fragment (peptide) which is specific to the slaughter byproduct and/or mechanically separated meat is detected by means of a mass spectrometry method, wherein, in preparation for performing the mass spectrometry method (step b), one or several marker proteins contained in the sample are split into protein fragments (peptides) by means of thermolysin, wherein at least one of the peptides is specific to the slaughter byproduct and/or mechanically separated meat.
A device for fixing a femur in a hip endoprosthesis, comprising a femur support having a curved hook part which in the area between the trochanter major and the trochanter minor forms an assisting support for the femur to be fixed, and having a shaft that is connected to the hook part, a lever arm with a column and an arm which has a holder for attaching the shaft, an adjustment device that is mounted on an operating table, and a mounting which is coupleable to the adjustment device and on which the column of the lever arm is mountable, wherein the adjustment device has a drive for moving the column in an adjustment plane situated perpendicularly with respect to the lying surface of the operating table and parallel to the longitudinal direction thereof, characterized in that the adjustment device has a rotational axis, situated perpendicularly with respect to the adjustment plane, about which the mounting is rotatable by means of the drive in order to move the column in the adjustment plane.
A fluid machine comprising two or more fluid suction/discharge mechanisms (2,2A;3) provided at both end positions of a driving shaft, the fluid suction/discharge mechanisms each including a reciprocating component (25,25A,25B;36), wherein the respective reciprocating components (25,25A,25B;36) of the fluid suction/discharge mechanisms (2,2A;3) are arranged so as to be mutually reciprocatable in an opposing direction or the same direction, characterized in that one of the fluid suction/discharge mechanisms is configured as a lower-stage compression mechanism (2,2A), another one of the fluid suction/discharge mechanisms is configured as a higher-stage compression mechanism, and a two-stage compressor is configured by the lower-stage and higher-stage compression mechanisms.
An illumination device comprising: • a number of light sources generating light; where said light sources are arranged in a first group of light sources and in a second group of light sources, and • a number of light collecting means adapted to collect said generated light and to convert said collected light into a number of light beams, said light beams propagate along an optical axis; where said number of light sources and said light collecting means are movable in relation to each other between a first position and a second position, said first group of light sources and said second group of light sources are individually controllable and said light collecting means: • can be fixed in said first position and in said first position collect at least a part of said light from said first group of light sources and convert said collected light from said first group of light sources into a number of first light beams, and: • can be fixed in said second position and in said second position collect at least a part of said light from said second group of light sources and convert said collected light from said second group of light sources into number of second light beams, characterized in that said light sources of said second group of light sources are multi-die LEDs and where a number of optical light mixers are arranged between said second group of light sources and said light collecting means; said optical light mixers are adapted to collect light from said multi-die LEDs and to convert said collected light from said multi-die LEDs into a number of intermediate homogeneous light beams propagating towards said light collecting means. • a number of light sources generating light; where said light sources are arranged in a first group of light sources and in a second group of light sources, and • a number of light collecting means adapted to collect said generated light and to convert said collected light into a number of light beams, said light beams propagate along an optical axis; • can be fixed in said first position and in said first position collect at least a part of said light from said first group of light sources and convert said collected light from said first group of light sources into a number of first light beams, and: • can be fixed in said second position and in said second position collect at least a part of said light from said second group of light sources and convert said collected light from said second group of light sources into number of second light beams,
A switch, comprising: a manipulation display including a manipulation section and a display section; a processor configured to select one of a first state for giving an instruction as to operation of a specific device and a second state for giving an instruction as to operation of a prescribed device which is determined so as to correspond to a specific scene; and an outputter configured to output an instruction signal according to the first state or the second state selected by the processor when the manipulation display is manipulated, wherein the processor is configured to select one of the first state and the second state in response to a specific manipulation performed on the manipulation display, wherein the processor is configured to cause the display section to display a diagram representing the specific scene when the second state is selected. a manipulation display including a manipulation section and a display section; a processor configured to select one of a first state for giving an instruction as to operation of a specific device and a second state for giving an instruction as to operation of a prescribed device which is determined so as to correspond to a specific scene; and an outputter configured to output an instruction signal according to the first state or the second state selected by the processor when the manipulation display is manipulated, wherein the processor is configured to select one of the first state and the second state in response to a specific manipulation performed on the manipulation display, wherein the processor is configured to cause the display section to display a diagram representing the specific scene when the second state is selected.
A hockey flooring tile comprising: - a top surface; - one or more interconnecting mechanisms allowing for an interconnection with another tile; - one or more locking mechanism positioned within the interconnecting mechanism allowing for a tile to be locked to another tile, the locking mechanism further comprising moveable surfaces; and - a bottom surface having support points to support the tiles when a weight is placed on the tile, characterized in that said moveable surfaces are pivotable to facilitate the interconnection between the adjacent hockey flooring tiles, and said top surface is a top smooth surface for passing pucks; wherein the locking mechanism is comprised of four or more nubs (40, 42, 44, 46) positioned on a neck and a furrow within the interconnecting mechanism. - a top surface; - one or more interconnecting mechanisms allowing for an interconnection with another tile; - one or more locking mechanism positioned within the interconnecting mechanism allowing for a tile to be locked to another tile, the locking mechanism further comprising moveable surfaces; and - a bottom surface having support points to support the tiles when a weight is placed on the tile,
A controller for controlling at least one luminaire to render lighting scenes in an environment; the controller comprising: - a first input arranged for receiving a lighting sequence defining a first lighting scene to be rendered in the environment during a first time period; - a second input arranged for receiving data indicating user presence within the environment; - an output arranged to control the at least one luminaire; and - a processor arranged for: - receiving the lighting sequence via the first input; and - controlling, via the output, the at least one luminaire to render the first lighting scene in accordance with the lighting sequence; wherein the first input is further arranged for receiving a second lighting scene, wherein the second lighting scene is to be rendered in the environment after the first time period, thereby replacing the first lighting scene, wherein the processor is further arranged for: - determining, upon expiration of the first time period, based on data received via the second input, a user presence value within the environment; and - if the user presence value does not exceed a predetermined threshold presence value, controlling, via the output, the at least one luminaire to render the second lighting scene; or - else, extending the first time period. - a first input arranged for receiving a lighting sequence defining a first lighting scene to be rendered in the environment during a first time period; - a second input arranged for receiving data indicating user presence within the environment; - an output arranged to control the at least one luminaire; and - a processor arranged for: - receiving the lighting sequence via the first input; and - controlling, via the output, the at least one luminaire to render the first lighting scene in accordance with the lighting sequence; wherein the first input is further arranged for receiving a second lighting scene, wherein the second lighting scene is to be rendered in the environment after the first time period, thereby replacing the first lighting scene, wherein the processor is further arranged for: - determining, upon expiration of the first time period, based on data received via the second input, a user presence value within the environment; and - if the user presence value does not exceed a predetermined threshold presence value, controlling, via the output, the at least one luminaire to render the second lighting scene; or - else, extending the first time period. - receiving the lighting sequence via the first input; and - controlling, via the output, the at least one luminaire to render the first lighting scene in accordance with the lighting sequence; - determining, upon expiration of the first time period, based on data received via the second input, a user presence value within the environment; and - if the user presence value does not exceed a predetermined threshold presence value, controlling, via the output, the at least one luminaire to render the second lighting scene; or - else, extending the first time period.
A node to propagate data packets in a network of nodes (100, 300), each node in the network (100, 300) having one or more connections to other nodes, the node comprising: a processor; a network interface to provide network connectivity; and memory including processor-executable instructions that, when executed by the processor, cause the processor to: generate at least one data packet of a first type; collect a set of data packets of the first type during a first time period, the set including the at least one generated data packet and at least one data packet of the first type received from one or more first nodes in the network (100, 300); and for each data packet in the set: arbitrarily select two or more neighbouring nodes connected to the node; and transmit the data packet to each of the two or more selected neighbouring nodes, wherein the two or more selected neighbouring nodes are configured to relay the data packet data to one or more second nodes in the network using a mode of data propagation that is randomly selected for that neighbouring node. a processor; a network interface to provide network connectivity; and memory including processor-executable instructions that, when executed by the processor, cause the processor to: generate at least one data packet of a first type; collect a set of data packets of the first type during a first time period, the set including the at least one generated data packet and at least one data packet of the first type received from one or more first nodes in the network (100, 300); and for each data packet in the set: arbitrarily select two or more neighbouring nodes connected to the node; and transmit the data packet to each of the two or more selected neighbouring nodes, wherein the two or more selected neighbouring nodes are configured to relay the data packet data to one or more second nodes in the network using a mode of data propagation that is randomly selected for that neighbouring node. generate at least one data packet of a first type; collect a set of data packets of the first type during a first time period, the set including the at least one generated data packet and at least one data packet of the first type received from one or more first nodes in the network (100, 300); and for each data packet in the set: arbitrarily select two or more neighbouring nodes connected to the node; and transmit the data packet to each of the two or more selected neighbouring nodes, arbitrarily select two or more neighbouring nodes connected to the node; and transmit the data packet to each of the two or more selected neighbouring nodes, wherein the two or more selected neighbouring nodes are configured to relay the data packet data to one or more second nodes in the network using a mode of data propagation that is randomly selected for that neighbouring node.
A water vessel for wave energy harvesting, comprising: a floating vessel body configured for use in repeated operating cycles each including an energy storing mode, an energy transporting mode and an energy releasing mode, the energy storing mode including operation on a body ofwater at an energy harvesting location subject to wave activity, the energy transporting mode including movement of the water vessel from the energy harvesting location to an energy releasing location having a connection to an electrical power grid; and wave energy harvesting apparatus and energy storage apparatus carried by the floating vessel body, the wave energy harvesting apparatus and energy storage apparatus being cooperative in the energy storing mode to harvest and store energy from the wave activity, the energy storage apparatus being further operative at the energy releasing location in an energy releasing mode in which the stored energy is transformed into appropriate AC electricity supplied to the electrical power grid. a floating vessel body configured for use in repeated operating cycles each including an energy storing mode, an energy transporting mode and an energy releasing mode, the energy storing mode including operation on a body ofwater at an energy harvesting location subject to wave activity, the energy transporting mode including movement of the water vessel from the energy harvesting location to an energy releasing location having a connection to an electrical power grid; and wave energy harvesting apparatus and energy storage apparatus carried by the floating vessel body, the wave energy harvesting apparatus and energy storage apparatus being cooperative in the energy storing mode to harvest and store energy from the wave activity, the energy storage apparatus being further operative at the energy releasing location in an energy releasing mode in which the stored energy is transformed into appropriate AC electricity supplied to the electrical power grid.
A fluoride-ion battery system comprising core-shell nanoparticles including: a core comprising an active material; and a fluoride-containing shell at least partially surrounding the active material. a core comprising an active material; and a fluoride-containing shell at least partially surrounding the active material.