mhurhangee/ep-ind-claims huggingface dataset:
A sanitary liquid dispenser kit comprising: a dispenser, a wall mount couplable to the dispenser, and drip tray couplable to the dispenser, characterised in that the dispenser has a spherical housing; the drip tray is a wall mount drip tray and in that the sanitary liquid dispenser kit further comprises a table stand couplable to the wall mount drip tray. a dispenser, a wall mount couplable to the dispenser, and drip tray couplable to the dispenser, characterised in that the dispenser has a spherical housing; the drip tray is a wall mount drip tray and in that the sanitary liquid dispenser kit further comprises a table stand couplable to the wall mount drip tray.
An ultrasonic atomizer, wherein the ultrasonic atomizer comprises a liquid storage cavity, an ultrasonic oscillation component and an air passage provided in an outer sleeve, and an electrode electrically connected with an external power supply for driving oscillation of the ultrasonic oscillation component; the ultrasonic oscillation component comprises a piezoelectric ceramic piece and a liquid storage body, and the liquid storage body is covered on the piezoelectric ceramic piece; the piezoelectric ceramic piece is provided to extend along the longitudinal direction of the ultrasonic atomizer; at least one surface of the piezoelectric ceramic piece is in contact with the liquid storage body; the liquid storage body communicates with the liquid storage cavity; and one surface of the liquid storage body which is deviated from the piezoelectric ceramic piece communicates with the air passage; the piezoelectric ceramic piece is a solid piezoelectric ceramic piece, that is to say, no hole is provided in the piezoelectric ceramic piece, and thus, the liquid cannot penetrate through the piezoelectric ceramic piece.
Device for the multistage purification of drinking water by combining orthogonal purification techniques in a module, characterised in that the device comprises a housing, a water inlet opening, a water outlet opening, an outer hollow cylinder filled with activated carbon and an inner hollow cylinder with a semipermeable wall, the inner hollow cylinder comprising a chelating and/or a bactericidal gel for the removal of heavy metals and/or removal of bacteria, the chelating gel and/or the bactericidal gel or both being filled between an outer activated carbon hollow cylinder and a central outlet over the whole length of the hollow cylinder, the central outlet consisting of a tube wrapped with a membrane having larger openings than the particle diameter of the surrounding gel with chelating and/or bactericidal effect and wherein the membrane has smaller pores than the particle diameter of the surrounding gel with chelating and/or bactericidal effect.
Use of a copolymer containing polyether blocks and polyamide blocks for manufacturing an inflatable catheter element, such as a catheter balloon, with improved bursting strength, in which said copolymer has the following characteristics: - number-average molecular mass of the PE blocks greater than 500 g/mol, - number-average molecular mass of the PA blocks greater than 10 000 g/mol; the copolymer comprises polyether blocks composed predominantly on the basis of PTMG. - number-average molecular mass of the PE blocks greater than 500 g/mol, - number-average molecular mass of the PA blocks greater than 10 000 g/mol; the copolymer comprises polyether blocks composed predominantly on the basis of PTMG.
A noninvasive physiological sensor adapted for use in an oximetry system including a monitor and a cable communicating with said sensor, said sensor comprising: an electrical grid configured to activate a plurality of light emitting sources by addressing at least one of a plurality of row conductors and at least one of a plurality of column conductors, a first LED and a second LED configured in a back-to-back arrangement so that a first contact is connected to a first LED cathode and a second LED anode and a second contact is connected to a first LED anode and a second LED cathode, wherein the first contact is in communications with a first one of the row conductors and a first one of the column conductors, wherein the second contact is in communications with a second one of the row conductors and a second one of the column conductors, wherein the first LED is activated by addressing the first row conductor and the second column conductor, and wherein the second LED is activated by addressing the second row conductor and the first column conductor. an electrical grid configured to activate a plurality of light emitting sources by addressing at least one of a plurality of row conductors and at least one of a plurality of column conductors, a first LED and a second LED configured in a back-to-back arrangement so that a first contact is connected to a first LED cathode and a second LED anode and a second contact is connected to a first LED anode and a second LED cathode, wherein the first contact is in communications with a first one of the row conductors and a first one of the column conductors, wherein the second contact is in communications with a second one of the row conductors and a second one of the column conductors, wherein the first LED is activated by addressing the first row conductor and the second column conductor, and wherein the second LED is activated by addressing the second row conductor and the first column conductor.
A system for monitoring crop material thickness within an agricultural harvester, the system comprising a crop cleaning assembly including an oscillating component (64, 66, 68) configured to oscillate relative to a frame of the agricultural harvester in a manner that conveys crop material across the oscillating component (64, 66, 68), the system further comprising: a RADAR sensor (102, 102A, 102B, 102C, 102D) configured to emit an output signal directed at the crop material present on the oscillating component (64, 66, 68) and detect an echo signal reflected by the crop material present on the oscillating component (64, 66, 68); wherein the RADAR sensor (102, 102A, 102B, 102C, 102D) is positioned below the oscillating component (64, 66, 68) in a vertical direction such that the emitted output signal is directed upward in the vertical direction toward the oscillating component (64, 66, 68); and a computing system communicatively coupled to the RADAR sensor (102, 102A, 102B, 102C, 102D), the computing system configured to determine a thickness of the crop material present on the oscillating component (64, 66, 68) based on detected echo signal. a RADAR sensor (102, 102A, 102B, 102C, 102D) configured to emit an output signal directed at the crop material present on the oscillating component (64, 66, 68) and detect an echo signal reflected by the crop material present on the oscillating component (64, 66, 68); wherein the RADAR sensor (102, 102A, 102B, 102C, 102D) is positioned below the oscillating component (64, 66, 68) in a vertical direction such that the emitted output signal is directed upward in the vertical direction toward the oscillating component (64, 66, 68); and a computing system communicatively coupled to the RADAR sensor (102, 102A, 102B, 102C, 102D), the computing system configured to determine a thickness of the crop material present on the oscillating component (64, 66, 68) based on detected echo signal.
A method for producing glycol from trihydric or higher-hydric alcohol having adjacent hydroxyl groups, comprising a reaction for synthesizing hydroxyketone from trihydric or higher-hydric alcohol by using a silver catalyst and a reaction for synthesizing glycol from the hydroxyketone formed in the reaction described above by using a hydrogenation catalyst, wherein the reaction for synthesizing hydroxyketone and the reaction for synthesizing glycol continuously progress in one reaction system by using a catalyst containing both silver and copper, and wherein the catalyst containing both silver and copper is supported on and/or compounded with a catalyst support including at least chromium oxide.
An insulating, disposable container comprising: - an outer casing made of an insulating material for packaging; - an inner casing made of an insulating material for packaging; wherein said inner casing is housed in said outer casing, wherein it further comprises a plurality of spacers (130; 122e, 123, 125), said spacers (130; 122e, 123, 125) being arranged between the inner casing and the outer casing and defining at least one cavity between them; characterized in that the inner casing is formed by folding a flat die-cut blank made of cardboard; wherein said blank comprises a base and four flaps which extend outwards from the edges of said base, wherein each flap comprises a first portion that is arranged adjacent to the respective edge of the base and has at least one through-opening, as well as a second portion separated from said first portion by a folding edge parallel to the corresponding edge of the base; wherein the inner casing is realized by folding the second portion of each flap by 180° about their respective folding edge, with said second portion oriented towards the inside of the inner casing, superimposed to the first portion and spaced from said first portion by said folding edge, with said first portion oriented towards the outside of the inner casing, and by rotating the flaps by 90° relative to the base. - an outer casing made of an insulating material for packaging; - an inner casing made of an insulating material for packaging;
A data receiving method, characterized by comprising: receiving a data signal delivered by a base station, wherein the data signal comprises at least two encoded data block groups, each encoded data block group comprises multiple encoded data blocks, and encoded data blocks in each encoded data block group are transmitted in a binding manner according to which bit information on multiple encoded data blocks in each encoded data block group is transmitted together; decoding the data signal, and acquiring decoded data blocks obtained by decoding the encoded data blocks, to form corresponding decoded data block groups; and separately performing cyclic redundancy check, CRC, detection on each decoded data block, and determining, according to the CRC obtained through detection of each decoded data block, whether to execute a successive interference cancellation, SIC, operation, and if it is determined to execute an SIC operation, executing CRC detection again on the decoded data block on which an SIC operation is performed, until a same CRC result occurs or all CRCs are zero, wherein at least one of the determining to execute an SIC operation according to the CRC of each decoded data block comprises: when CRCs of some decoded data blocks belonging to a decoded data block group are not zero, determining that the decoded data block is decoded incorrectly, and executing an SIC operation on the decoded data block. receiving a data signal delivered by a base station, wherein the data signal comprises at least two encoded data block groups, each encoded data block group comprises multiple encoded data blocks, and encoded data blocks in each encoded data block group are transmitted in a binding manner according to which bit information on multiple encoded data blocks in each encoded data block group is transmitted together; decoding the data signal, and acquiring decoded data blocks obtained by decoding the encoded data blocks, to form corresponding decoded data block groups; and separately performing cyclic redundancy check, CRC, detection on each decoded data block, and determining, according to the CRC obtained through detection of each decoded data block, whether to execute a successive interference cancellation, SIC, operation, and if it is determined to execute an SIC operation, executing CRC detection again on the decoded data block on which an SIC operation is performed, until a same CRC result occurs or all CRCs are zero, wherein at least one of the determining to execute an SIC operation according to the CRC of each decoded data block comprises: when CRCs of some decoded data blocks belonging to a decoded data block group are not zero, determining that the decoded data block is decoded incorrectly, and executing an SIC operation on the decoded data block.
A system for monitoring a component, the system comprising: an electrical field scanner for analyzing an electrical field across a reference zone, the system further comprising the component which comprises the reference zone including a plurality of fiducials configured on the component to influence the electrical field, characterized in that each fiducial has a uniform thickness along its height, wherein the material of the fiducials has a capacitance value that is larger or smaller than the material of the component, the system further comprising a processor in operable communication with the electrical field scanner, the processor operable for measuring an electrical field value along a mutually-orthogonal X-axis and Y-axis, and assembling a zone profile including a data point set according to the measured electrical field value. an electrical field scanner for analyzing an electrical field across a reference zone, the system further comprising the component which comprises the reference zone including a plurality of fiducials configured on the component to influence the electrical field, characterized in that each fiducial has a uniform thickness along its height, wherein the material of the fiducials has a capacitance value that is larger or smaller than the material of the component, the system further comprising a processor in operable communication with the electrical field scanner, the processor operable for measuring an electrical field value along a mutually-orthogonal X-axis and Y-axis, and assembling a zone profile including a data point set according to the measured electrical field value.
Profile for a hose ramp, comprising: - a housing with a bottom part which rests on a ground surface during use, a first outer end provided with a first exit plane, and a second outer end provided with a second exit plane; - a channel extending through the housing from the first exit plane to the second exit plane and configured for passage of a hose, wherein the channel is substantially provided with an oval shape, wherein the first exit plane is provided at a first angle (α 1) to the bottom part and the second exit plane is provided at a second angle (α 2) to the bottom part, characterised in that the first and second angle differ from each other such that the profile obtains an asymmetrical form. - a housing with a bottom part which rests on a ground surface during use, a first outer end provided with a first exit plane, and a second outer end provided with a second exit plane; - a channel extending through the housing from the first exit plane to the second exit plane and configured for passage of a hose, wherein the channel is substantially provided with an oval shape,
A data transmission method comprising the step of: allocating channel resources into one or more data transmission opportunities, TXOPs; characterized by the steps of: consolidating polls into a single control channel message, wherein the polls are for assigning the one or more TXOPs to respective one or more stations, wherein the polls are consolidated corresponding to the allocation of channel resources; transmitting the consolidated polls on one or more control channels to the respective one or more stations. allocating channel resources into one or more data transmission opportunities, TXOPs; characterized by the steps of: consolidating polls into a single control channel message, wherein the polls are for assigning the one or more TXOPs to respective one or more stations, wherein the polls are consolidated corresponding to the allocation of channel resources; transmitting the consolidated polls on one or more control channels to the respective one or more stations. consolidating polls into a single control channel message, wherein the polls are for assigning the one or more TXOPs to respective one or more stations, wherein the polls are consolidated corresponding to the allocation of channel resources; transmitting the consolidated polls on one or more control channels to the respective one or more stations.
Sealing profile, in particular for window and door sealing profiles, made of a material mixture which has the following composition: 5 to 60 vol% EPDM 8 to 50 vol% copolymer 5 to 70 vol% filler 0 to 40 vol% plasticiser 0.1 to 5 vol% accelerator/sulphur donor 0.05 to 5 vol% sulphur 0.05 to 5 vol% peroxide 0 to 3 vol% zinc oxide, wherein the copolymer is a thermoplastic or a thermoplastic elastomer comprising a propylene-ethylene copolymer, an ethylene-butene copolymer, an ethylene-octene copolymer or an ethylene-propylene copolymer, and wherein the copolymer is not sulfur crosslinkable. 5 to 60 vol% EPDM 8 to 50 vol% copolymer 5 to 70 vol% filler 0 to 40 vol% plasticiser 0.1 to 5 vol% accelerator/sulphur donor 0.05 to 5 vol% sulphur 0.05 to 5 vol% peroxide 0 to 3 vol% zinc oxide, wherein the copolymer is a thermoplastic or a thermoplastic elastomer comprising a propylene-ethylene copolymer, an ethylene-butene copolymer, an ethylene-octene copolymer or an ethylene-propylene copolymer, and wherein the copolymer is not sulfur crosslinkable.
Method for actuating a closure element arrangement in a motor vehicle, wherein the closure element arrangement has a closure element, a drive arrangement associated with the closure element, a control arrangement and a sensor arrangement having at least one configured sensor element (6, 7), wherein operator control event monitoring involves the control arrangement being used to monitor sensor events in the sensor measured values (8, 9) from the sensor arrangement for whether a predetermined operator control event is occurring, and the result of the operator control event monitoring is taken as a basis for actuating the drive arrangement, wherein the operator control event monitoring is based on at least one operator control event model stored in the control arrangement, wherein the operator control event model is produced and/or parameterized during use compliant with normal operation, wherein at least two operator control event models that are associated with different operators are stored in the control arrangement and wherein the operator control event monitoring is based on the operator control event model of the respective operator who is active for the operation of the motor vehicle, characterized in that the operator control event is defined as a predetermined operator movement that is sensed over the time profile of the sensor measured values (8, 9) and in that the operator control event models are in each case data models that are directed to the sensor measured values from the sensor arrangement and that contain a set of variables that are characteristic of the operator control event.
Device (9, 10, 11) for moving a furniture flap received on a furniture body of a piece of furniture having a spring-force unit, which assists the opening and/or the closing of the furniture flap by a predetermined force action of the spring-force unit via an adjusting arm engaging with the furniture flap in the mounted state, characterized in that an electrically switchable adjusting unit is provided, which is coupled to the spring-force unit in such a way that a movement of the spring-force unit into a predeterminable adjustment position of the spring-force unit on the piece of furniture occurs by a switching of the adjusting unit in the mounted state of the device (9, 10, 11) so that a degree of force action of the spring-force unit on the furniture flap can be adjusted in dependence on the adjustment position of the spring-force unit, wherein the switchable adjusting unit is not active, or not effective, during the manual movement by the operator, characterized in that the adjusting unit is adapted to operate a locking mechanism for locking the furniture flap in the closed position on the furniture body.
Position measuring device for detecting the position of two objects which are arranged movably relative to one another in at least one measurement direction (x; z), the position measuring device comprising a material measure (10; 100; 410; 510; 610) and scanning means with a light source (21; 201; 51; 61; 71; 421; 521; 621) and one or more optical and/or optoelectronic components for generating displacement-dependent position signals, and the light source (21; 201; 51; 61; 71; 421; 521; 621) being designed as a semiconductor laser, characterized in that the semiconductor laser has a coherence length of greater than 200 μm and operates by pulsing in single-mode operation.
A method for transmitting/receiving data in a spatial multiplexing Multiple Input Multiple Output, MIMO, communication system, the method comprising: calculating a processing matrix of a transmission unit for transmitting data, a processing matrix of a reception unit (260-1, 260-2, 260-K) for receiving the data, a channel matrix formed by a plurality of transmission antennas and a plurality of reception antennas, a non-negative Joint-Channel-Diagonalization, JCD, effective channel gain and a parameter of the transmission data as a weight of a transmitter (100; 200) found through Zero-Forcing at a receiver (150; 250), when the data to be transmitted to the plurality of reception antennas via the plurality of transmission antennas is generated; determining a minimum value of a Minimum Mean Square Error, MMSE, according to a symbol of the transmission data weighted by the JCD effective channel gain, the calculated processing matrix of the transmission unit (210-1, 210-2, 210-K), the calculated processing matrix of the reception unit, the channel matrix, the parameter of the transmission data, and Gaussian noise; and transmitting/receiving the data using an MMSE multiplexing scheme based on the determined minimum MMSE value. calculating a processing matrix of a transmission unit for transmitting data, a processing matrix of a reception unit (260-1, 260-2, 260-K) for receiving the data, a channel matrix formed by a plurality of transmission antennas and a plurality of reception antennas, a non-negative Joint-Channel-Diagonalization, JCD, effective channel gain and a parameter of the transmission data as a weight of a transmitter (100; 200) found through Zero-Forcing at a receiver (150; 250), when the data to be transmitted to the plurality of reception antennas via the plurality of transmission antennas is generated; determining a minimum value of a Minimum Mean Square Error, MMSE, according to a symbol of the transmission data weighted by the JCD effective channel gain, the calculated processing matrix of the transmission unit (210-1, 210-2, 210-K), the calculated processing matrix of the reception unit, the channel matrix, the parameter of the transmission data, and Gaussian noise; and transmitting/receiving the data using an MMSE multiplexing scheme based on the determined minimum MMSE value.