mhurhangee/patent-ind-claim-en huggingface dataset:
A fluoroscopic surgical system, comprising: a FORS sensor configured to generate sensing data informative of a shape reconstruction of the FORS sensor relative to a reference position within an operating space ; a fluoroscopic imager ; a mechanical connector adjoined to the fluoroscopic imager , wherein the mechanical connector is structurally configured to detachably attach the FORS sensor to the fluoroscopic imager ; and a navigation controller configured to control a tracking of the fluoroscopic imager within the operating space responsive to a generation of the sensing data by the FORS sensor based on a detachable attachment of the FORS sensor to the mechanical connector , characterised in that the system further comprises a launch serving as the reference position, wherein the FORS sensor distally extends from launch , and wherein the reference position is fixed within the operating space . a FORS sensor configured to generate sensing data informative of a shape reconstruction of the FORS sensor relative to a reference position within an operating space ; a fluoroscopic imager ; a mechanical connector adjoined to the fluoroscopic imager , wherein the mechanical connector is structurally configured to detachably attach the FORS sensor to the fluoroscopic imager ; and a navigation controller configured to control a tracking of the fluoroscopic imager within the operating space responsive to a generation of the sensing data by the FORS sensor based on a detachable attachment of the FORS sensor to the mechanical connector , characterised in that the system further comprises a launch serving as the reference position, wherein the FORS sensor distally extends from launch , and wherein the reference position is fixed within the operating space .
A hybrid rocket engine configured for using a solid fuel and a liquid or gaseous oxidizer, the hybrid rocket engine comprising: an oxidizer tank configured to store an oxidizer; an oxidizer pump configured to pressurize the oxidizer by being connected to the oxidizer tank through a first oxidizer supply line ; and a drive unit comprising an electric motor configured to drive the oxidizer pump and a battery configured to supply power to the electric motor ; characterized by an auxiliary oxidizer line configured to guide the oxidizer from the oxidizer tank to the electric motor to cool the electric motor of the drive unit ; an oxidizer recirculation line configured to recharge oxidizer vapor, generated through heat exchange between the electric motor and the oxidizer, to the oxidizer tank , thereby pressurizing an inner side of the oxidizer tank ; and a combustion chamber configured to combust the oxidizer and fuel by being connected to the oxidizer pump through a second oxidizer supply line . an oxidizer tank configured to store an oxidizer; an oxidizer pump configured to pressurize the oxidizer by being connected to the oxidizer tank through a first oxidizer supply line ; and a drive unit comprising an electric motor configured to drive the oxidizer pump and a battery configured to supply power to the electric motor ; characterized by an auxiliary oxidizer line configured to guide the oxidizer from the oxidizer tank to the electric motor to cool the electric motor of the drive unit ; an oxidizer recirculation line configured to recharge oxidizer vapor, generated through heat exchange between the electric motor and the oxidizer, to the oxidizer tank , thereby pressurizing an inner side of the oxidizer tank ; and a combustion chamber configured to combust the oxidizer and fuel by being connected to the oxidizer pump through a second oxidizer supply line .
A device, comprising: a wire board including metallic wiring, the wire board having a top side and an underside, wherein the underside faces an opposing direction to the top side; a first microchip located on the top side and connected to the metallic wiring, wherein the first microchip includes a first radiating element configured to operate at a first frequency and a second radiating element configured to operate at a second frequency; a second microchip connected to the metallic wiring, wherein the second microchip includes a third radiating element configured to operate at the first frequency and wirelessly communicate with the first radiating element of the first microchip ; and a main radiating element located on the underside that is configured to operate at the second frequency and wirelessly communicate with the second radiating element of the first microchip , wherein the first microchip and the second microchip are physically placed such that the first radiating element faces the third radiating element . a wire board including metallic wiring, the wire board having a top side and an underside, wherein the underside faces an opposing direction to the top side; a first microchip located on the top side and connected to the metallic wiring, wherein the first microchip includes a first radiating element configured to operate at a first frequency and a second radiating element configured to operate at a second frequency; a second microchip connected to the metallic wiring, wherein the second microchip includes a third radiating element configured to operate at the first frequency and wirelessly communicate with the first radiating element of the first microchip ; and a main radiating element located on the underside that is configured to operate at the second frequency and wirelessly communicate with the second radiating element of the first microchip , wherein the first microchip and the second microchip are physically placed such that the first radiating element faces the third radiating element .
A device having a stent structure which is intended for insertion into intracranial blood vessels of the human or animal body, wherein the stent structure has an expanded state in which it is capable of abutting the inner wall of the blood vessel and a compressed state in which it is movable through the blood vessel when the stent structure is inside a microcatheter , wherein the stent structure is connected to an insertion aid and wherein the stent structure is capable of automatically transitioning into the expanded state upon release from the microcatheter , wherein the stent structure has electrical conductors via which electrical pulses or high-frequency pulses can be applied to nerve fibres extending in the vessel wall of the blood vessel in order to temporarily or permanently reduce the function of the nerve fibres and to prevent or treat vasospasm, and wherein the stent structure has a spine which runs from proximal to distal, from which struts originate which have electrical conductors , which struts , in the expanded state, form the circumference of the stent structure , wherein pairs of electrical or high-frequency (HF) electrodes connected to the electrical conductors are arranged on the circumference of the stent structure in such a manner that the electrodes in the expanded state and implanted in the blood vessel are spaced apart by a gap so that an applied current flow to the electrodes acts across the gap on the inner wall of the blood vessel .
A computer-implemented method, the method comprising: receiving historical lane level traffic information including a representation of a speed of travel along a respective lane of a link; receiving recent lane level traffic information including a representation of a speed of travel along the respective lane of the link, wherein the recent lane level traffic information is indicative of more recent traffic conditions than traffic conditions represented by at least some of the historical lane level traffic information; determining a representation of a difference between representations of the speed of travel provided by the historical lane level traffic information and the recent lane level traffic information; identifying the lane level traffic surprise based upon the representation of the difference; causing provision of the representation of the difference to a navigation system; and characterized by using the representation of the difference as a routing cost by a routing algorithm of the navigation system. receiving historical lane level traffic information including a representation of a speed of travel along a respective lane of a link; receiving recent lane level traffic information including a representation of a speed of travel along the respective lane of the link, wherein the recent lane level traffic information is indicative of more recent traffic conditions than traffic conditions represented by at least some of the historical lane level traffic information; determining a representation of a difference between representations of the speed of travel provided by the historical lane level traffic information and the recent lane level traffic information; identifying the lane level traffic surprise based upon the representation of the difference; causing provision of the representation of the difference to a navigation system; and characterized by using the representation of the difference as a routing cost by a routing algorithm of the navigation system.
An airflow tube releasably attachable to a chassis of a respiratory pressure therapy (RPT) device that includes a blower and a humidifier integrated with the RPT device to provide pressurized air to a patient interface to treat a respiratory disorder in a patient, the airflow tube comprising: a first portion moulded from a first rigid material, the first portion having an outlet end configured to be connected to an air circuit to direct pressurized air to the patient interface , and a second portion having a seal that is configured to contact and seal against an outlet of a humidifier reservoir, the seal forming an inlet end configured to receive air pressurized by the blower; wherein the airflow tube comprises a bend positioned between the inlet end and the outlet end , characterized in that the second portion is overmoulded from a second compliant material: wherein the second portion comprises at least a portion of the bend. a first portion moulded from a first rigid material, the first portion having an outlet end configured to be connected to an air circuit to direct pressurized air to the patient interface , and a second portion having a seal that is configured to contact and seal against an outlet of a humidifier reservoir, the seal forming an inlet end configured to receive air pressurized by the blower; wherein the airflow tube comprises a bend positioned between the inlet end and the outlet end , characterized in that the second portion is overmoulded from a second compliant material: wherein the second portion comprises at least a portion of the bend.
A detecting apparatus for detecting axial displacement of a bearing unit that is sandwiched between a spindle extending in an axial direction (X) and a spindle seat and that includes two bearings spaced apart from each other in the axial direction (X) and each including an outer ring , and inner ring and a plurality of roller members , wherein for each of the bearings , the outer ring abuts against an inner surface of the spindle seat and has two end surfaces opposite to each other in the axial direction (X), the inner ring is surrounded by the outer ring and surrounds and abuts against an outer surface of the spindle , and the roller members are disposed between the outer ring and the inner ring , said detecting apparatus characterized by : a detector unit including two pairs of sensing devices for respectively corresponding in position to the bearings , each of said sensing devices including a sensor for abutting against one of the end surfaces of the outer ring of the corresponding one of the bearings , and each of said sensing devices being configured for outputting, based on sensing performed by said sensor thereof, a detected signal associated with an axial displacement of said one of the end surfaces of the outer ring in the axial direction (X); and a control unit communicatively connected to said detector unit for receiving the detected signals respectively from said sensing devices , and configured to determine whether the bearing unit is abnormal based on the detected signals; and said detector unit further including an annular mount configured for being sandwiched between the two bearings and having two end mount surfaces opposite to each other in the axial direction (X), each of said end mount surfaces being disposed for facing one of the end surfaces of a respective one of the bearings , and being formed with one pair of grooves in which said sensors of one of said pairs of said sensing devices are inserted. a detector unit including two pairs of sensing devices for respectively corresponding in position to the bearings , each of said sensing devices including a sensor for abutting against one of the end surfaces of the outer ring of the corresponding one of the bearings , and each of said sensing devices being configured for outputting, based on sensing performed by said sensor thereof, a detected signal associated with an axial displacement of said one of the end surfaces of the outer ring in the axial direction (X); and a control unit communicatively connected to said detector unit for receiving the detected signals respectively from said sensing devices , and configured to determine whether the bearing unit is abnormal based on the detected signals; and said detector unit further including an annular mount configured for being sandwiched between the two bearings and having two end mount surfaces opposite to each other in the axial direction (X), each of said end mount surfaces being disposed for facing one of the end surfaces of a respective one of the bearings , and being formed with one pair of grooves in which said sensors of one of said pairs of said sensing devices are inserted.
Motorised base for a food preparation appliance , said motorised base comprising: - an outer casing having, on an upper side , a coupler configured to enable a coupling and an uncoupling of a work tool and to ensure the rotation of the work tool , the outer housing comprising, on a lower side , a support underframe by which the motorised base is intended to rest on an accommodating surface (S), - in the outer housing , an electric motor having a motor shaft rotating about a motor axis (A1), the electric motor having a first axial end and a second axial end , opposite the first axial end , which rotates a fan which is arranged on the side of the second axial end of the motor and which suctions a flow of air which circulates along the electric motor from the first axial end to the second axial end , the fan discharging an outgoing flow of air which is channeled along a downstream circuit to an outlet opening arranged in a face of the outer casing , at the level of which the outgoing flow of air is ejected outside of the outer housing , the downstream circuit comprising, successively in the direction of circulation of the outgoing flow of air, a collector , a transfer duct , and the outlet opening , characterised in that the downstream circuit comprises, between the transfer duct and the outlet opening , a double vent having an upstream tubular outer channel , which extends in a venting direction (A2) from an upstream end connected to the transfer duct , and which is fluidically connected, via a turnaround volume , to a downstream inner channel which extends inside of the volume of the upstream tubular outer channel in the venting direction (A2) as far as a downstream end which corresponds to the outlet opening . - an outer casing having, on an upper side , a coupler configured to enable a coupling and an uncoupling of a work tool and to ensure the rotation of the work tool , the outer housing comprising, on a lower side , a support underframe by which the motorised base is intended to rest on an accommodating surface (S), - in the outer housing , an electric motor having a motor shaft rotating about a motor axis (A1), the electric motor having a first axial end and a second axial end , opposite the first axial end , which rotates a fan which is arranged on the side of the second axial end of the motor and which suctions a flow of air which circulates along the electric motor from the first axial end to the second axial end , the fan discharging an outgoing flow of air which is channeled along a downstream circuit to an outlet opening arranged in a face of the outer casing , at the level of which the outgoing flow of air is ejected outside of the outer housing , the downstream circuit comprising, successively in the direction of circulation of the outgoing flow of air, a collector , a transfer duct , and the outlet opening ,
A method for processing and storing data from a mobile asset comprising: receiving , using a data recorder onboard the mobile asset , data based on at least one data signal from at least one of: at least one data source onboard the mobile asset ; and at least one data source remote from the mobile asset ; characterised by : encoding , using a data encoder of the data recorder , a record comprising a bit stream based on the data; appending , using an onboard data manager of the data recorder , the record to a record block; storing , using the onboard data manager , the record block at a configurable first predetermined rate in at least one local memory component of the data recorder and a queueing repository of the data recorder ; replicating, using the onboard data manager , the record block stored in the queueing repository to a remote data repository via a remote data manager ; and providing a user remote from the mobile asset with access to the record block from the remote data repository using a web client or a virtual reality device. receiving , using a data recorder onboard the mobile asset , data based on at least one data signal from at least one of: at least one data source onboard the mobile asset ; and at least one data source remote from the mobile asset ; at least one data source onboard the mobile asset ; and at least one data source remote from the mobile asset ; characterised by : encoding , using a data encoder of the data recorder , a record comprising a bit stream based on the data; appending , using an onboard data manager of the data recorder , the record to a record block; storing , using the onboard data manager , the record block at a configurable first predetermined rate in at least one local memory component of the data recorder and a queueing repository of the data recorder ; replicating, using the onboard data manager , the record block stored in the queueing repository to a remote data repository via a remote data manager ; and providing a user remote from the mobile asset with access to the record block from the remote data repository using a web client or a virtual reality device. encoding , using a data encoder of the data recorder , a record comprising a bit stream based on the data; appending , using an onboard data manager of the data recorder , the record to a record block; storing , using the onboard data manager , the record block at a configurable first predetermined rate in at least one local memory component of the data recorder and a queueing repository of the data recorder ; replicating, using the onboard data manager , the record block stored in the queueing repository to a remote data repository via a remote data manager ; and providing a user remote from the mobile asset with access to the record block from the remote data repository using a web client or a virtual reality device.
Cleaning device for cleaning articles to be cleaned, wherein the cleaning device is selected from amongst a dishwasher and a cleaning and disinfection apparatus for cleaning and/or disinfecting care utensils, comprising at least one cleaning chamber and at least one application device for applying at least one cleaning fluid to the articles to be cleaned in the cleaning chamber , further comprising at least one controller , wherein the controller is designed to actuate the cleaning device for carrying out at least two operating modes, wherein the controller is further designed to detect at least one utilization variable, wherein the utilization variable characterizes a current utilization of the cleaning device , wherein the controller is further designed to assign at least one weighting to the at least one utilization variable, wherein the controller further has at least one counting device , characterized in that the counting device is designed to cumulate utilization times of the cleaning device which are weighted with the weighting and to generate at least one item of use information about a use of the cleaning device therefrom, wherein a utilization time is defined as an infinitesimal or finite time period during which the cleaning device is operated, in particular in at least one operating mode.
A method for controlling a wireless power transmitter configured to transmit power to a wireless power receiver (110-n), the method comprising: applying a detection power for detecting change in load of the wireless power transmitter caused by the arrangement of the wireless power receiver (110-n); detecting the change in load of the wireless power transmitter at first time point; and receiving a first signal from the wireless power receiver (110-n) at second time point; characterized in that the method further comprises: determining whether or not to transmit a second signal to the wireless power receiver (110-n) based on the difference between the first time point and the second time point; wherein determining whether or not to transmit the second signal comprises: transmitting the second signal to the wireless power receiver, if the difference is within a predetermined time, and determining that the wireless power receiver is not within a chargeable range of the wireless power transmitter and determining not to transmit the power to the wireless power receiver, if the difference exceeds the predetermined time. applying a detection power for detecting change in load of the wireless power transmitter caused by the arrangement of the wireless power receiver (110-n); detecting the change in load of the wireless power transmitter at first time point; and receiving a first signal from the wireless power receiver (110-n) at second time point; characterized in that the method further comprises: determining whether or not to transmit a second signal to the wireless power receiver (110-n) based on the difference between the first time point and the second time point; wherein determining whether or not to transmit the second signal comprises: transmitting the second signal to the wireless power receiver, if the difference is within a predetermined time, and determining that the wireless power receiver is not within a chargeable range of the wireless power transmitter and determining not to transmit the power to the wireless power receiver, if the difference exceeds the predetermined time. transmitting the second signal to the wireless power receiver, if the difference is within a predetermined time, and determining that the wireless power receiver is not within a chargeable range of the wireless power transmitter and determining not to transmit the power to the wireless power receiver, if the difference exceeds the predetermined time.