mhurhangee/patent-ind-claim-en huggingface dataset:
Actuator handpiece for a neuromuscular stimulation device, comprising: - a head intended to come into contact with a body surface of a patient to be treated with a predetermined application frequency, characterized in that the head is mounted on one end of a sliding rod having an opposite end provided with a magnet , and in that the actuator handpiece comprises - a coil and - an electronic board connected electrically to the coil and designed to generate a magnetic field for the alternating displacement of the magnet and therefore the head between a distal position, in which the head is intended to exert pressure on the body surface, and a proximal pressure-reducing or release position, a Teflon support structure for said coil , said support structure being supported by a perforated steel plate situated in a plane defined in a body of the actuator handpiece , the perforated plate being situated around a cylindrical wall of the support structure which, internally, defines a sliding seat for the magnet . - a head intended to come into contact with a body surface of a patient to be treated with a predetermined application frequency, characterized in that the head is mounted on one end of a sliding rod having an opposite end provided with a magnet , and in that the actuator handpiece comprises - a coil and - an electronic board connected electrically to the coil and designed to generate a magnetic field for the alternating displacement of the magnet and therefore the head between a distal position, in which the head is intended to exert pressure on the body surface, and a proximal pressure-reducing or release position, - a coil and - an electronic board connected electrically to the coil and designed to generate a magnetic field for the alternating displacement of the magnet and therefore the head between a distal position, in which the head is intended to exert pressure on the body surface, and a proximal pressure-reducing or release position, a Teflon support structure for said coil , said support structure being supported by a perforated steel plate situated in a plane defined in a body of the actuator handpiece , the perforated plate being situated around a cylindrical wall of the support structure which, internally, defines a sliding seat for the magnet .
Transfer and feed unit for preforms, in particular for PET bottles, wherein the transfer and feed unit can be loaded with preforms at the upstream end thereof and feeds the preforms to a conveying unit arranged at the downstream end of the transfer and feed unit , wherein the transfer and feed unit has a first conveyor belt and a second conveyor belt , wherein the second conveyor belt is arranged at the downstream end of the first conveyor belt , wherein the first conveyor belt feeds the preforms to the second conveyor belt , wherein the second conveyor belt feeds the preforms to the conveying unit arranged at the downstream end thereof and wherein a distance sensor (SD) is arranged in the upstream end region of the second conveyor belt , characterized in that a first sensor (S1) for detecting preforms is arranged in the upstream end region of the first conveyor belt .
A battery management system , BMS, comprising: a data processing unit configured to classify data received in real time from a plurality of slave BMSs to be first data if the data is determined to be data to be urgently transmitted based on preset criteria and to classify the received data to be second data if otherwise; a first data transmission unit configured to transmit in real time the first data to a higher-level system using a first communication protocol, wherein the first communication protocol is configured to transmit the received first data in a Controller Area Network, CAN, manner; a second data storage unit configured to store the second data cumulatively; and a second data communication unit configured to transmit the second data stored in the second data storage unit to the higher-level system using a second communication protocol different from the first communication protocol, wherein the second communication protocol is configured to transmit the stored second data in a block form to the higher-level system in a streaming manner periodically. a data processing unit configured to classify data received in real time from a plurality of slave BMSs to be first data if the data is determined to be data to be urgently transmitted based on preset criteria and to classify the received data to be second data if otherwise; a first data transmission unit configured to transmit in real time the first data to a higher-level system using a first communication protocol, wherein the first communication protocol is configured to transmit the received first data in a Controller Area Network, CAN, manner; a second data storage unit configured to store the second data cumulatively; and a second data communication unit configured to transmit the second data stored in the second data storage unit to the higher-level system using a second communication protocol different from the first communication protocol, wherein the second communication protocol is configured to transmit the stored second data in a block form to the higher-level system in a streaming manner periodically.
A pipette tip comprising an exterior surface, an interior surface, a proximal region , a distal region and a junction between the proximal region and the distal region, which proximal region comprises: an annular flange at a proximal terminus of the proximal region , a distal terminal shoulder at the junction, a plurality of longitudinally-oriented grooves on the exterior surface of the pipette tip extending from the flange to the shoulder, wherein: each groove comprises a groove width (X 1 , X 2 , X 3 , X 4 , X 5 , X 6 ) and a groove floor , a plurality of longitudinally-oriented panels on the exterior surface of the pipette tip, wherein: each panel is adjacent to a groove, each panel or a portion thereof extends over a sealing zone, each panel comprises a panel sidewall , a panel face and a panel width (Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 ), and each panel width is greater than each groove width; a distance between a groove floor and an interior surface of a pipette tip opposite the groove floor (Z 1 , Z 2 , Z 3 , Z 4 , Z 5 , Z 6 ) , for each groove, is less than a distance between a panel face and an interior surface of a pipette tip opposite the panel face (W 1 , W 2 , W 3 , W 4 , W 5 , W 6 ) , for each panel; and which interior surface of a pipette tip defines a substantially frustum-shaped void and is substantially smooth and uniform. an annular flange at a proximal terminus of the proximal region , a distal terminal shoulder at the junction, a plurality of longitudinally-oriented grooves on the exterior surface of the pipette tip extending from the flange to the shoulder, wherein: each groove comprises a groove width (X 1 , X 2 , X 3 , X 4 , X 5 , X 6 ) and a groove floor , a plurality of longitudinally-oriented panels on the exterior surface of the pipette tip, wherein: each panel is adjacent to a groove, each panel or a portion thereof extends over a sealing zone, each panel comprises a panel sidewall , a panel face and a panel width (Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 ), and each panel width is greater than each groove width; each panel is adjacent to a groove, each panel or a portion thereof extends over a sealing zone, each panel comprises a panel sidewall , a panel face and a panel width (Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 ), and each panel width is greater than each groove width; a distance between a groove floor and an interior surface of a pipette tip opposite the groove floor (Z 1 , Z 2 , Z 3 , Z 4 , Z 5 , Z 6 ) , for each groove, is less than a distance between a panel face and an interior surface of a pipette tip opposite the panel face (W 1 , W 2 , W 3 , W 4 , W 5 , W 6 ) , for each panel; and which interior surface of a pipette tip defines a substantially frustum-shaped void and is substantially smooth and uniform.
An air conditioner comprising: a communication adapter configured to communicate with an external server through a communication network; and a controller that stores in advance a program for controlling the air conditioner or the communication adapter, wherein the controller is configured to download an update program of the program stored in advance from the external server, and determine whether or whether not a continuous power supply period in which supply of operating power to the air conditioner and the communication adapter is less likely to be interrupted, and further update the program stored in advance to the update program if the continuous power supply period is determined, characterized by that the controller is configured to determine that it is in the continuous power supply period when it determines by using a calendar information that current time is summer or winter, or, the controller is configured to determine that it is in the continuous power supply period when the controller recognizes that the air conditioner is set to start or stop operation by a timer, or the controller is configured to determine that it is in the continuous power supply period when the controller determines that a temperature difference between room temperature of a room where the indoor unit is installed and a set temperature of operation of the air conditioner is greater than or equal to a predetermined threshold temperature difference. a communication adapter configured to communicate with an external server through a communication network; and a controller that stores in advance a program for controlling the air conditioner or the communication adapter, wherein the controller is configured to download an update program of the program stored in advance from the external server, and determine whether or whether not a continuous power supply period in which supply of operating power to the air conditioner and the communication adapter is less likely to be interrupted, and further update the program stored in advance to the update program if the continuous power supply period is determined, characterized by that the controller is configured to determine that it is in the continuous power supply period when it determines by using a calendar information that current time is summer or winter, or, the controller is configured to determine that it is in the continuous power supply period when the controller recognizes that the air conditioner is set to start or stop operation by a timer, or the controller is configured to determine that it is in the continuous power supply period when the controller determines that a temperature difference between room temperature of a room where the indoor unit is installed and a set temperature of operation of the air conditioner is greater than or equal to a predetermined threshold temperature difference.
Apparatus for taking a water depth measurement using a probe, characterized by a signal processor configured to receive signaling containing information about a water depth measurement (h) determined from a pressure (P m ) sensed by a pressure sensor (P) contained in a probe immersed in flowing water, and also containing information about a velocity-dependent offset, wherein the velocity-dependent offset is determined and depends on the velocity (V) of the flowing water; wherein the velocity (V) of the flowing water is measured collocated or closely located to the pressure sensor (P) or the velocity (V) is collected at a point of compensation, and determine corresponding signaling containing information about a corrected water depth measurement of the flowing water by correcting the water depth measurement (h) by the velocity-dependent offset in order to compensate in the point of compensation for Venturi effects on the pressure sensor (P) in the flowing water. receive signaling containing information about a water depth measurement (h) determined from a pressure (P m ) sensed by a pressure sensor (P) contained in a probe immersed in flowing water, and also containing information about a velocity-dependent offset, wherein the velocity-dependent offset is determined and depends on the velocity (V) of the flowing water; wherein the velocity (V) of the flowing water is measured collocated or closely located to the pressure sensor (P) or the velocity (V) is collected at a point of compensation, and determine corresponding signaling containing information about a corrected water depth measurement of the flowing water by correcting the water depth measurement (h) by the velocity-dependent offset in order to compensate in the point of compensation for Venturi effects on the pressure sensor (P) in the flowing water.
An isolated monoclonal antibody that binds human pre-Haptoglobin-2 but does not bind human pre-Haptoglobin-1, human Haptoglobin-1, or human Haptoglobin-2 as determined by surface plasmon resonance, wherein the monoclonal antibody specifically binds GYVEHSVRY (SEQ ID NO:1).
A registration device, comprising: an attachment piece configured to conform with and couple to an ultrasound imaging probe ; and a pathway formed in or on the attachment piece and being configured to receive an optical shape sensing device such that the optical shape sensing device can free float to permit longitudinal twisting within the pathway, the pathway including a distinctive geometry for shaping the optical shape sensing device such that the distinctive geometry provides a template pattern within an image collected while using the ultrasound imaging probe, to permit registration between imaging coordinates and optical shape sensing coordinates by interpreting optical feedback signals from the optical shape sensing device using an optical sensing module . an attachment piece configured to conform with and couple to an ultrasound imaging probe ; and a pathway formed in or on the attachment piece and being configured to receive an optical shape sensing device such that the optical shape sensing device can free float to permit longitudinal twisting within the pathway, the pathway including a distinctive geometry for shaping the optical shape sensing device such that the distinctive geometry provides a template pattern within an image collected while using the ultrasound imaging probe, to permit registration between imaging coordinates and optical shape sensing coordinates by interpreting optical feedback signals from the optical shape sensing device using an optical sensing module .
A semiconductor arrangement comprising; a normally-on transistor having first and second main terminals and a control terminal , a normally-off transistor having first and second main terminals and a control terminal , the normally-on transistor and the normally-off transistor connected in a cascode arrangement by a connection between one of the first and second main terminals of the normally-on transistor and one of the first and second main terminals of the normally-off transistor, a current-source arrangement connected to a node on the connection and configured to provide for control of the voltage at said node between the normally-on and normally-off transistors by providing for a predetermined current flow, wherein the semiconductor arrangement comprises a first semiconductor die of III-V semiconductor type having the normally-on transistor formed therein and a second semiconductor die having the normally-off transistor formed therein, the current-source arrangement formed in the first and/or second semiconductor dies, wherein the current-source arrangement comprises a first transistor having a drain, a source and a gate and a second transistor having a drain, a source and a gate, wherein the source of the first transistor is connected to the drain of the second transistor, the source of the first transistor is connected to gate of the first transistor and the source of the second transistor is connected to the gate of the second transistor through a resistor element ; and wherein the node is connected to the drain of the first transistor.
An air conditioner control method, applied in a central air conditioner comprising one or more indoor units and one or more outdoor units, wherein the air conditioner control method comprises the following steps of: determining (S100) whether a time interval between a current moment and a preset moment at which the central air conditioner is configured to enter a normal operation status for providing a comfortable indoor environment, is less than or equal to a set maximum early start duration; acquiring (S200) a preparatory demand load corresponding to the central air conditioner and acquiring a startup combination load corresponding to the central air conditioner, if the time interval is less than or equal to the set maximum early start duration; determining (S300) a start moment of an outdoor unit to be started on a basis of the startup combination load and the preparatory demand load, wherein the preparatory demand load is a demand load at startup and wherein the startup combination load is the load of the outdoor unit suitable to meet the preparatory demand load; acquiring (S400) a predicted load of the central air conditioner at the current moment, when a startup instruction or a shutdown instruction corresponding to the indoor unit in the central air conditioner is detected; determining (S500) whether the predicted load meets a change condition for the outdoor unit; and adjusting (S600) an operating status of the outdoor unit in the central air conditioner based on the predicted load, if the predicted load meets the change condition for the outdoor unit. determining (S100) whether a time interval between a current moment and a preset moment at which the central air conditioner is configured to enter a normal operation status for providing a comfortable indoor environment, is less than or equal to a set maximum early start duration; acquiring (S200) a preparatory demand load corresponding to the central air conditioner and acquiring a startup combination load corresponding to the central air conditioner, if the time interval is less than or equal to the set maximum early start duration; determining (S300) a start moment of an outdoor unit to be started on a basis of the startup combination load and the preparatory demand load, wherein the preparatory demand load is a demand load at startup and wherein the startup combination load is the load of the outdoor unit suitable to meet the preparatory demand load; acquiring (S400) a predicted load of the central air conditioner at the current moment, when a startup instruction or a shutdown instruction corresponding to the indoor unit in the central air conditioner is detected; determining (S500) whether the predicted load meets a change condition for the outdoor unit; and adjusting (S600) an operating status of the outdoor unit in the central air conditioner based on the predicted load, if the predicted load meets the change condition for the outdoor unit.
Computer-implemented method for training a model for recommending threshold values of at least one spatial vibration component of an electric rotary machine, wherein - historical data is provided (S1), wherein the historical data comprises time series of at least two operating parameters and at least one spatial vibration component of the electric rotary machine, characterised in that - operating plateaus are detected (S2) in the historical data, wherein an operating plateau is defined in that the at least two operating parameters are constant over a predeterminable period of time, - a cluster analysis is performed (S3) on the detected operating plateaus in order to detect operating point clusters, wherein various operating point clusters define various operating states of the electric rotary machine, - threshold values to be recommended for the defined operating states are determined (S4) for the at least one spatial vibration component, - the defined operating states and the threshold values to be recommended for the defined operating states are provided (S5). - historical data is provided (S1), wherein the historical data comprises time series of at least two operating parameters and at least one spatial vibration component of the electric rotary machine, characterised in that - operating plateaus are detected (S2) in the historical data, wherein an operating plateau is defined in that the at least two operating parameters are constant over a predeterminable period of time, - a cluster analysis is performed (S3) on the detected operating plateaus in order to detect operating point clusters, wherein various operating point clusters define various operating states of the electric rotary machine, - threshold values to be recommended for the defined operating states are determined (S4) for the at least one spatial vibration component, - the defined operating states and the threshold values to be recommended for the defined operating states are provided (S5).
A method for transmitting channel information by a user equipment, UE, in a wireless communication system, the method comprising: receiving a radio frequency, RF, signal from a plurality of downlink component carriers; and reporting a channel measurement result of at least one downlink component carrier from among the plurality of downlink component carriers via an uplink, wherein, for a first downlink component carrier being in a deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a first available subframe set in a first periodic subframe pattern including the first available subframe set and an unavailable subframe set, and wherein, for a second downlink component carrier being in the deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a second available subframe set in a second periodic subframe pattern including the second available subframe set and an unavailable subframe set, wherein a period of the first periodic subframe pattern is configured as being a multiple of a period of the second periodic subframe pattern and the first and second periodic time patterns are configured to have different time offsets through a radio resource control, RRC, signaling so that the first and second available subframe sets are exclusive from each other in a time domain. receiving a radio frequency, RF, signal from a plurality of downlink component carriers; and reporting a channel measurement result of at least one downlink component carrier from among the plurality of downlink component carriers via an uplink, wherein, for a first downlink component carrier being in a deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a first available subframe set in a first periodic subframe pattern including the first available subframe set and an unavailable subframe set, and wherein, for a second downlink component carrier being in the deactivated state among the plurality of downlink component carriers, the channel measurement is carried out for a second available subframe set in a second periodic subframe pattern including the second available subframe set and an unavailable subframe set, wherein a period of the first periodic subframe pattern is configured as being a multiple of a period of the second periodic subframe pattern and the first and second periodic time patterns are configured to have different time offsets through a radio resource control, RRC, signaling so that the first and second available subframe sets are exclusive from each other in a time domain.