mhurhangee/patent-ind-claim-en huggingface dataset:
A rotation sensor for determining a position of a part, comprising: an exciter coil , the exciter coil generating magnetic flux when the exciter coil is energized by a source of electrical energy; a plurality of receiver coils disposed proximate to the exciter coil , the receiver coils generating a plurality of receiver signals when the exciter coil is energized due to an inductive coupling between the receiver coils and the exciter coil ; a coupler element , the coupler element being moveable and having a coupler element position correlated with the part position, the coupler element modifying the inductive coupling between the exciter coil and the receiver coil so that each receiver signal is correlated with the part position; an electronic circuit, the electronic circuit generating a reference signal from one or more of the receiver signals, the reference signal being substantially independent of the coupler element position, the electronic circuit being operable to determine the part position from a ratiometric signal derived from at least one of the receiver signals and the reference signal, wherein the exciter coil and receiver coils being supported on a generally cylindrical substrate, the coupler element being configured to have an offset relative to the generally cylindrical substrate that changes as the part rotates, the offset being substantially parallel to an axis of rotation of the part, the electronic circuit being further operable to determine the offset of the coupler element along the axis of rotation using the reference signal. an exciter coil , the exciter coil generating magnetic flux when the exciter coil is energized by a source of electrical energy; a plurality of receiver coils disposed proximate to the exciter coil , the receiver coils generating a plurality of receiver signals when the exciter coil is energized due to an inductive coupling between the receiver coils and the exciter coil ; a coupler element , the coupler element being moveable and having a coupler element position correlated with the part position, the coupler element modifying the inductive coupling between the exciter coil and the receiver coil so that each receiver signal is correlated with the part position; an electronic circuit, the electronic circuit generating a reference signal from one or more of the receiver signals, the reference signal being substantially independent of the coupler element position, the electronic circuit being operable to determine the part position from a ratiometric signal derived from at least one of the receiver signals and the reference signal, wherein the exciter coil and receiver coils being supported on a generally cylindrical substrate, the coupler element being configured to have an offset relative to the generally cylindrical substrate that changes as the part rotates, the offset being substantially parallel to an axis of rotation of the part, the electronic circuit being further operable to determine the offset of the coupler element along the axis of rotation using the reference signal.
Power module for an electric motor, wherein the power module comprises at least one semiconductor switch half-bridge , characterized in that the semiconductor switch half-bridge has a high-side semiconductor switch and a low-side semiconductor switch , wherein the semiconductor switches of the half-bridge have in each case switching path terminals formed by a surface region of the semiconductor switch , said surface region being embodied in a flat fashion, and the switching path terminals of a semiconductor switch in each case face in the same direction, wherein the high-side semiconductor switch and the low-side semiconductor switch enclose between one another a circuit carrier having at least two electrically conductive layers , wherein the circuit carrier comprises at least one electrical insulation layer and the at least two electrically conductive layers enclosing the insulation layer between one another, wherein a switching path terminal of the low-side semiconductor switch and a switching path terminal of the high-side semiconductor switch of the half-bridge are electrically connected to one another by means of the circuit carrier, wherein an output terminal of the semiconductor switch half-bridge is formed by at least one electrically conductive layer of the circuit carrier.
Apparatus for the analysis of the dynamic behavior of a pneumatic tyre at an interface region with the ground, including: • a support frame ; • a multilayer detection plate , consisting of at least two different layers overlapping one another, carried by said support frame , in turn comprising: - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer , coupled to said interface layer ; • an image detection device arranged in such a manner as to be able to frame and directly or indirectly capture the base layer of the multilayer detection plate . wherein said interface layer is at least partially transparent and has a roughness (Ra) >= 16 μm at least at said interface region and wherein said base layer is at least partially transparent. • a support frame ; • a multilayer detection plate , consisting of at least two different layers overlapping one another, carried by said support frame , in turn comprising: - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer , coupled to said interface layer ; - an interface layer which, in use, comes into contact with the pneumatic tyre in motion, - a base layer , coupled to said interface layer ; • an image detection device arranged in such a manner as to be able to frame and directly or indirectly capture the base layer of the multilayer detection plate .
A mobile terminal for bandwidth extension to the LTE band B42, comprising: an RF circuit configured to support LTE downlink three-carrier MIMO in a 1.7 to 2.7 GHz band and a 3.4 to 3.6 GHz LTE B42 band and a 256 QAM coding, wherein the LTE downlink three-carrier MIMO comprises dual carrier 4x4 MIMO plus single carrier 2x2 MIMO; a B42 transmitting path located on the RF circuit ; and a receiving path located on the RF circuit ; wherein the B42 transmitting path is connected to a primary antenna of the RF circuit , and the receiving path is connected to four antennas of the RF circuit ; the B42 transmitting path comprises: a B42 RF power amplifier and a B42 power coupler, which are connected to a transmission terminal of the primary antenna on the RF circuit ; and wherein the mobile terminal is characterized in that the receiving path comprises: a B42 transceiving filter and a diplexer that are connected to the four antennas of the RF circuit , the receiving path comprises: a first receiving path (B42 RX0) connected to the primary antenna in the four antennas of the RF circuit ; a second receiving path (B42 RX1) connected to a secondary antenna in the four antennas of the RF circuit ; a third receiving path (B42 RX2) connected to a first MIMO antenna in the four antennas of the RF circuit ; and a fourth receiving path (B42 RX3) connected to a second MIMO antenna in the four antennas of the RF circuit . an RF circuit configured to support LTE downlink three-carrier MIMO in a 1.7 to 2.7 GHz band and a 3.4 to 3.6 GHz LTE B42 band and a 256 QAM coding, wherein the LTE downlink three-carrier MIMO comprises dual carrier 4x4 MIMO plus single carrier 2x2 MIMO; a B42 transmitting path located on the RF circuit ; and a receiving path located on the RF circuit ; wherein the B42 transmitting path is connected to a primary antenna of the RF circuit , and the receiving path is connected to four antennas of the RF circuit ; the B42 transmitting path comprises: a B42 RF power amplifier and a B42 power coupler, which are connected to a transmission terminal of the primary antenna on the RF circuit ; and wherein the mobile terminal is characterized in that the receiving path comprises: a B42 transceiving filter and a diplexer that are connected to the four antennas of the RF circuit , the receiving path comprises: a first receiving path (B42 RX0) connected to the primary antenna in the four antennas of the RF circuit ; a second receiving path (B42 RX1) connected to a secondary antenna in the four antennas of the RF circuit ; a third receiving path (B42 RX2) connected to a first MIMO antenna in the four antennas of the RF circuit ; and a fourth receiving path (B42 RX3) connected to a second MIMO antenna in the four antennas of the RF circuit .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a configuration including a random access channel, RACH, configuration index; identifying a RACH occasion based on the configuration; and transmitting, to the base station, a random access preamble based on the RACH occasion in a system frame, wherein the RACH configuration index indicates a RACH period, wherein an index of the system frame is determined based on mod(Nf, Nperiod) = k, wherein the Nf indicates the index of the system frame, wherein the Nperiod * 10ms indicates the RACH period, and wherein the k is an integer associated with the RACH period. receiving, from a base station, a configuration including a random access channel, RACH, configuration index; identifying a RACH occasion based on the configuration; and transmitting, to the base station, a random access preamble based on the RACH occasion in a system frame, wherein the RACH configuration index indicates a RACH period, wherein an index of the system frame is determined based on mod(Nf, Nperiod) = k, wherein the Nf indicates the index of the system frame, wherein the Nperiod * 10ms indicates the RACH period, and wherein the k is an integer associated with the RACH period.
Electrical enclosure provided with an interconnection system for equipment items such as computers accommodated in said enclosure, for which the interconnection system comprises at least one waveguide forming part of the framework of the enclosure, said waveguide being provided with holes arranged facing housings for accommodating said equipment items, said holes being dimensioned to form a screen to the passage of wireless communication radiofrequency waves to be transmitted by said waveguide and form a screen to external waves, characterized in that at least one waveguide is configured to serve also as grounding link and/or as functional current return element for the equipment items which are linked thereto.
Drilling tip for a soil displacement drill for placing a foundation pile, said drilling tip comprising: an at least substantially cone-shaped body , a connection for a supply line for a liquid, ein particular grout, and one or more exit channels for said liquid, characterized in that the cone-shaped body is provided with a central opening and in that in said opening an insert is mounted in which the connection for the supply line and one or more exit channels are provided.
Device for mobilizing the sacroiliac joint of a patient, in particular for releasing a blockage of the patient's sacroiliac joint , comprising: - a treatment table with a lying surface for the patient, the lying surface having an opening in the region of the sacroiliac joint of the patient; - a holding device for arranging the pelvis of the patient relative to the treatment table ; - at least one force transmission element arranged in the region of the opening of the lying surface , the force transmission element being designed to exert a force on the sacrum of the sacroiliac joint of the patient by means of a movement; and - a monitoring device for monitoring the movement of the at least one force transmission element , wherein the monitoring device comprises an emergency shutdown, which shuts off the device when the at least one force transmission element leaves a predetermined range of motion. - a treatment table with a lying surface for the patient, the lying surface having an opening in the region of the sacroiliac joint of the patient; - a holding device for arranging the pelvis of the patient relative to the treatment table ; - at least one force transmission element arranged in the region of the opening of the lying surface , the force transmission element being designed to exert a force on the sacrum of the sacroiliac joint of the patient by means of a movement; and - a monitoring device for monitoring the movement of the at least one force transmission element , wherein the monitoring device comprises an emergency shutdown, which shuts off the device when the at least one force transmission element leaves a predetermined range of motion.
A reference signal signal-to-noise ratio RS SNR reporting method performed by a terminal, comprising: sending a user capability message to a serving base station, wherein the user capability message carries capability information of measuring, recording, and reporting an RS SNR by the terminal; receiving, by the terminal, a measurement result reporting instruction message sent by the serving base station based on the user capability message; and reporting, to the serving base station by the terminal, a RS SNR obtained by means of measurement; wherein the RS SNR is a ratio of an average linear power value of reference signals RSs that are sent by a target base station and that are received on resource elements REs carrying the RSs to a sum of an average linear power value of signals that are sent by at least one non-target base station and that are received on orthogonal frequency division multiplexing OFDM symbols carrying the RSs; wherein the RS SNR is obtained by means of measurement in the following manner: receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message. sending a user capability message to a serving base station, wherein the user capability message carries capability information of measuring, recording, and reporting an RS SNR by the terminal; receiving, by the terminal, a measurement result reporting instruction message sent by the serving base station based on the user capability message; and reporting, to the serving base station by the terminal, a RS SNR obtained by means of measurement; wherein the RS SNR is a ratio of an average linear power value of reference signals RSs that are sent by a target base station and that are received on resource elements REs carrying the RSs to a sum of an average linear power value of signals that are sent by at least one non-target base station and that are received on orthogonal frequency division multiplexing OFDM symbols carrying the RSs; wherein the RS SNR is obtained by means of measurement in the following manner: receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message. receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message.
A management device for two alternating current (AC) uninterruptible power supplies (UPS) connected in parallel, characterized in that said management device comprises: - means of monitoring (Si1, Si2) the state of the line end switches of each UPS ; - means of monitoring (Sol, So2) the state of the inverters of each UPS ; and - means of generating a control signal (Cmd) capable of controlling the inhibition of a paralleling management module of the two UPS when said monitoring means (Si1, Si2, So1, So2) indicate that an inverter is stopped or that a line end switch is open. - means of monitoring (Si1, Si2) the state of the line end switches of each UPS ; - means of monitoring (Sol, So2) the state of the inverters of each UPS ; and - means of generating a control signal (Cmd) capable of controlling the inhibition of a paralleling management module of the two UPS when said monitoring means (Si1, Si2, So1, So2) indicate that an inverter is stopped or that a line end switch is open.
Blower filter system , comprising a blower filter device having a blower , a filter receptacle and a tube connection for connecting a respirator device by means of a tube , wherein the filter receptacle is configured for receiving a filter , on which a colour coding with a colour specific to the pneumatic resistance of the filter is arranged, and wherein the blower filter device comprises an optical sensor device for identifying different colours of the colour coding , characterized in that the blower filter system comprises a control unit configured for calculating the remaining capacity of the filter , wherein the resistance of the filter is taken as a basis for the calculation.
An isolated antigen-binding molecule, which is capable of binding to human V-type immunoglobulin domain-containing suppressor of T-cell Activation (VISTA) and inhibiting VISTA-mediated signalling, wherein the antigen-binding molecule comprises: (i) a heavy chain variable (VH) region incorporating the following CDRs: HC-CDR1 having the amino acid sequence of SEQ ID NO:290 HC-CDR2 having the amino acid sequence of SEQ ID NO:291 HC-CDR3 having the amino acid sequence of SEQ ID NO:278; and (ii) a light chain variable (VL) region incorporating the following CDRs: LC-CDR1 having the amino acid sequence of SEQ ID NO:41 LC-CDR2 having the amino acid sequence of SEQ ID NO:295 LC-CDR3 having the amino acid sequence of SEQ ID NO:43. (i) a heavy chain variable (VH) region incorporating the following CDRs: HC-CDR1 having the amino acid sequence of SEQ ID NO:290 HC-CDR2 having the amino acid sequence of SEQ ID NO:291 HC-CDR3 having the amino acid sequence of SEQ ID NO:278; and HC-CDR1 having the amino acid sequence of SEQ ID NO:290 HC-CDR2 having the amino acid sequence of SEQ ID NO:291 HC-CDR3 having the amino acid sequence of SEQ ID NO:278; and (ii) a light chain variable (VL) region incorporating the following CDRs: LC-CDR1 having the amino acid sequence of SEQ ID NO:41 LC-CDR2 having the amino acid sequence of SEQ ID NO:295 LC-CDR3 having the amino acid sequence of SEQ ID NO:43. LC-CDR1 having the amino acid sequence of SEQ ID NO:41 LC-CDR2 having the amino acid sequence of SEQ ID NO:295 LC-CDR3 having the amino acid sequence of SEQ ID NO:43.
A control method of an electronic device, the control method comprising: inputting at least one input data to a first artificial intelligence, Al, model, to acquire at least one output data; acquiring first usage information, based on the acquired at least one output data; acquiring first reconstruction information comprising a combination of information regarding a structure of a second AI model and information regarding a weight of a node and/or a layer of the second AI model for reconstructing the first AI model, based on the acquired first usage information; reconstructing the first AI model on the electronic device, based on the acquired first reconstruction information, to acquire the second AI model, wherein the first AI model is a general purpose AI model and the second AI model is a lightweight AI model; inputting a first input data to the acquired second AI model, to acquire a first output data; based on a reliability of the acquired first output data being less than or equal to a predetermined value, transmitting the first input data to a server; acquiring, from the server, a second output data with respect to the transmitted first input data; acquiring second usage information, based on the acquired second output data; acquiring second reconstruction information for reconstructing the second AI model, based on the acquired second usage information; and reconstructing the acquired second AI model, based on the acquired second reconstruction information, to acquire a third AI model. inputting at least one input data to a first artificial intelligence, Al, model, to acquire at least one output data; acquiring first usage information, based on the acquired at least one output data; acquiring first reconstruction information comprising a combination of information regarding a structure of a second AI model and information regarding a weight of a node and/or a layer of the second AI model for reconstructing the first AI model, based on the acquired first usage information; reconstructing the first AI model on the electronic device, based on the acquired first reconstruction information, to acquire the second AI model, wherein the first AI model is a general purpose AI model and the second AI model is a lightweight AI model; inputting a first input data to the acquired second AI model, to acquire a first output data; based on a reliability of the acquired first output data being less than or equal to a predetermined value, transmitting the first input data to a server; acquiring, from the server, a second output data with respect to the transmitted first input data; acquiring second usage information, based on the acquired second output data; acquiring second reconstruction information for reconstructing the second AI model, based on the acquired second usage information; and reconstructing the acquired second AI model, based on the acquired second reconstruction information, to acquire a third AI model.