mhurhangee/ep-ind-claims huggingface dataset:
An armature comprising: an armature core with 72 slots; and an armature winding that is a three-phase two-pole armature winding wound in two layers, and is housed in the slots, each phase having first, second, third and fourth parallel circuits, each parallel circuit having a serial coil, each serial coil having upper and lower coil pieces (15, 16) connected to each other at a connection side coil end and at a coil end opposite to the connection side, the coil pieces divided into first and second phase belts (17, 18), characterized by the upper coil pieces in the first and third parallel circuits being located at the 2nd, 3rd, 5th, 7th, 10th and 12th positions, the lower coil pieces in the first and third parallel circuits being located at the 1st, 4th, 6th, 8th, 9th and 11th positions, the upper coil pieces in the second and fourth parallel circuits being located at the 1st, 4th, 6th, 8th, 9th and 11th positions, and the lower coil pieces in the second and fourth parallel circuits being located at the 2nd, 3rd, 5th, 7th, 10th and 12th positions, when relative positions of the upper and lower coil pieces (15, 16) in one of the first and second phase belts (17, 18) are indicated by positions counted in a direction separating away from a center of a pole, wherein eight jumper wires per a phase are provided at the coil end opposite to the connection side to connect the upper and lower coil pieces (15, 16). an armature core with 72 slots; and an armature winding that is a three-phase two-pole armature winding wound in two layers, and is housed in the slots, each phase having first, second, third and fourth parallel circuits, each parallel circuit having a serial coil, each serial coil having upper and lower coil pieces (15, 16) connected to each other at a connection side coil end and at a coil end opposite to the connection side, the coil pieces divided into first and second phase belts (17, 18), characterized by the upper coil pieces in the first and third parallel circuits being located at the 2nd, 3rd, 5th, 7th, 10th and 12th positions, the lower coil pieces in the first and third parallel circuits being located at the 1st, 4th, 6th, 8th, 9th and 11th positions, the upper coil pieces in the second and fourth parallel circuits being located at the 1st, 4th, 6th, 8th, 9th and 11th positions, and the lower coil pieces in the second and fourth parallel circuits being located at the 2nd, 3rd, 5th, 7th, 10th and 12th positions, when relative positions of the upper and lower coil pieces (15, 16) in one of the first and second phase belts (17, 18) are indicated by positions counted in a direction separating away from a center of a pole, wherein eight jumper wires per a phase are provided at the coil end opposite to the connection side to connect the upper and lower coil pieces (15, 16).
A drum type washing machine comprising: a tub of plastic for holding washing water, the tub having a plastic wall defining fastening bosses for mounting a driving unit thereto; a drum mounted on an inside of the tub; a shaft passed through the tub and coupled to the drum mounted inside the tub, for transmission of driving force from a motor to the drum; at least one bearing (6a/6b) for supporting the shaft; a bearing housing insert molded in the plastic tub supporting the bearing; a motor comprising a rotor arranged around a stator; and wherein the stator includes; an annular helical type core having multiple layers formed by winding a steel plate having T-section parts and a base portion, an insulator insert moulded with the helical type core to cover an outside surface of the helical type core for electrical insulation of the helical type core, and fastening portions formed as a unit with the insulator projecting inwardly from the helical type core toward a center of the stator, by which fastening portions the stator is fastened to the fastening bosses of the plastic wall of the tub, wherein each fastening portion has a fastening hole (143 a) at a center for fastening the stator to the wall of the tub. a tub of plastic for holding washing water, the tub having a plastic wall defining fastening bosses for mounting a driving unit thereto; a drum mounted on an inside of the tub; a shaft passed through the tub and coupled to the drum mounted inside the tub, for transmission of driving force from a motor to the drum; at least one bearing (6a/6b) for supporting the shaft; a bearing housing insert molded in the plastic tub supporting the bearing; a motor comprising a rotor arranged around a stator; and wherein the stator includes; an annular helical type core having multiple layers formed by winding a steel plate having T-section parts and a base portion, an insulator insert moulded with the helical type core to cover an outside surface of the helical type core for electrical insulation of the helical type core, and fastening portions formed as a unit with the insulator projecting inwardly from the helical type core toward a center of the stator, by which fastening portions the stator is fastened to the fastening bosses of the plastic wall of the tub, wherein each fastening portion has a fastening hole (143 a) at a center for fastening the stator to the wall of the tub.
A method for generating secondary synchronization signals, characterized by comprising: determining a value of iteration times M according to a total number N of cell ID groups or a cell ID group index N ID 1, wherein M is a natural number; calculating to obtain M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations; calculating a common cyclic shift factor m' through q 0; calculating a first cyclic shift value m 0 and a second cyclic shift value m 1 according to m'; and generating the secondary synchronization signals according to m 0 and m 1; wherein: the step of determining the value of M according to the total number N of the cell ID groups comprises: when N < 234, M = 1; when 234 =< N < 329, M=2; when 329 = < N < 387, M=3; when 387 =< N < 465, M = 9; the step of calculating to obtain the M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations comprises: q M = ⌊ N ID 1 / 30 ⌋; q k - 1 = ⌊ N ID 1 + q k ⁢ q k + 1 / 2 30 ⌋ 1 ≤ k ≤ M. determining a value of iteration times M according to a total number N of cell ID groups or a cell ID group index N ID 1, wherein M is a natural number; calculating to obtain M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations; calculating a common cyclic shift factor m' through q 0; calculating a first cyclic shift value m 0 and a second cyclic shift value m 1 according to m'; and generating the secondary synchronization signals according to m 0 and m 1; wherein: the step of determining the value of M according to the total number N of the cell ID groups comprises: when N < 234, M = 1; when 234 =< N < 329, M=2; when 329 = < N < 387, M=3; when 387 =< N < 465, M = 9; the step of calculating to obtain the M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations comprises: q M = ⌊ N ID 1 / 30 ⌋; q k - 1 = ⌊ N ID 1 + q k ⁢ q k + 1 / 2 30 ⌋ 1 ≤ k ≤ M. the step of determining the value of M according to the total number N of the cell ID groups comprises: when N < 234, M = 1; when 234 =< N < 329, M=2; when 329 = < N < 387, M=3; when 387 =< N < 465, M = 9; the step of calculating to obtain the M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations comprises: q M = ⌊ N ID 1 / 30 ⌋; q k - 1 = ⌊ N ID 1 + q k ⁢ q k + 1 / 2 30 ⌋ 1 ≤ k ≤ M. when N < 234, M = 1; when 234 =< N < 329, M=2; when 329 = < N < 387, M=3; when 387 =< N < 465, M = 9; the step of calculating to obtain the M cyclic shift accumulation parameters q k ( k = 0,1... M -1) through M times of iterations comprises: q M = ⌊ N ID 1 / 30 ⌋; q k - 1 = ⌊ N ID 1 + q k ⁢ q k + 1 / 2 30 ⌋ 1 ≤ k ≤ M.
A charging device of a robot cleaner, the charging device comprising: a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, wherein the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor, characterizied in that the induction signal guide member further comprises a pair of reflection units facing each other to form a layer which has a central opening providing an optical path to the docking induction signal transmitted by the docking induction sensor, the pair of reflection units being arranged to narrow the transmission angle of the docking induction signal. a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, wherein the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor, characterizied in that the induction signal guide member further comprises a pair of reflection units facing each other to form a layer which has a central opening providing an optical path to the docking induction signal transmitted by the docking induction sensor, the pair of reflection units being arranged to narrow the transmission angle of the docking induction signal.
An optical device for managing optical resources from Wavelength Division Multiplexing, WDM, optical signals in a Passive Optical Network, PON, the optical device being adapted to process an optical signal into a plurality of output optical signals, the optical device comprising: - a wavelength demultiplexer, - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter, - a coupler connected to the second optical splitter, - an optical bypass directly connecting the wavelength demultiplexer and the coupler, the wavelength demultiplexer being configured: - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass, the coupler being configured to combine said second portion with the first portion after being processed by the first optical splitter and the second optical splitter being configured to form a combined optical signal, the coupler further being configured to divide the said combined optical signal to form divided combined optical signals, and output the divided combined optical signals on output ports of the coupler, each divided combined optical signal comprising a fraction of the first portion of the optical signal, and the second portion of the optical signal. device being adapted to process an optical signal into a plurality of output optical signals, the optical device comprising: - a wavelength demultiplexer, - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter, - a coupler connected to the second optical splitter, - an optical bypass directly connecting the wavelength demultiplexer and the coupler, - a wavelength demultiplexer, - a multi-stage optical splitter connected to the wavelength demultiplexer and comprising a first optical splitter cascaded with a second optical splitter, - a coupler connected to the second optical splitter, - an optical bypass directly the wavelength demultiplexer being configured: - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass, - to select a first portion of the optical signal and, - to select a second portion of said optical signal and, - to provide said second portion to the coupler through the optical bypass, the coupler being configured to combine said second portion with the first portion after being processed by the first optical splitter and the second optical splitter being configured to form a combined optical signal, the coupler further being configured to divide the said combined optical signal to form divided combined optical signals, and output the divided combined optical signals on output ports of the coupler, each divided combined optical signal comprising a fraction of the first portion of the optical signal, and the second portion of the optical signal.
A method of using a sensor, the sensor comprising an insulating support layer and an electrically conductive sensor structure, wherein the electrically conductive sensor structure comprises a piezoresistive material and is configured to provide a resistance varying in response to a force being applied to the insulating support layer, characterized in that the piezoresistive material comprises graphene, the electrically conductive sensor structure comprises an array of graphene structures (102e, 102f), each graphene structure (102e, 102f) being configured to provide an electrical property varying in response to light incidence on the graphene, and the method comprises: - determining for each graphene structure an intensity of light received by the electrically conductive sensor structure (102e, 102f), and - determining a touch position of a user touching the sensor based on the determined light intensities. the piezoresistive material comprises graphene, the electrically conductive sensor structure comprises an array of graphene structures (102e, 102f), each graphene structure (102e, 102f) being configured to provide an electrical property varying in response to light incidence on the graphene, and the method comprises: - determining for each graphene structure an intensity of light received by the electrically conductive sensor structure (102e, 102f), and - determining a touch position of a user touching the sensor based on the determined light intensities. - determining for each graphene structure an intensity of light received by the electrically conductive sensor structure (102e, 102f), and - determining a touch position of a user touching the sensor based on the determined light intensities.
A method for intensifying the combustion of solid fuels using alkyl alcohol and Al-Ni catalyst as a combustion promoters, characterized in that an aqueous solution of alkyl alcohol, preferably isopropanol, in concentration of 10 wt.-% to 30 wt.-% is prepared in a buffer tank, then the nebulization tank is filled in a half of its volume and then, the homogenized aqueous suspension of Al-Ni catalyst is added, wherein said Al-Ni catalyst suspension is prepared so that the catalyst content is of no less than 0.046 g per 50 ml of water and in that no more than 0.85 g of Al-Ni catalyst in homogenized aqueous suspension is for every 1L of alkyl alcohol additive solution and the nebulization process is executed until pressure inside the nebulization tank reaches a value higher than pressure in a primary air duct, whereas the nebulization process is carried out in nebulization tank provided with ultrasonic transducers and a compressed air supply system is effected by acting on aqueous solution of alkyl alcohol additive with ultrasonic waves generated by ultrasonic transducers in power range of 10 to 120W and at a compressed air flow rate of up to 2480 l/h and then dispersion of the additive is dispensed continuously into the primary air duct with pulverized coal before the burner, in a temperature of solid fuel ranging from 90 to 160°C.
A haptic feedback device comprising: a first electroactive layer comprising a ferroelectric polymer; a plurality of electrodes on at least one surface of the first electroactive layer; and characterized by two second electroactive layers in contact with the plurality of electrodes and the first electroactive layer and each comprising an electroactive polymer, and wherein at least one second electroactive layer has a lower refractive index than the plurality of electrodes. a first electroactive layer comprising a ferroelectric polymer; a plurality of electrodes on at least one surface of the first electroactive layer; and characterized by two second electroactive layers in contact with the plurality of electrodes and the first electroactive layer and each comprising an electroactive polymer, and wherein at least one second electroactive layer has a lower refractive index than the plurality of electrodes.
Pneumatic vehicle tyre of a radial type of construction, with a profiled tread comprising grooves, an envelope that extends along the bases of the grooves forming a reinforcing contour that remains the same over the circumference of the tread, the reinforcing contour running in the axial direction and over the extent of the width of the ground contact area of the tread, which is determined with a tyre fitted on a standardized rim, a load of 70% of the maximum load-bearing capacity and an internal pressure of 85% of the standard pressure according to ETRTO standards, and runs in the form of a wave that is made up of at least three elevations, the lowest points in the radial direction of the wave troughs between the elevations being at the profile depth and the highest points in the radial direction of the elevations being at a distance (a) of 1.0 mm to 3.0 mm from the periphery of the tread and the waveform of the reinforcing contour having three elevations running mirror-symmetrically with respect to the equatorial plane (A-A) of the tyre, characterized in that the middle of the three elevations has a width (b z) of 50% to 60% of the width of the ground contact area of the tread, the width (b z) being determined as the axial distance (a) of the lowest point of the wave troughs between the elevations.
Holder for a piezoelectric component, having a clamping device and two contact elements which contain a conductive rubber material, wherein the clamping device is designed to clamp the piezoelectric component between the contact elements in a closed state, and wherein the contact elements are in electrical contact with the piezoelectric component in the closed state of the clamping device, wherein the holder furthermore has a connector element, wherein the connector element is clamped between the clamping device and one of the contact elements in the closed state of the clamping device and wherein the connector element is in electrical contact with the contact element, characterized in that the connector element is a metal wire.
An enzyme for use in malting or brewing, in the breakdown of grain-based material, and/or in wheat gluten-starch separation, wherein said enzyme is a GH10 xylanase or a fragment thereof having xylanase activity, said enzyme comprising the following amino acids at two or more of the positions indicated: 7D; 33V; 79Y, V, F, I, L or M; 217Q, E, P, D or M; and 298Y, F or W wherein the numbering corresponds with the numbering of the amino acid sequence of FveXyn4 shown in SEQ ID No. 1, wherein said fragment is at least 60% of the full length of the GH10 xylanase enzyme from which the fragment is derived, and wherein said enzyme is: a) a xylanase enzyme comprising an amino acid sequence having at least 70% identity, preferably at least 80%, at least 90%, at least 95%, at least 98%, or at least 99% identity, with SEQ ID No. 1, SEQ ID No. 26, SEQ ID No. 27, SEQ ID No. 3, SEQ ID No 28, SEQ ID No. 29 or SEQ ID No. 5; or b) a xylanase enzyme encoded by a nucleotide sequence comprising a nucleotide sequence having at least 70% identity, preferably at least 80%, at least 90%, at least 95%, at least 98%, or at least 99% identity, with SEQ ID No. 2, SEQ ID No. 24, SEQ ID No. 25, SEQ ID No. 4, SEQ ID No. 30, SEQ ID No. 31, SEQ ID No. 6, SEQ ID No 32 or SEQ ID No. 33. a) a xylanase enzyme comprising an amino acid sequence having at least 70% identity, preferably at least 80%, at least 90%, at least 95%, at least 98%, or at least 99% identity, with SEQ ID No. 1, SEQ ID No. 26, SEQ ID No. 27, SEQ ID No. 3, SEQ ID No 28, SEQ ID No. 29 or SEQ ID No. 5; or b) a xylanase enzyme encoded by a nucleotide sequence comprising a nucleotide sequence having at least 70% identity, preferably at least 80%, at least 90%, at least 95%, at least 98%, or at least 99% identity, with SEQ ID No. 2, SEQ ID No. 24, SEQ ID No. 25, SEQ ID No. 4, SEQ ID No. 30, SEQ ID No. 31, SEQ ID No. 6, SEQ ID No 32 or SEQ ID No. 33.
A method of forming a settable resistance device, comprising: isotropically etching a stack of layers, the stack of layers having an insulator layer in contact with a conductor layer, to selectively form divots in exposed sidewalls of the conductor layer; isotropically etching the stack of layers to selectively form divots (302, 402) in exposed sidewalls of the insulator layer, thereby forming a tip at an interface between the insulator layer and the conductor layer; forming a dielectric layer over the stack of layers to cover the tip; and forming an electrode over the dielectric layer, such that the dielectric layer is between the electrode and the tip. isotropically etching a stack of layers, the stack of layers having an insulator layer in contact with a conductor layer, to selectively form divots in exposed sidewalls of the conductor layer; isotropically etching the stack of layers to selectively form divots (302, 402) in exposed sidewalls of the insulator layer, thereby forming a tip at an interface between the insulator layer and the conductor layer; forming a dielectric layer over the stack of layers to cover the tip; and forming an electrode over the dielectric layer, such that the dielectric layer is between the electrode and the tip.