mhurhangee/patent-ind-claim-en huggingface dataset:
A facility for producing sintered ores, the facility comprising: sintering vehicles movable along a traveling path ; a plurality of wind-boxes arranged along the traveling path and below the sintering vehicles ; a hood disposed above the sintering vehicles and extending along at least a portion of the traveling path ; and an exhaust gas circulation pipe for connecting at least some of the plurality of wind-boxes to the hood , wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes , where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes , each having one end connected to the main pipe and the other end connected to the hood , and wherein the inlet pipes are connected to one end of the hood , wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the inlet pipes have therein a first induction member for controlling a flow of the exhaust gas. sintering vehicles movable along a traveling path ; a plurality of wind-boxes arranged along the traveling path and below the sintering vehicles ; a hood disposed above the sintering vehicles and extending along at least a portion of the traveling path ; and an exhaust gas circulation pipe for connecting at least some of the plurality of wind-boxes to the hood , wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes , where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes , each having one end connected to the main pipe and the other end connected to the hood , and wherein the inlet pipes are connected to one end of the hood , wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the exhaust gas circulation pipe at least partially has at least one exhaust gas distribution region for distributing the exhaust gas in a flow direction of the exhaust gas, and the exhaust gas circulation pipe includes a main pipe having one end thereof connected to the wind-boxes , where the main pipe includes the exhaust gas distribution region, and a plurality of inlet pipes , each having one end connected to the main pipe and the other end connected to the hood , and wherein the inlet pipes are connected to one end of the hood , wherein the other ends of the plurality of inlet pipes have the same vertical level, and wherein the inlet pipes have therein a first induction member for controlling a flow of the exhaust gas.
A gas turbine engine comprising a compressor section , the compressor section comprising: a first axial rotor (204; 304) configured to rotate about an engine central longitudinal axis (A); a second axial rotor (206; 306) positioned adjacent the first axial rotor (204; 304) and configured to rotate about an engine central longitudinal axis (A); and a centrifugal compressor (100; 202; 302; 402) characterised in that the centrifugal compressor is positioned axially intermediate the first axial rotor (204; 304) and the second axial rotor (206; 306) and is operably coupled to the first axial rotor (204; 304). a first axial rotor (204; 304) configured to rotate about an engine central longitudinal axis (A); a second axial rotor (206; 306) positioned adjacent the first axial rotor (204; 304) and configured to rotate about an engine central longitudinal axis (A); and a centrifugal compressor (100; 202; 302; 402) characterised in that the centrifugal compressor is positioned axially intermediate the first axial rotor (204; 304) and the second axial rotor (206; 306) and is operably coupled to the first axial rotor (204; 304).
Method for increasing the adhesion between the first surface of a first web-type material and a first surface of a second web-type material, wherein the first web-type material and the second web-type material are fed continuously and with identical web direction to a laminating gap, in which the first web-type material and the second web-type material are laminated together each by their first surface, both first surfaces of the first web-type material and of the second web-type material are treated over the full area with a plasma, specifically such that the plasma, beginning ahead of the laminating gap on into the laminating gap, acts continuously on the two first surfaces, the laminating gap is formed by a pressure roll and a counter-pressure roll, and at least one of the surfaces of the rolls, or both, is or are furnished with a dielectric, wherein the first web-type material consists of a layer of pressure-sensitive adhesive, wherein the layer of pressure-sensitive adhesive consists of pure acrylate or predominantly of acrylate, and the layer of pressure-sensitive adhesive forms a carrier-free, single-layer, double-sided adhesive tape. the first web-type material and the second web-type material are fed continuously and with identical web direction to a laminating gap, in which the first web-type material and the second web-type material are laminated together each by their first surface, both first surfaces of the first web-type material and of the second web-type material are treated over the full area with a plasma, specifically such that the plasma, beginning ahead of the laminating gap on into the laminating gap, acts continuously on the two first surfaces, the laminating gap is formed by a pressure roll and a counter-pressure roll, and at least one of the surfaces of the rolls, or both, is or are furnished with a dielectric, wherein the first web-type material consists of a layer of pressure-sensitive adhesive, wherein the layer of pressure-sensitive adhesive consists of pure acrylate or predominantly of acrylate, and the layer of pressure-sensitive adhesive forms a carrier-free, single-layer, double-sided adhesive tape.
A method, comprising: identifying, by a computing device (106 ), a first physical zone and a second physical zone within a zoned namespace solid-state drive mapped to a logical zone to perform a received write operation, wherein the first physical zone mapped to the logical zone represents a logical older copy of data and the second physical zone mapped to the logical zone represents a logical newer copy of the data; temporarily staging, by the computing device (106 ), data to be written in the received write operation in a zone random write area associated with the identified second physical zone ; transferring, by the computing device (106 ), the temporarily staged data to the identified second physical zone when a commit boundary is determined to have been reached, wherein the commit boundary comprises a threshold capacity of data to be stored within the zone random write area ; and erasing, by the computing device (106 ), previously written data in the identified first physical zone upon determining the identified second physical zone has reached a threshold storage capacity. identifying, by a computing device (106 ), a first physical zone and a second physical zone within a zoned namespace solid-state drive mapped to a logical zone to perform a received write operation, wherein the first physical zone mapped to the logical zone represents a logical older copy of data and the second physical zone mapped to the logical zone represents a logical newer copy of the data; temporarily staging, by the computing device (106 ), data to be written in the received write operation in a zone random write area associated with the identified second physical zone ; transferring, by the computing device (106 ), the temporarily staged data to the identified second physical zone when a commit boundary is determined to have been reached, wherein the commit boundary comprises a threshold capacity of data to be stored within the zone random write area ; and erasing, by the computing device (106 ), previously written data in the identified first physical zone upon determining the identified second physical zone has reached a threshold storage capacity.
A radiation treatment system comprising: a drive stand ; a gantry with a treatment-delivering X-ray source and an imaging X-ray source mounted thereon, wherein the gantry is rotatably coupled to the drive stand and is configured to rotate in a first direction about a bore of the radiation treatment system at a first rotational velocity; an annular support structure that is rotatably coupled to the drive stand and is configured to rotate in the first direction about the bore of the radiation treatment system at a second rotational velocity when the gantry rotates about the bore at the first rotational velocity, wherein the second rotational velocity is one half the first rotational velocity; and a processor configured to: while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. a drive stand ; a gantry with a treatment-delivering X-ray source and an imaging X-ray source mounted thereon, wherein the gantry is rotatably coupled to the drive stand and is configured to rotate in a first direction about a bore of the radiation treatment system at a first rotational velocity; an annular support structure that is rotatably coupled to the drive stand and is configured to rotate in the first direction about the bore of the radiation treatment system at a second rotational velocity when the gantry rotates about the bore at the first rotational velocity, wherein the second rotational velocity is one half the first rotational velocity; and a processor configured to: while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position.
A method of performing ozonolysis or ozone-based oxidation on a liquid or emulsified reagent using a tubular falling film reactor with one or multiple tubes wherein the combined ozone and carrier gas flow is co-current and wherein the ozone concentration ranges from 0.5 % to 10 % and wherein the gas flow rate is from 10 to 1500 L/min.
A method of operating an aerosol generating device , comprising: recording a period of active use of the device ; detecting a puff inhaled by a user; characterised in that the method further comprises the steps of: determining if a battery-level notification had been provided to the user in the said period before the puff detection; determining a battery-level of the device if no notification had been provided previously; and generating an indication on the device for the user if the determined battery-level is below a predetermined level. recording a period of active use of the device ; detecting a puff inhaled by a user; characterised in that the method further comprises the steps of: determining if a battery-level notification had been provided to the user in the said period before the puff detection; determining a battery-level of the device if no notification had been provided previously; and generating an indication on the device for the user if the determined battery-level is below a predetermined level. determining if a battery-level notification had been provided to the user in the said period before the puff detection; determining a battery-level of the device if no notification had been provided previously; and generating an indication on the device for the user if the determined battery-level is below a predetermined level.
A data generation method performed by a data generation device that operates in conjunction with a mobile object , the data generation method comprising: generating first surrounding information which indicates a surrounding condition of the mobile object and is generated using first three-dimensional data; characterized by generating second surrounding information which indicates the surrounding condition of the mobile object and is generated using second three-dimensional data having an amount of data larger than an amount of data of the first three-dimensional data; determining (S901) which one of first surrounding information and second surrounding information is to be used, based on a driving condition of the mobile object ; and using (S903, S904) the one of the first surrounding information and the second surrounding information, wherein the driving condition is whether the mobile object is under autonomous travel or under manual driving. generating first surrounding information which indicates a surrounding condition of the mobile object and is generated using first three-dimensional data; characterized by generating second surrounding information which indicates the surrounding condition of the mobile object and is generated using second three-dimensional data having an amount of data larger than an amount of data of the first three-dimensional data; determining (S901) which one of first surrounding information and second surrounding information is to be used, based on a driving condition of the mobile object ; and using (S903, S904) the one of the first surrounding information and the second surrounding information, wherein the driving condition is whether the mobile object is under autonomous travel or under manual driving.
A control system for adjusting downforce on a row unit for a seeding machine , the control system comprising: a memory; and a processor, wherein the processor is configured to receive signals from a depth sensor and to calculate furrow depths from the received signals, wherein the processor is configured to determine if the furrow is maintaining a consistent depth over a predetermined period of time, wherein the processor is configured to determine that the furrow depth is consistent if the calculated furrow depths are within a predetermined range over the predetermined period of time, and wherein the processor is configured to determine that the furrow depth is not consistent if the calculated furrow depths are not within the predetermined range over the predetermined period of time; wherein the processor is further configured to send signals to a downforce adjustment mechanism to adjust a downforce based on the calculated furrow depths to activate the downforce adjustment mechanism to increase the downforce if the processor has determined that the furrow depth is not consistent. a memory; and a processor, wherein the processor is configured to receive signals from a depth sensor and to calculate furrow depths from the received signals, wherein the processor is configured to determine if the furrow is maintaining a consistent depth over a predetermined period of time, wherein the processor is configured to determine that the furrow depth is consistent if the calculated furrow depths are within a predetermined range over the predetermined period of time, and wherein the processor is configured to determine that the furrow depth is not consistent if the calculated furrow depths are not within the predetermined range over the predetermined period of time; wherein the processor is further configured to send signals to a downforce adjustment mechanism to adjust a downforce based on the calculated furrow depths to activate the downforce adjustment mechanism to increase the downforce if the processor has determined that the furrow depth is not consistent.
A touch interface having simultaneous sensing and actuation comprising: an insulating substrate; a plurality of electrodes connected to a front surface of the insulating substrate and being arranged in a pattern; an electronic controller configured to connect each electrode to sensing voltage pulses and actuating voltage pulses; said electronic controller configured to produce a haptic effect by applying the actuating voltage pulses to said electrodes, wherein the electronic controller is configured to control the haptic effect by modulating one or more of a duration of the actuating voltage pulses, frequency of the actuating voltage pulses, and number of actuating voltage pulses; and said electronic controller configured to measure the locations of touch points by applying the sensing voltage pulses to said electrodes, characterised in that the electronic controller is configured to reduce or eliminate a user's perception of the sensing voltage pulses by modulating one or more of a duration of the sensing voltage pulses and frequency of the sensing voltage pulses, such that the haptic effect is more perceptible to the user than the sensing voltage pulses. an insulating substrate; a plurality of electrodes connected to a front surface of the insulating substrate and being arranged in a pattern; an electronic controller configured to connect each electrode to sensing voltage pulses and actuating voltage pulses; said electronic controller configured to produce a haptic effect by applying the actuating voltage pulses to said electrodes, wherein the electronic controller is configured to control the haptic effect by modulating one or more of a duration of the actuating voltage pulses, frequency of the actuating voltage pulses, and number of actuating voltage pulses; and said electronic controller configured to measure the locations of touch points by applying the sensing voltage pulses to said electrodes, characterised in that the electronic controller is configured to reduce or eliminate a user's perception of the sensing voltage pulses by modulating one or more of a duration of the sensing voltage pulses and frequency of the sensing voltage pulses, such that the haptic effect is more perceptible to the user than the sensing voltage pulses.
A toothed belt with at least one tension member and a plastic matrix at least partially encasing the tension member, wherein the at least one tension member extends in the plastic matrix in a running direction of the toothed belt and wherein teeth of the toothed belt are formed in the plastic matrix and normal to the running direction, wherein the tension member is formed from an electrically conductive material and wherein the plastic matrix is formed from an electrically insulating material, wherein the toothed belt comprises at least one electronic component , which is embedded in the plastic matrix and which comprises at least one sensor, which gathers data relating to the status parameters of the toothed belt, characterised in that the at least one electronic component is coupled via at least two voltage taps to the tension member , in order to tap a voltage induced in the tension member for the power supply of the at least one electronic component . wherein the at least one tension member extends in the plastic matrix in a running direction of the toothed belt and wherein teeth of the toothed belt are formed in the plastic matrix and normal to the running direction, wherein the tension member is formed from an electrically conductive material and wherein the plastic matrix is formed from an electrically insulating material, wherein the toothed belt comprises at least one electronic component , which is embedded in the plastic matrix and which comprises at least one sensor, which gathers data relating to the status parameters of the toothed belt, characterised in that the at least one electronic component is coupled via at least two voltage taps to the tension member , in order to tap a voltage induced in the tension member for the power supply of the at least one electronic component .
A method comprising: identifying power on times during which at least one of a transceiver or a sensing device in a wireless device is operating outside of a low power sleep state; instructing a thermal sensing device in the wireless device to measure ambient temperatures of the wireless device during the power on times; recording the ambient temperatures and the power on times in a memory device of the wireless device; using a duration and a frequency of the power on times to identify a total time that the wireless device has been in service; and using the recorded ambient temperatures and the total time to optimize a life of a battery of the wireless device by tuning a drift wait time of the transceiver to minimize a window of time during which the transceiver is out of the low power sleep state when acting as a receiving device or a drift start time for the transceiver when acting as a transmitting device. identifying power on times during which at least one of a transceiver or a sensing device in a wireless device is operating outside of a low power sleep state; instructing a thermal sensing device in the wireless device to measure ambient temperatures of the wireless device during the power on times; recording the ambient temperatures and the power on times in a memory device of the wireless device; using a duration and a frequency of the power on times to identify a total time that the wireless device has been in service; and using the recorded ambient temperatures and the total time to optimize a life of a battery of the wireless device by tuning a drift wait time of the transceiver to minimize a window of time during which the transceiver is out of the low power sleep state when acting as a receiving device or a drift start time for the transceiver when acting as a transmitting device.
Fixing element for mounting an anchor element (10; 20) in an eye of a fastening element of a fastening device for a refractory lining made of a material which melts at the temperatures that prevail in the region of the fixing element under operating conditions, wherein the fixing element is designed for the eccentric mounting of the anchor element (10; 20) within the eye , characterised in that the fixing element comprises a shell element and a shell counter element , which can be attached to one another to form an annular channel that is adapted to receive a ring section of the fastening element which delimits the eye .