mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile assist device comprising: a movable device ; an illumination sensor mounted on the movable device ; a camera ; a control module configured to determine brightness of surroundings from an output of the illumination sensor , and also to output a control signal for controlling an operation of an illuminator based on a result of the determination; and a mapping module configured to store a plurality of areas, wherein the control module is further configured to determine a destination area of the plurality of areas and to measure the brightness in the determined destination area; and when the measured value of the brightness is less than a predetermined value, the control module is further configured to temporarily store the measured value of the brightness; adjust the illumination intensity of the illuminator in the determined destination area, capture an image by the camera , when the illumination intensity of the illuminator in the determined destination area is adjusted, and adjust the illuminator after capturing the image by the camera , so that the brightness reaches the level corresponding to the measured value temporarily stored. a movable device ; an illumination sensor mounted on the movable device ; a camera ; a control module configured to determine brightness of surroundings from an output of the illumination sensor , and also to output a control signal for controlling an operation of an illuminator based on a result of the determination; and a mapping module configured to store a plurality of areas, wherein the control module is further configured to determine a destination area of the plurality of areas and to measure the brightness in the determined destination area; and when the measured value of the brightness is less than a predetermined value, the control module is further configured to temporarily store the measured value of the brightness; adjust the illumination intensity of the illuminator in the determined destination area, capture an image by the camera , when the illumination intensity of the illuminator in the determined destination area is adjusted, and adjust the illuminator after capturing the image by the camera , so that the brightness reaches the level corresponding to the measured value temporarily stored. temporarily store the measured value of the brightness; adjust the illumination intensity of the illuminator in the determined destination area, capture an image by the camera , when the illumination intensity of the illuminator in the determined destination area is adjusted, and adjust the illuminator after capturing the image by the camera , so that the brightness reaches the level corresponding to the measured value temporarily stored.
A control device that controls an electronic musical instrument , the control device comprising: a first communication part that performs wireless communication with the electronic musical instrument ; and a second communication part that performs wireless communication with a control portion that controls the electronic musical instrument on the basis of the Bluetooth (registered trademark) Low Energy standard, characterised in that in establishment of communication with the control portion , the second communication part is configured to transmit an advertising packet to which an ID for identifying the control device is added to the control portion in a case where the communication with the electronic musical instrument using the first communication part has not been established, and is configured to transmit an advertising packet to which an ID for identifying the control device including information indicating that the communication with the electronic musical instrument has been established is added to the control portion in a case where the communication with the electronic musical instrument using the first communication part has been established. a first communication part that performs wireless communication with the electronic musical instrument ; and a second communication part that performs wireless communication with a control portion that controls the electronic musical instrument on the basis of the Bluetooth (registered trademark) Low Energy standard, characterised in that in establishment of communication with the control portion , the second communication part is configured to transmit an advertising packet to which an ID for identifying the control device is added to the control portion in a case where the communication with the electronic musical instrument using the first communication part has not been established, and is configured to transmit an advertising packet to which an ID for identifying the control device including information indicating that the communication with the electronic musical instrument has been established is added to the control portion in a case where the communication with the electronic musical instrument using the first communication part has been established.
A counter-rotating turbine (C) of a turbomachine , extending about an axis (X) and comprising: - an inner rotor configured to rotate about the axis of rotation (X), and comprising an inner drum on which is fixed an inner movable blading having at least one inner movable blade extending radially outwardly, - an outer rotor configured to rotate about the axis of rotation (X) in a direction opposite to the inner rotor, and comprising an outer drum on which is fixed an outer movable blading having at least one outer movable blade extending radially inwardly, characterized in that the outer movable blading comprises at least one fixing rod extending through an orifice of the outer drum , in that the outer movable blading is fixed to the outer drum via a clamping means fixed to the fixing rod from an outer face of the outer drum , and in that a set ring is disposed around the fixing rod in the orifice of the outer drum . - an inner rotor configured to rotate about the axis of rotation (X), and comprising an inner drum on which is fixed an inner movable blading having at least one inner movable blade extending radially outwardly, - an outer rotor configured to rotate about the axis of rotation (X) in a direction opposite to the inner rotor, and comprising an outer drum on which is fixed an outer movable blading having at least one outer movable blade extending radially inwardly,
A method of supplying a source gas to a reaction furnace for producing polycrystalline silicon with a Siemens method, the method comprising: using a reaction furnace in which when an area of a bottom plate of the reaction furnace is represented as S 0 , all of one or more source gas supply nozzles provided in the reaction furnace are provided on an inner side of an imaginary concentric circle having a center in a center portion of the bottom plate and having an area S of S 0 /2; and setting values of u and Q of each of the source gas supply nozzles such that a total Σ(Q×u 2 /V) of values Q×u 2 /V is equal to or larger than 2500 (kg/m·sec 3 ), in performing deposition reaction of the polycrystalline silicon under a reaction pressure of 0.25 MPa to 0.9 MPa, where u (m/sec), Q (kg/sec), and V (m 3 ) represent flow velocity of the source gas in gas supply ports of the source gas supply nozzles, source gas supply amount, and inner volume of the reaction furnace, respectively. using a reaction furnace in which when an area of a bottom plate of the reaction furnace is represented as S 0 , all of one or more source gas supply nozzles provided in the reaction furnace are provided on an inner side of an imaginary concentric circle having a center in a center portion of the bottom plate and having an area S of S 0 /2; and setting values of u and Q of each of the source gas supply nozzles such that a total Σ(Q×u 2 /V) of values Q×u 2 /V is equal to or larger than 2500 (kg/m·sec 3 ), in performing deposition reaction of the polycrystalline silicon under a reaction pressure of 0.25 MPa to 0.9 MPa, where u (m/sec), Q (kg/sec), and V (m 3 ) represent flow velocity of the source gas in gas supply ports of the source gas supply nozzles, source gas supply amount, and inner volume of the reaction furnace, respectively.
A method comprising: tracking , by a device in a network, changes in a source port or an Internet Protocol identifier, IP ID, indicated by network traffic associated with a particular host in the network; detecting , by the device, an operating system start event based on the tracked changes in the source port or IP ID indicated in the traffic data associated with the particular host; providing , by the device, data regarding the detected operating system start event as input to a machine learning-based malware detector; and causing , by the device, performance of a mitigation action in the network when the malware detector determines that the particular host is infected with malware. tracking , by a device in a network, changes in a source port or an Internet Protocol identifier, IP ID, indicated by network traffic associated with a particular host in the network; detecting , by the device, an operating system start event based on the tracked changes in the source port or IP ID indicated in the traffic data associated with the particular host; providing , by the device, data regarding the detected operating system start event as input to a machine learning-based malware detector; and causing , by the device, performance of a mitigation action in the network when the malware detector determines that the particular host is infected with malware.
Spring bridge for a spring bridge breathing bag plate system of a closed-circuit breathing apparatus , comprising a spring bridge carrier for arranging at least one spring element of a spring bridge breathing bag plate system and comprising at least one fastening element for holding the spring bridge on the closed-circuit breathing apparatus , wherein the at least one fastening element is a rotary element and/or sliding element for rotatably and/or slidably moving the spring bridge on and relative to the closed-circuit breathing apparatus , wherein the spring bridge is rotatable and/or slidable by means of the rotary element and/or the sliding element from a working position (A) into an opening position (Ö) to release access to a breathing bag of the closed-circuit breathing apparatus , wherein the spring bridge remains fastened to the closed-circuit breathing apparatus when the spring bridge is in the opening position (Ö). wherein the at least one fastening element is a rotary element and/or sliding element for rotatably and/or slidably moving the spring bridge on and relative to the closed-circuit breathing apparatus , wherein the spring bridge is rotatable and/or slidable by means of the rotary element and/or the sliding element from a working position (A) into an opening position (Ö) to release access to a breathing bag of the closed-circuit breathing apparatus , wherein the spring bridge remains fastened to the closed-circuit breathing apparatus when the spring bridge is in the opening position (Ö).
A centrifugal separator for industrial separation of a liquid-gas mixture, comprising a centrifugal separator body having a centrifugal separator body wall, the centrifugal separator body comprising a cylindrical section and a conical section , a gas outlet positioned at the top end of the centrifugal separator body and a liquid outlet positioned at the bottom end of the centrifugal separator body a liquid-gas mixture inlet orifice , in particular positioned in the cylindrical section of the centrifugal separator body, wherein the centrifugal separator body further comprises means for detecting the thickness of the liquid on the centrifugal separator body wall; characterized in that the means for detecting the thickness of the liquid are positioned in the cylindrical section .
A system for providing instillation fluid to a deep abdominal wound, the system comprising: an instillation module defining a first surface and a second, abdominal contents-facing surface, the instillation module including a distribution hub configured to receive instillation fluid from an instillation fluid source ; and a connection structure comprising: a first surface; a second, abdominal contents-facing surface; and a flow path extending between the first surface of the connection structure and the second surface of the connection structure , the flow path including an inlet configured to receive an instillation fluid conduit engaged with the instillation fluid source and an outlet in fluid communication with the instillation module , the flow path defining an axis extending between the inlet and the outlet and configured to compress in a direction defined by the axis; wherein the second surface of the connection structure is secured to the first surface of the instillation module to provide a fluid-tight connection between the flow path and the instillation module , and wherein the distribution hub of the instillation module receives instillation fluid through the flow path. an instillation module defining a first surface and a second, abdominal contents-facing surface, the instillation module including a distribution hub configured to receive instillation fluid from an instillation fluid source ; and a connection structure comprising: a first surface; a second, abdominal contents-facing surface; and a flow path extending between the first surface of the connection structure and the second surface of the connection structure , the flow path including an inlet configured to receive an instillation fluid conduit engaged with the instillation fluid source and an outlet in fluid communication with the instillation module , the flow path defining an axis extending between the inlet and the outlet and configured to compress in a direction defined by the axis; a first surface; a second, abdominal contents-facing surface; and a flow path extending between the first surface of the connection structure and the second surface of the connection structure , the flow path including an inlet configured to receive an instillation fluid conduit engaged with the instillation fluid source and an outlet in fluid communication with the instillation module , the flow path defining an axis extending between the inlet and the outlet and configured to compress in a direction defined by the axis; wherein the second surface of the connection structure is secured to the first surface of the instillation module to provide a fluid-tight connection between the flow path and the instillation module , and wherein the distribution hub of the instillation module receives instillation fluid through the flow path.
A method for sanitizing an electric motor, the method comprising: setting operational parameters for the electric motor for destroying targeted microbes; and energizing the electric motor using the set operational parameters, wherein setting the operational parameters of the electric motor comprises providing a current waveform of varying frequency to windings of the electric motor to cause vibration at frequencies at which the targeted microbes will be destroyed. setting operational parameters for the electric motor for destroying targeted microbes; and energizing the electric motor using the set operational parameters, wherein setting the operational parameters of the electric motor comprises providing a current waveform of varying frequency to windings of the electric motor to cause vibration at frequencies at which the targeted microbes will be destroyed.
A method in a wireless communication network, used in an access point, wherein the access point is served by a superior access point and serves one or more subordinate access points, the method comprising: receiving (S1010) a first synchronization signal from the superior access point, wherein the first synchronization signal is transmitted in a first downlink transmission time position; obtaining (S1020) the first downlink transmission time position for the first synchronization signal; determining (S1030) a second downlink transmission time position for a second synchronization signal to be transmitted by the access point, based on the first downlink transmission time position; characterized in : transmitting (S1040) the second synchronization signal via the second downlink transmission time position to the one or more subordinate access points; determining, based on the first downlink transmission time position, a third downlink transmission time position for a third synchronization signal to be transmitted from one neighboring access point of the superior access point; and sensing the third synchronization signal based on the third downlink transmission time position. receiving (S1010) a first synchronization signal from the superior access point, wherein the first synchronization signal is transmitted in a first downlink transmission time position; obtaining (S1020) the first downlink transmission time position for the first synchronization signal; determining (S1030) a second downlink transmission time position for a second synchronization signal to be transmitted by the access point, based on the first downlink transmission time position; characterized in : transmitting (S1040) the second synchronization signal via the second downlink transmission time position to the one or more subordinate access points; determining, based on the first downlink transmission time position, a third downlink transmission time position for a third synchronization signal to be transmitted from one neighboring access point of the superior access point; and sensing the third synchronization signal based on the third downlink transmission time position. transmitting (S1040) the second synchronization signal via the second downlink transmission time position to the one or more subordinate access points; determining, based on the first downlink transmission time position, a third downlink transmission time position for a third synchronization signal to be transmitted from one neighboring access point of the superior access point; and sensing the third synchronization signal based on the third downlink transmission time position.
An apparatus, comprising: an optical transceiver having a first port , a second port and an optical switch coupled to the first port and the second port, the optical switch including a first switch coupled to the first port, a second switch coupled to the second port, and an optical coupler coupled to the first port via the first switch and the second port via the second switch, wherein the first switch is switchable between a pass state and a block state and the second switch is switchable between a pass state and a block state, the optical switch switchable between a unidirectional port operation mode and a bidirectional port operation mode, when the optical switch is in the unidirectional port operation mode, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, when the optical switch is in the bidirectional port operation mode, the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal. an optical transceiver having a first port , a second port and an optical switch coupled to the first port and the second port, the optical switch including a first switch coupled to the first port, a second switch coupled to the second port, and an optical coupler coupled to the first port via the first switch and the second port via the second switch, wherein the first switch is switchable between a pass state and a block state and the second switch is switchable between a pass state and a block state, the optical switch switchable between a unidirectional port operation mode and a bidirectional port operation mode, when the optical switch is in the unidirectional port operation mode, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, when the optical switch is in the bidirectional port operation mode, the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal. the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal.
A driving device for connecting with a propeller, the driving device comprising a body portion and a driving shaft disposed at the body portion , wherein the driving shaft protrudes beyond a center position of the body portion , wherein the driving device further comprises a lock portion disposed on the body portion , the lock portion is provided thereon with at least one first snap-fitting portion for being clamped with the propeller, characterised in that the driving device further comprises an elastic abutting member disposed on the body portion , the elastic abutting member is configured for being pressed down and deformed by a connecting surface of the propeller, and for abutting against the propeller when the first snap-fitting portion is snapped with the propeller.