mhurhangee/ep-ind-claims huggingface dataset:
A coil support assembly configured to be disposed in an interpole region of a rotor; the rotor comprising an upstream pole and a downstream pole; the upstream pole including an upstream medial portion, an upstream coil surrounding the upstream medial portion, and an upstream tip; the downstream pole including a downstream medial portion, a downstream coil surrounding the downstream medial portion, and a downstream tip; an interpole region positioned between the upstream pole and the downstream pole; wherein an air stream is provided in a circumferential direction around the rotor caused by the rotation thereof; the coil support assembly comprising: an upper support wedge, including: an upstream surface positionable adjacent an upstream coil of the rotor; a downstream surface positionable adjacent a downstream coil of the rotor; a channel formed in radial direction along the upstream surface and further in radial direction along the downstream surface of the wedge; and an upstream scoop attached to the wedge and positionable adjacent a downstream end of an upstream tip of the rotor, wherein the upstream scoop is configured to direct air flow around the downstream end of the upstream tip and into the channel. the rotor comprising an upstream pole and a downstream pole; the upstream pole including an upstream medial portion, an upstream coil surrounding the upstream medial portion, and an upstream tip; the downstream pole including a downstream medial portion, a downstream coil surrounding the downstream medial portion, and a downstream tip; an interpole region positioned between the upstream pole and the downstream pole; wherein an air stream is provided in a circumferential direction around the rotor caused by the rotation thereof; the coil support assembly comprising: an upper support wedge, including: an upstream surface positionable adjacent an upstream coil of the rotor; a downstream surface positionable adjacent a downstream coil of the rotor; an upstream surface positionable adjacent an upstream coil of the rotor; a downstream surface positionable adjacent a downstream coil of the rotor; a channel formed in radial direction along the upstream surface and further in radial direction along the downstream surface of the wedge; and an upstream scoop attached to the wedge and positionable adjacent a downstream end of an upstream tip of the rotor, wherein the upstream scoop is configured to direct air flow around the downstream end of the upstream tip and into the channel.
A device, called lift-generating device, intended to be placed in a moving fluid, such as air, in order to produce a lift force, the device comprising a hollow body elongated along an axis, said body having two opposite walls (11, 12), respectively called lower and upper, said upper and lower walls being configured such that the body has, in cross-section, a camber line with a deflection at least equal to 20% of the cord length joining the connecting edges between said lower and upper walls, said upper wall having an opening able to communicate with a first chamber located inside said body and an opening communicating with a second body located inside said body, the device comprising a system for limiting boundary layer separation: • configured to suction air selectively through the first or the second chamber (21, 22), respectively through the first or second opening (121, 122), and/or • configured to blow air selectively from the first or second chamber (21, 22) through the first or second opening (121, 122), tangentially to said upper wall toward a connecting edge (111 or 112) between the lower and upper walls (11, 12), characterized in that the body is substantially symmetrical along a plane of symmetry that is perpendicular to the cord line joining the connecting edges (111, 112) between said lower and upper walls, and which intersects said cord substantially in the middle thereof, and in that the two openings are positioned substantially symmetrically relative to said plane of symmetry. • configured to suction air selectively through the first or the second chamber (21, 22), respectively through the first or second opening (121, 122), and/or • configured to blow air selectively from the first or second chamber (21, 22) through the first or second opening (121, 122), tangentially to said upper wall toward a connecting edge (111 or 112) between the lower and upper walls (11, 12),
A barrel mixer comprising: a barrel; a frame for removably supporting the barrel, the frame having a handle portion and a base; a pivot member pivotably coupled to the base for movement of the barrel between a mixing position and a pouring position about a rotation axis relative to the pivot member, the pivot member having a pivot mounting element; and a stand for supporting the frame, the stand having a stand mounting element for detachable coupling with the pivot mounting element, wherein the rotation axis is spaced from the pivot mounting element, characterised in that the pivot member comprises a pivot plate pivotably coupled to the base, the pivot plate being pivotable about the rotation axis. a barrel; a frame for removably supporting the barrel, the frame having a handle portion and a base; a pivot member pivotably coupled to the base for movement of the barrel between a mixing position and a pouring position about a rotation axis relative to the pivot member, the pivot member having a pivot mounting element; and a stand for supporting the frame, the stand having a stand mounting element for detachable coupling with the pivot mounting element, wherein the rotation axis is spaced from the pivot mounting element, characterised in that the pivot member comprises a pivot plate pivotably coupled to the base, the pivot plate being pivotable about the rotation axis.
Tubular motor for domotic applications, in particular for operating curtains or blinds, comprising a tube and a head at one end of said tube, characterized in that it comprises a clamp adapted to receive and restrain an external pin for fixing the tubular motor, wherein said clamp is integrated in said head.
A machine-implemented method for performing precoding interpolation in a multicarrier multiuser "MU" multiple antenna system "MU-MAS" time division duplexing "TDD" system which employs precoding to communicate between a plurality of distributed antennas and a plurality of client devices comprising: deriving a downlink channel state information "CSI" used for precoding from an uplink training by exploiting uplink/downlink channel reciprocity; selecting a first subset of subcarriers to determine a first subset of precoding weights; deriving a second subset of precoding weights for a second subset of subcarriers by interpolating between the first subset of precoding weights; and using a combination of the first subset of precoding weights and the second subset of precoding weights to precode a data stream prior to transmitting the data stream to a client device. deriving a downlink channel state information "CSI" used for precoding from an uplink training by exploiting uplink/downlink channel reciprocity; selecting a first subset of subcarriers to determine a first subset of precoding weights; deriving a second subset of precoding weights for a second subset of subcarriers by interpolating between the first subset of precoding weights; and using a combination of the first subset of precoding weights and the second subset of precoding weights to precode a data stream prior to transmitting the data stream to a client device.
A method for realizing a video phone in a WCDMA, Wideband Code Division Multiple Access, network according to 3GPP, 3rd Generation Partnership Project, standard protocol, wherein the method comprises: sending, by a system control module of a personal computer software, a video phone SETUP instruction to a network card control interface module on the network card side, after a user initiates a video phone call on a personal computer; wherein after receiving the video phone SETUP instruction from the system control module, the network card control interface module triggers a WCDMA wireless network card for a personal computer and starts a series of radio bearer establishment processes according to the 3GPP standard protocol; and wherein after the radio bearer is established, the wireless network card sends the video phone SETUP instruction to a Core Network, CN, establishing, by an equipment on the local side, a physical path between an equipment on the opposite side and itself through the network card; performing, by the equipment on the local side, interaction of control signals with the equipment on the opposite side through the established physical path and establishing a video phone path; transmitting, by the equipment on the local side, the video signals and/or audio signals collected by itself to the equipment on the opposite side through the established video phone path and receiving video signals and/or audio signals from the equipment on the opposite side through the video phone path. sending, by a system control module of a personal computer software, a video phone SETUP instruction to a network card control interface module on the network card side, after a user initiates a video phone call on a personal computer; wherein after receiving the video phone SETUP instruction from the system control module, the network card control interface module triggers a WCDMA wireless network card for a personal computer and starts a series of radio bearer establishment processes according to the 3GPP standard protocol; and wherein after the radio bearer is established, the wireless network card sends the video phone SETUP instruction to a Core Network, CN, establishing, by an equipment on the local side, a physical path between an equipment on the opposite side and itself through the network card; performing, by the equipment on the local side, interaction of control signals with the equipment on the opposite side through the established physical path and establishing a video phone path; transmitting, by the equipment on the local side, the video signals and/or audio signals collected by itself to the equipment on the opposite side through the established video phone path and receiving video signals and/or audio signals from the equipment on the opposite side through the video phone path.
A method of generating a graphical user interface, the method comprising: accessing, by one or more processors, a plurality of patient information, the patient information including time-sequenced data indicating events for a patient and hemoglobin measurements for the patient; generating, by the one or more processors, one or more proposed treatment schedules, the treatment schedules indicating a proposed timeline at which events are proposed to occur; accessing, by the one or more processors, a predictive model that predicts future hemoglobin levels for the patient along proposed timelines; inputting, into the predictive model, the one or more proposed treatment schedules to determine a predicted trend for hemoglobin levels for the patient respectively associated with the one or more proposed treatment schedules; displaying, on the graphical user interface, a graph indicating a visual representation of the patient information for the patient, the one or more proposed treatment schedules, and the predicted trends for the hemoglobin levels respectively associated with the proposed treatment schedules. accessing, by one or more processors, a plurality of patient information, the patient information including time-sequenced data indicating events for a patient and hemoglobin measurements for the patient; generating, by the one or more processors, one or more proposed treatment schedules, the treatment schedules indicating a proposed timeline at which events are proposed to occur; accessing, by the one or more processors, a predictive model that predicts future hemoglobin levels for the patient along proposed timelines; inputting, into the predictive model, the one or more proposed treatment schedules to determine a predicted trend for hemoglobin levels for the patient respectively associated with the one or more proposed treatment schedules; displaying, on the graphical user interface, a graph indicating a visual representation of the patient information for the patient, the one or more proposed treatment schedules, and the predicted trends for the hemoglobin levels respectively associated with the proposed treatment schedules.
Cooling system for cooling a transport unit, comprising: a synchronous generator for providing an energy supply for the cooling system, and at least one refrigeration circuit module connected to the energy supply, which module comprises at least one switchable drive unit for a refrigeration circuit module element, wherein the synchronous generator comprises an exciter control, characterized in that the exciter control is configured to provide a reactive power, which is required when the drive unit is switched on hard, by appropriately controlling the synchronous generator, wherein the excitation control of the synchronous generator takes place via the excitation current of the synchronous generator and the level and slope of the excitation current are preferably dependent on the current load torque of the drive unit, the excitation control of the synchronous generator is configured to reduce the required power of the refrigeration circuit module element to such an extent that a hard connection of the refrigeration circuit module element to the electrical network generated by the synchronous generator is possible, and the drive unit for the refrigerant module element is an asynchronous electric motor. a synchronous generator for providing an energy supply for the cooling system, and at least one refrigeration circuit module connected to the energy supply, which module comprises at least one switchable drive unit for a refrigeration circuit module element, wherein the synchronous generator comprises an exciter control, characterized in that the exciter control is configured to provide a reactive power, which is required when the drive unit is switched on hard, by appropriately controlling the synchronous generator, wherein the excitation control of the synchronous generator takes place via the excitation current of the synchronous generator and the level and slope of the excitation current are preferably dependent on the current load torque of the drive unit, the excitation control of the synchronous generator is configured to reduce the required power of the refrigeration circuit module element to such an extent that a hard connection of the refrigeration circuit module element to the electrical network generated by the synchronous generator is possible, and the drive unit for the refrigerant module element is an asynchronous electric motor.
A method comprising: receiving packets (1110, 1210), from one or more user devices, at a terminal (120, 130); placing the packets (1112, 1212) on a first input queue and/or a second input queue; determining a priority and/or service class for each packet; en-queueing the packets (1116, 1118, 1218, 1220) onto a plurality of output queues including at least a first output queue and a second output queue based, at least in part, on the determined priority and/or service class characterized by further comprising: detecting (1120, 1222) one or more eligible scrambled and coded multiple access SCMA slots within a frame of a communication system; identifying (1124, 1224) available SCMA slots, from the eligible SCMA slots, that are useable for transmitting data; and de-queueing packets (1126, 1236) from the first output queue onto the frame via one or more SCMA bursts encompassing at least one available SCMA slot and/or via at least a portion of a Time Division Multiple Access channel TDMA burst assigned to the terminal, wherein the SCMA burst and TDMA burst are transmitted on different channel frequencies. receiving packets (1110, 1210), from one or more user devices, at a terminal (120, 130); placing the packets (1112, 1212) on a first input queue and/or a second input queue; determining a priority and/or service class for each packet; en-queueing the packets (1116, 1118, 1218, 1220) onto a plurality of output queues including at least a first output queue and a second output queue based, at least in part, on the determined priority and/or service class characterized by further comprising: detecting (1120, 1222) one or more eligible scrambled and coded multiple access SCMA slots within a frame of a communication system; identifying (1124, 1224) available SCMA slots, from the eligible SCMA slots, that are useable for transmitting data; and de-queueing packets (1126, 1236) from the first output queue onto the frame via one or more SCMA bursts encompassing at least one available SCMA slot and/or via at least a portion of a Time Division Multiple Access channel TDMA burst assigned to the terminal, wherein the SCMA burst and TDMA burst are transmitted on different channel frequencies. detecting (1120, 1222) one or more eligible scrambled and coded multiple access SCMA slots within a frame of a communication system; identifying (1124, 1224) available SCMA slots, from the eligible SCMA slots, that are useable for transmitting data; and de-queueing packets (1126, 1236) from the first output queue onto the frame via one or more SCMA bursts encompassing at least one available SCMA slot and/or via at least a portion of a Time Division Multiple Access channel TDMA burst assigned to the terminal, wherein the SCMA burst and TDMA burst are transmitted on different channel frequencies.
A cardiac rhythm management system, comprising: a cardiac sensing circuit configured to sense a cardiac signal indicative of heartbeats; an acoustic sensor configured to sense an acoustic signal indicative of heart sounds; a beat detector configured to detect the heartbeats using the cardiac signal; a heart sound detector configured to detect at least one specified type heart sound for each beat of the detected heartbeats; a measurement circuit configured to measure a heart rate associated with the each beat and a heart sound amplitude being an amplitude of a heart sound of the at least one specified type heart sound detected for the each beat; characterised in that the system further comprises: an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases. a cardiac sensing circuit configured to sense a cardiac signal indicative of heartbeats; an acoustic sensor configured to sense an acoustic signal indicative of heart sounds; a beat detector configured to detect the heartbeats using the cardiac signal; a heart sound detector configured to detect at least one specified type heart sound for each beat of the detected heartbeats; a measurement circuit configured to measure a heart rate associated with the each beat and a heart sound amplitude being an amplitude of a heart sound of the at least one specified type heart sound detected for the each beat; characterised in that the system further comprises: an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases. an atrial tachyarrhythmia detector configured to detect atrial tachyarrhythmia, including atrial fibrillation and atrial flutter, using a relationship between the heart rate and heart sound amplitude during the atrial tachyarrhythmia, the relationship including a decrease in the measured heart sound amplitude when the measured heart rate increases.
A data migration method comprising: obtaining, by a host, migration data information of to-be-migrated data in a source solid state disk SSD; determining, by the host, a target SSD; generating, by the host, a read instruction according to access information corresponding to the target SSD and the migration data information; sending, by the host, the read instruction to the source SSD, wherein the read instruction is used to instruct the source SSD to read a data block that is corresponding to the read instruction and in a flash memory of the source SSD into a migration cache of the target SSD; and after a read completion feedback instruction sent by the source SSD is received, sending, by the host, a write instruction to the target SSD, so as to instruct the target SSD to write the data block in the migration cache of the target SSD to a flash memory of the target SSD. obtaining, by a host, migration data information of to-be-migrated data in a source solid state disk SSD; determining, by the host, a target SSD; generating, by the host, a read instruction according to access information corresponding to the target SSD and the migration data information; sending, by the host, the read instruction to the source SSD, wherein the read instruction is used to instruct the source SSD to read a data block that is corresponding to the read instruction and in a flash memory of the source SSD into a migration cache of the target SSD; and after a read completion feedback instruction sent by the source SSD is received, sending, by the host, a write instruction to the target SSD, so as to instruct the target SSD to write the data block in the migration cache of the target SSD to a flash memory of the target SSD.
A chainsaw, comprising: an output assembly comprising a saw chain (100, 202) for implementing an operation; a first motor for driving the output assembly to operate; a housing formed with a grip for a user to hold; a liquid pump assembly (400, 500) comprising a liquid pump and a second motor for driving the liquid pump to operate; and an oil can for storing a liquid for lubricating the saw chain; wherein the liquid pump assembly is at least partially disposed within the grip, and a total length M of the chainsaw is greater than or equal to 20 cm and less than or equal to 150 cm, characterized in that the first motor is disposed between the oil can and the liquid pump assembly. an output assembly comprising a saw chain (100, 202) for implementing an operation; a first motor for driving the output assembly to operate; a housing formed with a grip for a user to hold; a liquid pump assembly (400, 500) comprising a liquid pump and a second motor for driving the liquid pump to operate; and an oil can for storing a liquid for lubricating the saw chain; a liquid pump and a second motor for driving the liquid pump to operate; and an oil can for storing a liquid for lubricating the saw chain; wherein the liquid pump assembly is at least partially disposed within the grip, and a total length M of the chainsaw is greater than or equal to 20 cm and less than or equal to 150 cm, characterized in that the first motor is disposed between the oil can and the liquid pump assembly.