mhurhangee/patent-ind-claim-en huggingface dataset:
A system for monitoring physical assets in a monitored environment, the system comprising: monitoring devices attached to a plurality of monitored physical assets, and configured to collect monitoring data from the plurality of monitored physical assets; a first access point, configured to receive the collected monitoring data from the monitoring devices and to process the collected monitoring data; an Internet of Things (IoT) link established between each of the monitoring devices and the first access point; an IoT communication protocol overlay that enables synchronized uplinks from the monitoring devices, attached to the plurality of monitored physical assets, to the first access point via the IoT links, wherein the IoT communication protocol overlay governs transmissions of collected monitoring data by the monitoring devices, attached to the plurality of monitored physical assets, to the first access point; a hub/cloud platform configured to: receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and a hub configured to establish an interface between the first access point and a cloud environment, wherein the hub/cloud platform jointly executes on the hub and in the cloud environment to provide analytics services to the user. monitoring devices attached to a plurality of monitored physical assets, and configured to collect monitoring data from the plurality of monitored physical assets; a first access point, configured to receive the collected monitoring data from the monitoring devices and to process the collected monitoring data; an Internet of Things (IoT) link established between each of the monitoring devices and the first access point; an IoT communication protocol overlay that enables synchronized uplinks from the monitoring devices, attached to the plurality of monitored physical assets, to the first access point via the IoT links, wherein the IoT communication protocol overlay governs transmissions of collected monitoring data by the monitoring devices, attached to the plurality of monitored physical assets, to the first access point; a hub/cloud platform configured to: receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and a hub configured to establish an interface between the first access point and a cloud environment, wherein the hub/cloud platform jointly executes on the hub and in the cloud environment to provide analytics services to the user.
A parking assistance method for assisting alignment between coils when parking a vehicle in a parking space provided with a power transmission coil , the power transmission coil configured to supply power in a wireless manner to a receiving coil , the receiving coil mounted in the vehicle , the parking assistance method comprising: measuring a first received voltage (NOW) generated in the receiving coil ; and assisting the alignment between the coils by presenting to a vehicle occupant a result of having determined whether or not the power can be supplied and characterized in that determining whether or not power can be supplied comprises calculating a first reference value (Vth) obtained by adding previously obtained potential difference (Vgap) to a smallest voltage (V0) that is a voltage which is generated in the receiving coil and at which can be determined that the power can be supplied if there is no fluctuation of a gap in a vertical direction between the receiving coil and the power transmission coil , and comparing the first reference value (Vth) and the first received voltage (NOW), wherein the previously obtained potential difference (Vgap) is a potential difference between a second received voltage (Vt0) of the receiving coil measured when the alignment between the coils is previously executed before assisting the alignment between the coils, and a third received voltage (Vt1) of the receiving coil measured after the alignment and the power supply are previously completed. measuring a first received voltage (NOW) generated in the receiving coil ; and assisting the alignment between the coils by presenting to a vehicle occupant a result of having determined whether or not the power can be supplied and characterized in that determining whether or not power can be supplied comprises calculating a first reference value (Vth) obtained by adding previously obtained potential difference (Vgap) to a smallest voltage (V0) that is a voltage which is generated in the receiving coil and at which can be determined that the power can be supplied if there is no fluctuation of a gap in a vertical direction between the receiving coil and the power transmission coil , and comparing the first reference value (Vth) and the first received voltage (NOW), wherein the previously obtained potential difference (Vgap) is a potential difference between a second received voltage (Vt0) of the receiving coil measured when the alignment between the coils is previously executed before assisting the alignment between the coils, and a third received voltage (Vt1) of the receiving coil measured after the alignment and the power supply are previously completed.
A method for measuring an electric cross-talk (ECT) effect in a laser diode array, wherein the laser diode array comprises a plurality of laser diodes including a first laser diode and a second laser diode; characterised by comprising: capturing , by an image sensor, a first image of a first laser spot of the first laser diode with the second laser diode being turned off; capturing , by the image sensor, a second image of a second laser spot of the first laser diode while switching on the second laser diode; determining , by image processing of the first image and the second image, a ratio of laser spot energy of the first laser spot and the second laser spot; and calculating , based on the determined ratio of laser spot energy, an ECT coupling coefficient associated with the ECT effect on the first laser diode by switching the second laser diode. capturing , by an image sensor, a first image of a first laser spot of the first laser diode with the second laser diode being turned off; capturing , by the image sensor, a second image of a second laser spot of the first laser diode while switching on the second laser diode; determining , by image processing of the first image and the second image, a ratio of laser spot energy of the first laser spot and the second laser spot; and calculating , based on the determined ratio of laser spot energy, an ECT coupling coefficient associated with the ECT effect on the first laser diode by switching the second laser diode.
A method for performing communication between a user equipment and a network apparatus in a wireless communication network, comprising: the user equipment transmitting first data blocks to the network apparatus; the user equipment receiving second data blocks from the network apparatus; the user equipment receiving one or more polling messages to request that the user equipment acknowledge receipt of multiple data blocks transmitted by the network apparatus, wherein the one or more polling messages are sent according to a polling interval, characterized by the polling interval being dynamically set independently for each of a plurality of user equipments, wherein the polling interval is further set responsive to a size of one or more data blocks transmitted from the apparatus to the user equipment. the user equipment transmitting first data blocks to the network apparatus; the user equipment receiving second data blocks from the network apparatus; the user equipment receiving one or more polling messages to request that the user equipment acknowledge receipt of multiple data blocks transmitted by the network apparatus, wherein the one or more polling messages are sent according to a polling interval, characterized by the polling interval being dynamically set independently for each of a plurality of user equipments, wherein the polling interval is further set responsive to a size of one or more data blocks transmitted from the apparatus to the user equipment.
A setting tool for moving a sleeve inside a casing to open or close casing openings , the setting tool comprising: a body extending along a central longitudinal axis (X); a set of holding dogs located around the body and configured to engage the casing ; a set of sleeve dogs located around the body and configured to engage the sleeve ; and a piston assembly configured to move the set of sleeve dogs along the central longitudinal axis (X) relative to the set of holding dogs so that the sleeve slides to open or close the casing openings , characterized in that the setting tool further comprises: a controller located inside the body ; and a sensor located on the body and configured to measure a speed of the body relative to the casing , wherein the set of sleeve dogs is configured to move along the central longitudinal axis X relative to the set of holding dogs when the controller determines, based on an input from the sensor , that the body is at rest relative to the casing . a body extending along a central longitudinal axis (X); a set of holding dogs located around the body and configured to engage the casing ; a set of sleeve dogs located around the body and configured to engage the sleeve ; and a piston assembly configured to move the set of sleeve dogs along the central longitudinal axis (X) relative to the set of holding dogs so that the sleeve slides to open or close the casing openings , characterized in that the setting tool further comprises: a controller located inside the body ; and a sensor located on the body and configured to measure a speed of the body relative to the casing , wherein the set of sleeve dogs is configured to move along the central longitudinal axis X relative to the set of holding dogs when the controller determines, based on an input from the sensor , that the body is at rest relative to the casing . a controller located inside the body ; and a sensor located on the body and configured to measure a speed of the body relative to the casing , wherein the set of sleeve dogs is configured to move along the central longitudinal axis X relative to the set of holding dogs when the controller determines, based on an input from the sensor , that the body is at rest relative to the casing .
Connecting arrangement for securing a cover of an air filter device of a motor vehicle to a filter housing and to a filter element which is arranged in an exchangeable manner in the filter housing and which can be inserted into the filter housing through an insertion opening, the insertion opening being able to be closed by the cover , the cover being secured to the filter housing and to the filter element , at least one holding element being able to be secured to the filter element by means of a contact surface for contacting a locking element protruding from the cover in a recess in the filter housing , characterized in that the holding element has a locking geometry with which it can be locked into the recess of the filter housing designed as a locking niche , as a result of which the filter element can be fixed in a locking position on the filter housing , and the locking element is designed as a shaft having at least one strut bolt protruding from the shaft at one end and a handle part at the other end for rotating the locking element , the shaft being guided through the cover so that the cover and the filter element can be braced against one another in the locking position by means of the at least one strut bolt and by means of at least one contact surface designed as a ramp on the holding element , which come into contact with one another by rotation of the locking element , the cover being able to be secured to the filter housing of the air filter device for closing the insertion opening of the receiving chamber only when the at least one holding element is moved into the locking position, the at least one holding element being held on a frame which at least partially surrounds a filter material of the filter element , the at least one holding element having a passage opening for the passage of the locking element , and the at least one ramp being formed on the rear side of the passage opening .
A method of aligning a grinding component in a skate blade sharpening system , the method comprising: retaining an alignment tool with at least one jaw , the at least one jaw configured to secure a skate blade within the skate blade sharpening system in a sharpening position, the sharpening position having a centerline , the alignment tool comprising a first visual reference feature positioned at a defined position relative to the centerline of the sharpening position; providing a second visual reference feature at a second predetermined location on a motor-driven component, wherein the motor-driven component is movable within a housing of the skate blade sharpening system by an adjustment mechanism; and operating the adjustment mechanism to position the motor-driven component such that the second visual reference feature is brought into alignment with the first visual reference feature thereby bringing into alignment the skate blade with the grinding component . retaining an alignment tool with at least one jaw , the at least one jaw configured to secure a skate blade within the skate blade sharpening system in a sharpening position, the sharpening position having a centerline , the alignment tool comprising a first visual reference feature positioned at a defined position relative to the centerline of the sharpening position; providing a second visual reference feature at a second predetermined location on a motor-driven component, wherein the motor-driven component is movable within a housing of the skate blade sharpening system by an adjustment mechanism; and operating the adjustment mechanism to position the motor-driven component such that the second visual reference feature is brought into alignment with the first visual reference feature thereby bringing into alignment the skate blade with the grinding component .
An aerosol-generating article for producing an inhalable aerosol upon heating, the aerosol-generating article comprising an aerosol-generating rod , the aerosol-generating rod comprising: a first aerosol-generating segment comprising a first aerosol-generating substrate, wherein the first aerosol-generating substrate comprises a tobacco material and an aerosol former; a second aerosol-generating segment at a location upstream of the first aerosol-generating segment; and a wrapper circumscribing at least the first aerosol-generating segment and the second aerosol-generating segment; wherein the second aerosol-generating segment comprises a plug of a porous substrate comprising a core portion and a peripheral portion surrounding the core portion , wherein the core portion of the plug comprises at least one of an aerosol-generating medium and a flavourant, wherein the peripheral portion of the plug surrounding the core portion is free of the at least one of an aerosol-generating medium and a flavourant, and wherein a cross-sectional area of the core portion of the plug is from 30 percent to 90 percent of a cross-sectional area of the second segment . a first aerosol-generating segment comprising a first aerosol-generating substrate, wherein the first aerosol-generating substrate comprises a tobacco material and an aerosol former; a second aerosol-generating segment at a location upstream of the first aerosol-generating segment; and a wrapper circumscribing at least the first aerosol-generating segment and the second aerosol-generating segment; wherein the second aerosol-generating segment comprises a plug of a porous substrate comprising a core portion and a peripheral portion surrounding the core portion , wherein the core portion of the plug comprises at least one of an aerosol-generating medium and a flavourant, wherein the peripheral portion of the plug surrounding the core portion is free of the at least one of an aerosol-generating medium and a flavourant, and wherein a cross-sectional area of the core portion of the plug is from 30 percent to 90 percent of a cross-sectional area of the second segment .
Driver and receiver circuitry for a sensor , the circuitry comprising: multiple drive/receive circuits adapted to be coupled to respective electrodes of the sensor, each drive/receive circuit comprising a voltage-following sigma-delta A/D converter combined with a sigma-delta D/A converter having a sigma-delta output filter driving a respective electrode of the sensor, the voltage-following sigma-delta A/D converter connected to follow a reference signal on a first reference comparator input by producing a feedback output at a virtual signal node on a second comparator input, the sigma-delta output filter also connected to the virtual signal node ; drive signal generation circuitry coupled to the first reference comparator input of each of the drive/receive circuits, the drive signal generation circuit configured to generate the reference signal which comprises at least one of a mutual analog signal at a first frequency and a self analog signal at a second frequency different from the first frequency; wherein some of the drive/receive circuits are operable in a first mode to drive the mutual analog signal to their respective electrodes, and wherein others of the drive/receive circuits are operable in a second mode to drive said self analog signal to respective electrodes and to sense both said self analog signal and mutual analog signal simultaneously from the respective electrodes. multiple drive/receive circuits adapted to be coupled to respective electrodes of the sensor, each drive/receive circuit comprising a voltage-following sigma-delta A/D converter combined with a sigma-delta D/A converter having a sigma-delta output filter driving a respective electrode of the sensor, the voltage-following sigma-delta A/D converter connected to follow a reference signal on a first reference comparator input by producing a feedback output at a virtual signal node on a second comparator input, the sigma-delta output filter also connected to the virtual signal node ; drive signal generation circuitry coupled to the first reference comparator input of each of the drive/receive circuits, the drive signal generation circuit configured to generate the reference signal which comprises at least one of a mutual analog signal at a first frequency and a self analog signal at a second frequency different from the first frequency; wherein some of the drive/receive circuits are operable in a first mode to drive the mutual analog signal to their respective electrodes, and wherein others of the drive/receive circuits are operable in a second mode to drive said self analog signal to respective electrodes and to sense both said self analog signal and mutual analog signal simultaneously from the respective electrodes.
A hinge device for a lying or sitting furniture, comprising two panels , a hinge member hinging the two panels relative to each other along a hinge axis (A), wherein it includes a cover with a fastener , and the hinge member includes an orifice in the direction of the hinge axis (A) able to receive the fastener of the cover , the hinge member including a first fastener portion fastened to one end of one of the two panels, a second fastener portion fastened to one end of the other of the two panels , and a flexible portion disposed between the first and second fastener portions , the flexible portion including the orifice , the device being characterized in that the flexible portion including at least one flexible tab that can deform elastically, one end of the tab being connected to the first fastener portion , the other end of the tab being connected to the second fastener portion .
An apparatus comprising: a measuring unit configured to measure a biosignal representing electrodermal activity of the patient via a plurality of electrodes ; a therapy unit configured to deliver electrocutaneous stimulation therapy to a skin area of a patient via the plurality of electrodes ; and a processor configured to receive the biosignal from the measuring unit , to establish an oscillation rate characteristic of the biosignal, to establish a slow wave sleep stage of the patient based on the oscillation rate of the biosignal, and to operate the therapy unit to deliver electrocutaneous stimulation therapy to the skin area of the patient during only the established slow wave sleep stage and to discontinue operation of the therapy unit based upon a determination that the patient is not in the established slow wave sleep stage. a measuring unit configured to measure a biosignal representing electrodermal activity of the patient via a plurality of electrodes ; a therapy unit configured to deliver electrocutaneous stimulation therapy to a skin area of a patient via the plurality of electrodes ; and a processor configured to receive the biosignal from the measuring unit , to establish an oscillation rate characteristic of the biosignal, to establish a slow wave sleep stage of the patient based on the oscillation rate of the biosignal, and to operate the therapy unit to deliver electrocutaneous stimulation therapy to the skin area of the patient during only the established slow wave sleep stage and to discontinue operation of the therapy unit based upon a determination that the patient is not in the established slow wave sleep stage.
A heat pump-type heating device comprising: a refrigerant circuit in which a compressor , a heat-source-side heat exchanger , a motor-operated valve , and a target-side heat exchanger are provided; and an outdoor fan which is provided for the heat-source-side heat exchanger , the target-side heat exchanger being capable of heating, by a refrigerant, fluid supplied from outside, and a control unit characterized in that the control unit is configured to carry out a rotation number reduction control when a difference between a temperature of the fluid supplied to the target-side heat exchanger and an outside temperature is equal to or larger than a predetermined temperature difference, so that the rotation number of the outdoor fan upon activation of the compressor is smaller than when the difference is smaller than the predetermined temperature difference. a refrigerant circuit in which a compressor , a heat-source-side heat exchanger , a motor-operated valve , and a target-side heat exchanger are provided; and an outdoor fan which is provided for the heat-source-side heat exchanger , the target-side heat exchanger being capable of heating, by a refrigerant, fluid supplied from outside, and a control unit characterized in that the control unit is configured to carry out a rotation number reduction control when a difference between a temperature of the fluid supplied to the target-side heat exchanger and an outside temperature is equal to or larger than a predetermined temperature difference, so that the rotation number of the outdoor fan upon activation of the compressor is smaller than when the difference is smaller than the predetermined temperature difference.