mhurhangee/ep-ind-claims huggingface dataset:
A matrix access method, wherein the matrix is stored in an off-chip storage using a matrix storage method comprising dividing a matrix into a plurality of data blocks with a preset block size of N rows × M columns, at least one of N and M is greater than 1, and storing the data in each of the first data blocks continuously in an off-chip storage, and storing the data in each of the second data blocks continuously in the off-chip storage; wherein the plurality of data blocks comprises at least one first data block of N rows × M columns; if the column number of the matrix is not an integer multiple of M, the plurality of data blocks further comprises at least one second data block of N rows × P columns, the second data block is aligned with an adjacent row of first data block, and P is less than M; the matrix access method is characterized by comprising: receiving an access request for the matrix, wherein the access request comprises access parameters of the matrix; if the data block corresponding to the access parameter comprises a complete first data block or a complete second data block, reading the data of the data block from the off-chip storage; if the data block corresponding to the access parameter comprises an incomplete first data block or an incomplete second data block, reading the data of the data block from the off-chip storage is prohibited. receiving an access request for the matrix, wherein the access request comprises access parameters of the matrix; if the data block corresponding to the access parameter comprises a complete first data block or a complete second data block, reading the data of the data block from the off-chip storage; if the data block corresponding to the access parameter comprises an incomplete first data block or an incomplete second data block, reading the data of the data block from the off-chip storage is prohibited.
A method of generating a self-test signal (RF TEST) for a receiver of radiofrequency signals wherein a local oscillator signal (TX/LO) is generated for mixing with a reception signal, the method including: - applying frequency division to said local oscillator signal (TX/LO) to produce a frequency-divided signal (f DIV), - providing a signal generator (222; 320a) for generating said self-test signal (RF TEST), - generating said self-test signal (RF TEST) by operating said signal generator (222; 320a) with operation of said signal generator (222; 320a) monitored or controlled via said frequency-divided signal (f DIV), - generating (226, 226a; 326, 326a) a test flag signal when: a) both said local oscillator signal (TX/LO) and said self-test signal (RF TEST) oscillate at expected frequencies, or b) said self-test signal (RF TEST) is locked in frequency with said local oscillator signal (TX/LO), - generating said local oscillator signal (TX/LO) via a first oscillator, - generating via a second oscillator (222; 320a) a further oscillating signal to provide said self-test signal (RF TEST) with operation of said second oscillator (222; 320a) monitored or controlled via said frequency-divided signal (f DIV), - setting the frequency of said first oscillator with a coarse signal (V COARSE), and - finely tuning the frequency of said first oscillator with a fine tuning signal (V EINS). - applying frequency division to said local oscillator signal (TX/LO) to produce a frequency-divided signal (f DIV), - providing a signal generator (222; 320a) for generating said self-test signal (RF TEST), - generating said self-test signal (RF TEST) by operating said signal generator (222; 320a) with operation of said signal generator (222; 320a) monitored or controlled via said frequency-divided signal (f DIV), - generating (226, 226a; 326, 326a) a test flag signal when: a) both said local oscillator signal (TX/LO) and said self-test signal (RF TEST) oscillate at expected frequencies, or b) said self-test signal (RF TEST) is locked in frequency with said local oscillator signal (TX/LO), a) both said local oscillator signal (TX/LO) and said self-test signal (RF TEST) oscillate at expected frequencies, or b) said self-test signal (RF TEST) is locked in frequency with said local oscillator signal (TX/LO), - generating said local oscillator signal (TX/LO) via a first oscillator, - generating via a second oscillator (222; 320a) a further oscillating signal to provide said self-test signal (RF TEST) with operation of said second oscillator (222; 320a) monitored or controlled via said frequency-divided signal (f DIV), - setting the frequency of said first oscillator with a coarse signal (V COARSE), and - finely tuning the frequency of said first oscillator with a fine tuning signal (V EINS).
A cosmetic composition comprising: (i) from 0.05 to 15% by weight of the composition of a sunless tanning agent; (ii) from 0.1 to 20% by weight of the composition of easily frangible beads having an average particle size ranging from 100 to 3,000 micron (μm); (iii) from 1 to 60% by weight of the beads of a water-insoluble pigment incorporated within a matrix of the beads, the pigment having a tan color, and the matrix comprising natural polymers of cellulose and cellulose derivatives; (iv) from 0.1 to 10% by weight of the beads of a colorant held within a coating surrounding the matrix, the coating having a color other than tan; and (v) a cosmetically acceptable carrier; the composition comprises water in an amount ranging from 40 to 90%; (i) from 0.05 to 15% by weight of the composition of a sunless tanning agent; (ii) from 0.1 to 20% by weight of the composition of easily frangible beads having an average particle size ranging from 100 to 3,000 micron (μm); (iii) from 1 to 60% by weight of the beads of a water-insoluble pigment incorporated within a matrix of the beads, the pigment having a tan color, and the matrix comprising natural polymers of cellulose and cellulose derivatives; (iv) from 0.1 to 10% by weight of the beads of a colorant held within a coating surrounding the matrix, the coating having a color other than tan; and (v) a cosmetically acceptable carrier;
A method for a multielement analysis on the basis of neutron activation, including the steps of: generating fast neutrons with an energy in the range of 10 keV to 20 MeV; irradiating the sample with the neutrons, wherein the method comprises moderating the fast neutrons; measuring the gamma radiation emitted by the irradiated sample in order to determine at least one element of the sample; wherein the sample is irradiated continuously in non-pulsed fashion, wherein the measurement is implemented during the irradiation, wherein at least prompt or both prompt and delayed gamma radiation from the continuous neutron irradiation is measured and evaluated for the purposes of determining the at least one element, characterized in that the determination comprises: energy-resolved determination of the neutron flux within the sample respectively within the respective partitions (P1, P2, Pn) of the sample through an analytical process and calculation of energy-dependent photopeak efficiencies of the emitted gamma radiation. generating fast neutrons with an energy in the range of 10 keV to 20 MeV; irradiating the sample with the neutrons, wherein the method comprises moderating the fast neutrons; measuring the gamma radiation emitted by the irradiated sample in order to determine at least one element of the sample; wherein the sample is irradiated continuously in non-pulsed fashion, wherein the measurement is implemented during the irradiation, wherein at least prompt or both prompt and delayed gamma radiation from the continuous neutron irradiation is measured and evaluated for the purposes of determining the at least one element, characterized in that the determination comprises: energy-resolved determination of the neutron flux within the sample respectively within the respective partitions (P1, P2, Pn) of the sample through an analytical process and calculation of energy-dependent photopeak efficiencies of the emitted gamma radiation.
A signal processing method, comprising: receiving, by first user equipment, a first message; determining, by the first user equipment based on the first message, a first resource used by second user equipment to send a second message; wherein the determining, by the first user equipment based on the first message, a first resource used by second user equipment to send a second message comprises: determining, by the first user equipment based on a second resource used for the first message, the first resource used by the second user equipment to send the second message; and processing, by the first user equipment, the second message by using the first resource, wherein the processing comprises at least one of detection and receiving the second message. receiving, by first user equipment, a first message; determining, by the first user equipment based on the first message, a first resource used by second user equipment to send a second message; wherein the determining, by the first user equipment based on the first message, a first resource used by second user equipment to send a second message comprises: determining, by the first user equipment based on a second resource used for the first message, the first resource used by the second user equipment to send the second message; and processing, by the first user equipment, the second message by using the first resource, wherein the processing comprises at least one of detection and receiving the second message. determining, by the first user equipment based on a second resource used for the first message, the first resource used by the second user equipment to send the second message; and processing, by the first user equipment, the second message by using the first resource, wherein the processing comprises at least one of detection and receiving the second message.
A dynamic turbine for a wind power plant, said dynamic turbine defining a rotational axis around which it is intended to rotate, said dynamic turbine comprising: a turbine axle; a first fixing structure rotatably attached to said turbine axle and movable along said rotational axis; a second fixing structure rotatably attached to said turbine axle; an elongated first blade pivotally attached to said first fixing structure at a first attachment location along said first blade to pivot around a first pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis, and pivotally attached to said second fixing structure at a second attachment location along said first blade to pivot around a second pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis; and an elongated second blade pivotally attached to said first fixing structure at a third attachment location along said second blade to pivot around a third pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis, and pivotally attached to said second fixing structure at a fourth attachment location along said second blade to pivot around a fourth pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis. a turbine axle; a first fixing structure rotatably attached to said turbine axle and movable along said rotational axis; a second fixing structure rotatably attached to said turbine axle; an elongated first blade pivotally attached to said first fixing structure at a first attachment location along said first blade to pivot around a first pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis, and pivotally attached to said second fixing structure at a second attachment location along said first blade to pivot around a second pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis; and an elongated second blade pivotally attached to said first fixing structure at a third attachment location along said second blade to pivot around a third pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis, and pivotally attached to said second fixing structure at a fourth attachment location along said second blade to pivot around a fourth pivot axis intersecting said rotational axis when said first fixing structure moves along said rotational axis.
A portable communication device, comprising: a location detection unit configured to determine a location of the portable communication device; a lightning detection unit configured to detect a lightning strike and determine a distance between the lightning strike and the portable communication device; and a radio frequency circuit configured to output, via a communication network, data indicative of the location of the portable communication device and data indicative of the distance between the lightning strike and the portable communication device, wherein the lightning detection unit is configured to determine the data indicative of the distance between the lightning strike and the portable communication device based on: one or more light pulses detected by a proximity sensor; or one or more light pulses detected by an ambient light sensor; or one or more light pulses detected by a camera; or changes in an electric field detected by a touch pad. a location detection unit configured to determine a location of the portable communication device; a lightning detection unit configured to detect a lightning strike and determine a distance between the lightning strike and the portable communication device; and a radio frequency circuit configured to output, via a communication network, data indicative of the location of the portable communication device and data indicative of the distance between the lightning strike and the portable communication device, wherein the lightning detection unit is configured to determine the data indicative of the distance between the lightning strike and the portable communication device based on: one or more light pulses detected by a proximity sensor; or one or more light pulses detected by an ambient light sensor; or one or more light pulses detected by a camera; or changes in an electric field detected by a touch pad. one or more light pulses detected by a proximity sensor; or one or more light pulses detected by an ambient light sensor; or one or more light pulses detected by a camera; or changes in an electric field detected by a touch pad.
Steam power station, comprising a steam boiler, which is fired by a burner device in a combustion chamber, and also an air preheater which is suitable for extracting thermal energy from the flue gas of the combustion chamber in order to transfer it to a first air flow, which first air flow is fed again in part to the combustion chamber as combustion air, characterized in that the steam power station furthermore comprises a high-temperature battery which is also supplied with air from the first air flow.
A sandbag, characterized by comprising: a bracket, a sandbag body provided on the bracket, a display screen provided on an outer surface of the sandbag body, a hitting detector provided on the outer surface of the sandbag body, a processor and a network module, wherein the processor is electrically connected with the hitting detector, the display screen and the network module, respectively; wherein the processor is configured to detect hitting data of a user through the hitting detector, acquire network data through the network module, and control displaying of the display screen according to the hitting data and/or the network data; and wherein the display screen is a flexible display screen, characterized in that a display area of the display screen and a detecting area of the hitting detector are overlapped. a bracket, a sandbag body provided on the bracket, a display screen provided on an outer surface of the sandbag body, a hitting detector provided on the outer surface of the sandbag body, a processor and a network module, wherein the processor is electrically connected with the hitting detector, the display screen and the network module, respectively; wherein the processor is configured to detect hitting data of a user through the hitting detector, acquire network data through the network module, and control displaying of the display screen according to the hitting data and/or the network data; and wherein the display screen is a flexible display screen, characterized in that a display area of the display screen and a detecting area of the hitting detector are overlapped.
A magnetic bearing, in particular for a vacuum pump, comprising: a stator; an electromagnet; a rotor (612, 624) supported in the stator by means of at least the electromagnet; a regulation unit configured to regulate a relative position of the rotor (612, 624) with respect to the stator by means of the electromagnet; and a generator unit (618, 624), comprising a generator stator and a generator rotor, configured to generate a voltage based on a movement of the rotor (612, 624) with respect to the stator and to provide the generated voltage as a supply voltage for the regulation unit, characterized in that, with respect to an axis of rotation of the rotor (612, 624), - the rotor (612, 624) is arranged radially outside the stator, - the electromagnet and the regulation unit are arranged above one another in the radial direction, - the regulation unit and the generator stator are arranged above one another in the radial direction, and - the electromagnet and the generator stator are arranged above one another in the axial direction. a stator; an electromagnet; a rotor (612, 624) supported in the stator by means of at least the electromagnet; a regulation unit configured to regulate a relative position of the rotor (612, 624) with respect to the stator by means of the electromagnet; and a generator unit (618, 624), comprising a generator stator and a generator rotor, configured to generate a voltage based on a movement of the rotor (612, 624) with respect to the stator and to provide the generated voltage as a supply voltage for the regulation unit, characterized in that, with respect to an axis of rotation of the rotor (612, 624), - the rotor (612, 624) is arranged radially outside the stator, - the electromagnet and the regulation unit are arranged above one another in the radial direction, - the regulation unit and the generator stator are arranged above one another in the radial direction, and - the electromagnet and the generator stator are arranged above one another in the axial direction. - the rotor (612, 624) is arranged radially outside the stator, - the electromagnet and the regulation unit are arranged above one another in the radial direction, - the regulation unit and the generator stator are arranged above one another in the radial direction, and - the electromagnet and the generator stator are arranged above one another in the axial direction.
Capsule (1, 1a; 1b; 1c; 1d) for preparing a beverage, comprising a capsule body made by forming a sheet of thermoformable plastic material, said capsule body comprising: - a base wall and a first portion of side wall defining a cavity that is suitable for containing an initial product to be combined with a fluid to obtain a final product in the form of a beverage, - a first opening of said cavity opposite said base wall, - an upper edge extending from said first portion of side wall and surrounding said first opening, - a second opening of said cavity made in said base wall, wherein said first opening is closed hermetically by a covering element fixed to said edge, said covering element being perforable by injecting means of a dispensing machine in which said capsule (1, 1a; 1b; 1c; 1d) is usable, wherein said second opening is closed hermetically by a closing element that is suitable for tearing when pressure inside said cavity exceeds a preset value, said capsule further comprising a chamber located opposite the base wall with respect to the cavity and defined by a second portion of side wall and by a bottom wall of the body of the capsule, said chamber being able to communicate with the cavity through the second opening, when the closing element tears, said chamber being provided with a third opening, made in the centre of the bottom wall, inside said chamber there being arranged a damping element (16; 16a) for controlling the exit speed of the beverage, characterised in that said damping element (16; 16a) is configured in such a way as to move inside said chamber between an initial position and a final position, through the effect of the pressure of said beverage in said chamber. - a base wall and a first portion of side wall defining a cavity that is suitable for containing an initial product to be combined with a fluid to obtain a final product in the form of a beverage, - a first opening of said cavity opposite said base wall, - an upper edge extending from said first portion of side wall and surrounding said first opening, - a second opening of said cavity made in said base wall,
A system for detecting and communicating a position of a pusher on a shelf comprising: a pusher, a shelf configured to receive product, a light channel and a light transceiver, the light channel secured to a gondola wall and the light transceiver located on the light channel, behind the pusher, the light transceiver including a light sensor, and a light transmitter, the light channel including an electronic connection; and a control module including a microcomputer, the control module aligned with the electronic connection on the light channel and locked into place, wherein the control module configured to receive information regarding an interaction between the pusher and a light signal sent by the light transmitter, wherein the reflection of the light signal is received by the light sensor, to determine a position of the pusher on the shelf, to determine an approximate number of products on the shelf, and to determine a movement of the pusher and a rate of change in a product level, characterized in that the control module is further configured to measure and calculate the time to receive a reflection of the light signal from the pusher and to determine a thickness of the product when products are initially stocked in the system. a pusher, a shelf configured to receive product, a light channel and a light transceiver, the light channel secured to a gondola wall and the light transceiver located on the light channel, behind the pusher, the light transceiver including a light sensor, and a light transmitter, the light channel including an electronic connection; and a control module including a microcomputer, the control module aligned with the electronic connection on the light channel and locked into place, wherein the control module configured to receive information regarding an interaction between the pusher and a light signal sent by the light transmitter, wherein the reflection of the light signal is received by the light sensor, to determine a position of the pusher on the shelf, to determine an approximate number of products on the shelf, and to determine a movement of the pusher and a rate of change in a product level, characterized in that the control module is further configured to measure and calculate the time to receive a reflection of the light signal from the pusher and to determine a thickness of the product when products are initially stocked in the system.