mhurhangee/ep-ind-claims huggingface dataset:
A chip on board light source, comprising: a substrate, at least one LED chip, a surrounding dam, and a fluorescent glue, wherein the surrounding dam which has a closed annular body is arranged on the substrate, the at least one LED chip is configured on the substrate and inside the surrounding dam, and the inside of the surrounding dam is filled with the fluorescent glue, and wherein the at least one LED chip is a high voltage blue LED chip, characterised in that the fluorescent glue consists of a silica gel, a yellow-green phosphor, and a red phosphor, and that the yellow-green phosphor has an emitting peak wavelength of 530nm to 540nm and makes up 10% of the silica gel in mass while the red phosphor has an emitting peak wavelength of 620nm to 640nm and makes up 10% of the silica gel in mass. a substrate, at least one LED chip, a surrounding dam, and a fluorescent glue, wherein the surrounding dam which has a closed annular body is arranged on the substrate, the at least one LED chip is configured on the substrate and inside the surrounding dam, and the inside of the surrounding dam is filled with the fluorescent glue, and wherein the at least one LED chip is a high voltage blue LED chip, characterised in that the fluorescent glue consists of a silica gel, a yellow-green phosphor, and a red phosphor, and that the yellow-green phosphor has an emitting peak wavelength of 530nm to 540nm and makes up 10% of the silica gel in mass while the red phosphor has an emitting peak wavelength of 620nm to 640nm and makes up 10% of the silica gel in mass.
A method of forming, filling, and sealing a group of at least two containers made of plastics material, which method consists in: thermoforming containers from the same sheet of plastics material, each of which containers has a body and a rim that defines an opening; filling the containers; closing the containers by placing lids across their openings; and separating the containers by cutting them out individually from the sheet; said method being characterized in that, after the containers have been separated, the method further consists in: placing the containers adjacent to one another in such a manner that segments of their respective rims face each other and define between them a line of separation between the adjacent containers; and, on the line of separation, forming at least one spot weld forming a breakable connection between the facing rim segments.
A manual braiding machine, having a set of strand shuttles, each of the set of the strand shuttles having a strand holder positioned for holding a strand of flexible material and for dispensing the strand of flexible material, characterized in that the machine comprises a plurality of shuttle stations at which the strand shuttles can be parked, the plurality of shuttle stations being arranged in a circuit, and a carousel that is rotatable relative to the plurality of shuttle stations and driven by a drive arrangement, wherein: the braiding machine further comprises at least one shuttle carriage that is rotatably mounted on the carousel, the carousel being driven by the drive arrangement to rotate in a first direction, and the at least one shuttle carriage being driven by the rotation of the carousel to rotate in a second direction opposite the first direction and, when driven, repeatedly selects an immediately previously unselected at least one of the set of the strand shuttles and moves the immediately previously unselected at least one of the set of the strand shuttles from an associated at least one of the plurality of the shuttle stations to another at least one of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material. the braiding machine further comprises at least one shuttle carriage that is rotatably mounted on the carousel, the carousel being driven by the drive arrangement to rotate in a first direction, and the at least one shuttle carriage being driven by the rotation of the carousel to rotate in a second direction opposite the first direction and, when driven, repeatedly selects an immediately previously unselected at least one of the set of the strand shuttles and moves the immediately previously unselected at least one of the set of the strand shuttles from an associated at least one of the plurality of the shuttle stations to another at least one of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material.
A one-component coating composition comprising: (i) at least one alkoxy or silanol functional polysiloxane; (ii) at least one silane; (iii) zinc particles; and (iv) an organic solvent. (i) at least one alkoxy or silanol functional polysiloxane; (ii) at least one silane; (iii) zinc particles; and (iv) an organic solvent.
An optical port auto-negotiation method, comprising: a: selecting a downstream wavelength to be received; b: listening to a downstream message on the downstream to-be-received wavelength, performing c if a wavelength idle message from a peer optical module is received, and returning to a if no wavelength idle message is received within a specified or fixed time, wherein the wavelength idle message is used to identify that the downstream to-be-received wavelength is not occupied or not allocated, wherein the message frame of the wavelength idle message is coded by using a random code, and wherein multiple bits are used to represent the frame header when a length M of a random code representing data in a frame header field of the message frame of the wavelength idle message is the same as a length of a random code N representing data content in a data field, and one bit is used to represent the frame header when M is not the same as N; c: sending a wavelength application message on an upstream wavelength corresponding to the downstream to-be-received wavelength, going to d if a wavelength grant message is received in a downstream direction; otherwise, returning to a or b, wherein the wavelength application message is used to identify that an optical module requests the peer optical module to allocate the wavelength, and the wavelength grant message is used to identify that the peer optical module allocates the wavelength to the optical module; and d: setting, by the optical module, an optical port auto-negotiation success flag bit. a: selecting a downstream wavelength to be received; b: listening to a downstream message on the downstream to-be-received wavelength, performing c if a wavelength idle message from a peer optical module is received, and returning to a if no wavelength idle message is received within a specified or fixed time, wherein the wavelength idle message is used to identify that the downstream to-be-received wavelength is not occupied or not allocated, wherein the message frame of the wavelength idle message is coded by using a random code, and wherein multiple bits are used to represent the frame header when a length M of a random code representing data in a frame header field of the message frame of the wavelength idle message is the same as a length of a random code N representing data content in a data field, and one bit is used to represent the frame header when M is not the same as N; c: sending a wavelength application message on an upstream wavelength corresponding to the downstream to-be-received wavelength, going to d if a wavelength grant message is received in a downstream direction; otherwise, returning to a or b, wherein the wavelength application message is used to identify that an optical module requests the peer optical module to allocate the wavelength, and the wavelength grant message is used to identify that the peer optical module allocates the wavelength to the optical module; and d: setting, by the optical module, an optical port auto-negotiation success flag bit.
A thermoplastic composition comprising the following components: a) 30 to 90 wt% of one or more styrene copolymers composed of styrene and/or α-methylstyrene and of acrylonitrile and optionally further monomers, as component A; b) 10 to 70 wt% of a plurality of impact-modifying graft rubbers without olefinic double bonding in the rubber phase, as component B, wherein said component B comprises: B1) 1 to 50 wt% of rubber particles having an average particle diameter of from 50 to 150 nm, as component B1; B2) 50 to 99 wt% of rubber particles having an average particle diameter of from 800 to 1200 nm, as component B2; c) 0 to 20 wt% of one or more added substances distinct from components A, B1 and B2, as component C; with the proviso that the weight percent values are in each case based on the total weight of the components A to C and said components altogether sum to 100 wt%. a) 30 to 90 wt% of one or more styrene copolymers composed of styrene and/or α-methylstyrene and of acrylonitrile and optionally further monomers, as component A; b) 10 to 70 wt% of a plurality of impact-modifying graft rubbers without olefinic double bonding in the rubber phase, as component B, wherein said component B comprises: B1) 1 to 50 wt% of rubber particles having an average particle diameter of from 50 to 150 nm, as component B1; B2) 50 to 99 wt% of rubber particles having an average particle diameter of from 800 to 1200 nm, as component B2; B1) 1 to 50 wt% of rubber particles having an average particle diameter of from 50 to 150 nm, as component B1; B2) 50 to 99 wt% of rubber particles having an average particle diameter of from 800 to 1200 nm, as component B2; c) 0 to 20 wt% of one or more added substances distinct from components A, B1 and B2, as component C;
A gas delivery apparatus for delivering a calibrant gas to an ionization chamber of a mass spectrometer, comprising: (a) a calibration receptacle containing the calibrant gas; (b) a vacuum pump operably connected with the mass spectrometer; (c) a multiport valve for diverting the calibrant gas in the to the ionization chamber or to the vacuum pump; and, (d) a first flow restrictor (117, 106) for metering the calibrant gas to the ionization chamber; characterized in that the calibration receptacle contains a plurality of separated liquid calibrants, and wherein the calibration receptacle has a common headspace, wherein the calibrant gas mixture forms. (a) a calibration receptacle containing the calibrant gas; (b) a vacuum pump operably connected with the mass spectrometer; (c) a multiport valve for diverting the calibrant gas in the to the ionization chamber or to the vacuum pump; and, (d) a first flow restrictor (117, 106) for metering the calibrant gas to the ionization chamber;
A DC plasma torch comprising: an electrically conductive cathode and an electrically conductive anode spaced apart from one another to form a gap therebetween; wherein a first one of the cathode and anode comprises a generally cylindrical body portion and the second one of the cathode and anode comprises a generally tubular portion, wherein the first one of the cathode and anode is at least partially nested within, and spaced apart from, the second one of the cathode and anode, the internal geometry of the generally tubular portion comprising a first inwardly-tapering, frusto-conical portion leading to a second substantially parallel-sided throat portion; a metal swirl bush (40, 70) at least partially located within the gap and comprising a channel adapted to permit, in use, a gas to flow through the gap; and a discrete ceramic element interposed between any one or more of: the cathode and the swirl bush; and the anode and the swirl bush; and characterised in that: the first inwardly-tapering, frusto-conical portion comprises a generally parallel-sided recess for receiving the discrete ceramic insert, and the discrete ceramic insert comprises an annular ring having an outer surface substantially corresponding in shape and dimensions to the parallel-sided recess and a tapered inner surface substantially corresponding to the outer surface of the swirl bush (40, 70). the first inwardly-tapering, frusto-conical portion comprises a generally parallel-sided recess for receiving the discrete ceramic insert, and the discrete ceramic insert comprises an annular ring having an outer surface substantially corresponding in shape and dimensions to the parallel-sided recess and a tapered inner surface substantially corresponding to the outer surface of the swirl bush (40, 70).
Cationic polymers with covalently bound D-fructose of the general formula with the constituents: - a) cationic polymer in the form of macromolecular compounds of n repeating units having one or more positive charges; - b) D-fructose or a plurality of D-fructoses or derivatives of D-fructose - and linker, wherein the linker links the cationic polymer to the D-fructose or to derivatives of D-fructose by means of any alkyl or aryl radical, any alkenyl or alkynyl radical, an ether, thioether or amine, an ester, amide or other carboxylic acid derivative, a heterocycle, a disulphide, an imine or an imide, characterised in that the fructose or several D-fructose or D-fructose derivatives in open-chain, furanoid or pyranoid structure is non-glycosidically linked to the linker via one of its five possible carbon atoms in C1, C3, C4, C5 or C6 position. - a) cationic polymer in the form of macromolecular compounds of n repeating units having one or more positive charges; - b) D-fructose or a plurality of D-fructoses or derivatives of D-fructose - and linker, wherein the linker links the cationic polymer to the D-fructose or to derivatives of D-fructose by means of any alkyl or aryl radical, any alkenyl or alkynyl radical, an ether, thioether or amine, an ester, amide or other carboxylic acid derivative, a heterocycle, a disulphide, an imine or an imide,
A release liner comprising: a moldable layer; a release layer overlying the moldable layer, the release layer having a top surface; and a pattern of discrete, non-adhesive forms at least partially embedded into the release layer, the pattern of non-adhesive forms comprising: a lane comprising a first row of discrete non-adhesive forms and a second row of discrete non-adhesive forms adjacent the first row of non-adhesive forms, the first and second rows being spaced apart from each other by a spacing S 1 and individually having a maximum form-to-form spacing S 3 between adjacent non-adhesive forms within a given row; and a pattern of non-adhesive forms disposed in an area adjacent the lane and comprising at least two non-adhesive forms having a second form-to-form spacing S 2, wherein S 2 is greater than S 1 and/or S 3, wherein the non-adhesive forms cover from 1% to 35% of the total surface area of the top surface of the release layer, and wherein adjacent forms within a row may be connected, and wherein the number of connected non-adhesive forms within a row is less than 5, wherein S 3 is from 1 to 150 μm. a moldable layer; a release layer overlying the moldable layer, the release layer having a top surface; and a pattern of discrete, non-adhesive forms at least partially embedded into the release layer, the pattern of non-adhesive forms comprising: a lane comprising a first row of discrete non-adhesive forms and a second row of discrete non-adhesive forms adjacent the first row of non-adhesive forms, the first and second rows being spaced apart from each other by a spacing S 1 and individually having a maximum form-to-form spacing S 3 between adjacent non-adhesive forms within a given row; and a pattern of non-adhesive forms disposed in an area adjacent the lane and comprising at least two non-adhesive forms having a second form-to-form spacing S 2, wherein S 2 is greater than S 1 and/or S 3, a lane comprising a first row of discrete non-adhesive forms and a second row of discrete non-adhesive forms adjacent the first row of non-adhesive forms, the first and second rows being spaced apart from each other by a spacing S 1 and individually having a maximum form-to-form spacing S 3 between adjacent non-adhesive forms within a given row; and a pattern of non-adhesive forms disposed in an area adjacent the lane and comprising at least two non-adhesive forms having a second form-to-form spacing S 2, wherein S 2 is greater than S 1 and/or S 3, wherein the non-adhesive forms cover from 1% to 35% of the total surface area of the top surface of the release layer, and wherein adjacent forms within a row may be connected, and wherein the number of connected non-adhesive forms within a row is less than 5, wherein S 3 is from 1 to 150 μm.
An exhaust gas or charge air heat exchanger, comprising - a housing, - a first and a second base (6, 7) with openings, - tubes as a first flow channel for conducting a first fluid, the ends of which are arranged in the openings of the first and the second base (6, 7), wherein - the tubes and the first and the second base (6, 7) are arranged within the housing, so that a second flow channel for conducting a second fluid, such as a cooling liquid, is formed between the housing and the tubes, wherein at least one expansion gap is formed between the first and/or second base (6, 7) and the housing in order to balance different expansions between the housing and the tubes and the housing consists completely of plastic and the housing of plastic has at least one inlet and outlet opening (15, 16) for the first fluid and at least one inlet and outlet opening (17, 18) for the second fluid and the tubes and the first and the second base (6, 7) consist completely of metal, in particular aluminium, and the tubes and the first and the second base (6, 7) are materially connected to one another by means of soldering and the housing is in two parts, with a housing pot and a housing lid, wherein the first and/or second base (6, 7) has a circumferential board, characterised in that the board is aligned substantially parallel to an axis of the tubes, so that the board forms an end of the first and/or second base (6, 7) in the direction of the axis, and wherein the housing has a circumferential first and second groove (19, 20) on the inside. - a housing, - a first and a second base (6, 7) with openings, - tubes as a first flow channel for conducting a first fluid, the ends of which are arranged in the openings of the first and the second base (6, 7), wherein - the tubes and the first and the second base (6, 7) are arranged within the housing, so that a second flow channel for conducting a second fluid, such as a cooling liquid, is formed between the housing and the tubes,
DC meter for an electrical vehicle charging station having a pair of DC power supply lines (27a, 27b) extending from a charging station controller to an electrical vehicle connector, the DC meter comprising a meter unit, a sensor unit and an interconnection cable, the meter unit comprising a user interface, a sensor interface for connection to the sensor unit, a metering interface for connection to the charging station controller, and a microprocessor configured to receive and process signals received from the sensor unit, to exchange data with the charging station controller and to receive commands from the user interface and output information to the user interface, wherein the sensor unit is separate and connected at a point distal from the meter unit via the interconnection cable for the transmission of measurement signals, the sensor unit adapted to be coupled to one of the pair of DC power supply lines (27a, 27b) configured for measuring the current flowing through said power line, the sensor unit further comprising a voltage sensor for coupling to each of the pair of power supply lines for measuring a voltage difference therebetween, the sensor unit further comprising a microprocessor with analog to digital convertors, ADC, (24a, 24b) for converting the received analog voltage measurement and current measurement signals to digital signals, the sensor unit further comprising a communication interface configured for transmission of encrypted data through the interconnection cable to the meter unit.
Microcapsules comprising a core, wherein the core comprises cinmethylin, and a shell, wherein the shell comprises a polyurea material which comprises the polyaddition product of diphenylmethane diisocyanate and/or at least one oligomer thereof and at least one amine having at least two primary amino groups; where the weight ratio of cinmethylin and the polyurea material of the shell is of from 40:1 to 100:1; and where the overall weight ratio of cinmethylin and the diphenylmethane diisocyanate and/or at least one oligomer thereof present in the shell in polymerized form is of from 60:1 to 120:1.
A method for detecting an equivalent load of a wind turbine, comprising: detecting environment data of each wind turbine of a plurality of wind turbines in a wind farm in each detection period; detecting a load of a calibration wind turbine in the plurality of wind turbines and calculating an equivalent load of the calibration wind turbine based on the detected load in the each detection period; and determining an equivalent load of the each wind turbine based on the detected environment data of the each wind turbine with a load estimation model in the each detection period, wherein the load estimation model represents a relation between the environment data and the equivalent load of the each wind turbine, and before the load estimation model is applied in the each detection period, a parameter of the load estimation model is calibrated based on the calculated equivalent load of the calibration wind turbine in a current detection period and the equivalent load of the calibration wind turbine determined with the load estimation model in a previous detection period. detecting environment data of each wind turbine of a plurality of wind turbines in a wind farm in each detection period; detecting a load of a calibration wind turbine in the plurality of wind turbines and calculating an equivalent load of the calibration wind turbine based on the detected load in the each detection period; and determining an equivalent load of the each wind turbine based on the detected environment data of the each wind turbine with a load estimation model in the each detection period, wherein the load estimation model represents a relation between the environment data and the equivalent load of the each wind turbine, and before the load estimation model is applied in the each detection period, a parameter of the load estimation model is calibrated based on the calculated equivalent load of the calibration wind turbine in a current detection period and the equivalent load of the calibration wind turbine determined with the load estimation model in a previous detection period.
A music washing machine, comprising: a motor for introducing washing water flows and an output device, wherein the motor is connected to a control device for performing mutual conversion between a rotation and stopping ratio and/or rotation speed of the motor and a musical characteristic signal, so that during a washing process of the washing machine, music emitted by the output device synchronizes with the rotation and stopping ratio and/or rotation speed of the motor; wherein the motor is connected to a control device for collecting a motor rotation and stopping ratio and/or rotation speed signal, the control device is provided with a converting module for converting the motor rotation and stopping ratio and/or rotation speed signal into a corresponding music signal, and the converting module is connected to the output device for emitting the music; characterized in that the motor is connected to a control device controlling the rotation and stopping ratio and/or rotation speed of the motor, the control device is provided with a storage device for storing music, the storage device is connected to an analyzing device for extracting, analyzing and processing a music feature, the analyzing device is connected to a converting device for converting the music signal into a rotation and stopping ratio and/or rotation speed signal of the motor, and the converting device is connected to an executing device for controlling the rotation speed of the motor.