mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical machine comprising: a first stator member having a field magnet ; a second stator member forming an armature, the second stator member being spaced from the first stator member; and a pair of contra rotating rotors disposed between the first and second stator members; wherein at least one of the rotors is, in use, driven by a prime mover and wherein at least a portion of each of the rotors is magnetisable so as to transmit magnetic flux from the field magnet to the armature thereby inducing an electromotive force, wherein the first and second stator members and the rotors are arranged concentrically and the first stator member is surrounded by the second stator member and the rotors . a first stator member having a field magnet ; a second stator member forming an armature, the second stator member being spaced from the first stator member; and a pair of contra rotating rotors disposed between the first and second stator members; wherein at least one of the rotors is, in use, driven by a prime mover and wherein at least a portion of each of the rotors is magnetisable so as to transmit magnetic flux from the field magnet to the armature thereby inducing an electromotive force, wherein the first and second stator members and the rotors are arranged concentrically and the first stator member is surrounded by the second stator member and the rotors .
A self-propelled vehicle provided with a tool-carrying platform, characterized in that it comprises: • a frame including a pair of horizontal guides , extending longitudinally with respect to the self-propelled vehicle , wherein an end is arranged at an access side; • a sliding plate , apt to slide on said guides equipped with front and rear locking holes; • means for locking the sliding plate on the frame of the self-propelled vehicle , acting on said front and rear locking holes; and • registration means , able to eliminate the residual backlash between the plate and the frame, by forming a tool-carrying platform, wherein said horizontal guides are formed by grooves at the longitudinal edges of the sliding plate and by corresponding rails of the frame of the self-propelled vehicle , the front locking holes being intended to be aligned with respective hooks on the front ends of said rails , said rails , at the front end thereof, comprising additional locking holes , and wherein it comprises a locking device having a pair of cross arms which can be detached and they are separated by a central lever , perpendicular thereto, wherein the plate comprises a registration pin on each side, inserted in a respective registration seat and equipped with a ring nut . • a frame including a pair of horizontal guides , extending longitudinally with respect to the self-propelled vehicle , wherein an end is arranged at an access side; • a sliding plate , apt to slide on said guides equipped with front and rear locking holes; • means for locking the sliding plate on the frame of the self-propelled vehicle , acting on said front and rear locking holes; and • registration means , able to eliminate the residual backlash between the plate and the frame, by forming a tool-carrying platform,
An information processing apparatus comprising: a transmission unit configured to transmit network identification information of a network (N1, N2) to a communication terminal via short-range wireless communication; an acquisition unit configured to acquire, from the communication terminal via short-range wireless communication, address information indicating an address on the Internet accessible by the communication terminal based on the network identification information; a notification unit configured to notify the communication terminal of a plurality of pieces of connection information using the address information acquired by the acquisition unit , the connection information to be used for establishing a connection between the information processing apparatus and the communication terminal through the network; and characterised in that a power-state management unit configured to control a power state of the information processing apparatus , wherein, in a power saving state, in response to detection of a radio wave of the short-range wireless communication with the communication terminal, the power-state management unit changes the power state from the power saving state to a normal operating state. a transmission unit configured to transmit network identification information of a network (N1, N2) to a communication terminal via short-range wireless communication; an acquisition unit configured to acquire, from the communication terminal via short-range wireless communication, address information indicating an address on the Internet accessible by the communication terminal based on the network identification information; a notification unit configured to notify the communication terminal of a plurality of pieces of connection information using the address information acquired by the acquisition unit , the connection information to be used for establishing a connection between the information processing apparatus and the communication terminal through the network; and characterised in that a power-state management unit configured to control a power state of the information processing apparatus , wherein, in a power saving state, in response to detection of a radio wave of the short-range wireless communication with the communication terminal, the power-state management unit changes the power state from the power saving state to a normal operating state.
A sensor assembly (100; 200; 300; 1100; 1200; 1300; 1400) comprising: - a magnetic source (101; 201; 301; 1101; 1201; 1301; 1401) for generating a magnetic field with circular symmetry or with rotational symmetry about a central axis defining a reference orientation (Z); - a ferromagnetic object (105; 205; 305; 1105, 1108; 1205; 1305; 1405); - a lever or a stick (102; 202; 302; 1102; 1202; 1302; 1402) which is mounted such that the lever or stick can be tilted with respect to said reference orientation (Z), the lever or stick comprising or being fixedly connected to the ferromagnetic object; - a magnetic sensor device (130; 230; 330; 1130; 1230; 1330; 1430) comprising a substrate with a plurality of magnetic sensors configured for providing sensor signals indicative of the magnetic field; wherein the magnetic sensor device is located between the magnetic source and the ferromagnetic object; - and wherein the lever or stick is mounted in such a way that a potential energy of the magnetic field is minimal when the lever or stick is oriented in the reference orientation (Z); characterised in that the sensor assembly comprises only a single magnet; the magnetic source is an axially magnetized magnet with a through-opening oriented in the axial direction. - a magnetic source (101; 201; 301; 1101; 1201; 1301; 1401) for generating a magnetic field with circular symmetry or with rotational symmetry about a central axis defining a reference orientation (Z); - a ferromagnetic object (105; 205; 305; 1105, 1108; 1205; 1305; 1405); - a lever or a stick (102; 202; 302; 1102; 1202; 1302; 1402) which is mounted such that the lever or stick can be tilted with respect to said reference orientation (Z), the lever or stick comprising or being fixedly connected to the ferromagnetic object; - a magnetic sensor device (130; 230; 330; 1130; 1230; 1330; 1430) comprising a substrate with a plurality of magnetic sensors configured for providing sensor signals indicative of the magnetic field; wherein the magnetic sensor device is located between the magnetic source and the ferromagnetic object; - and wherein the lever or stick is mounted in such a way that a potential energy of the magnetic field is minimal when the lever or stick is oriented in the reference orientation (Z); - and wherein the lever or stick is mounted in such a way that a potential energy of the magnetic field is minimal when the lever or stick is oriented in the reference orientation (Z); characterised in that the sensor assembly comprises only a single magnet; the magnetic source is an axially magnetized magnet with a through-opening oriented in the axial direction.
Self-winding mechanical horological movement including an oscillating weight rotably mounted on a portion of the horological movement, characterised in that a decorative disc is attached on the oscillating weight , said decorative disc being rotationally driven by said oscillating weight wherein the disc is free to move axially in relation to the weight in the direction perpendicular to the disc, so that the disc may easily be removed from the weight.
An in-vivo bladder pressure monitoring system for in-vivo monitoring of pressure of a body fluid in a urinary bladder of a patient, the system comprising: a delivery component in the form of a cannula arranged to be inserted through an abdominal wall and through the bladder wall into the urinary bladder; an elongate sensor delivery member in the form of a catheter shaped so as to pass through the delivery component when it has been inserted through the abdominal wall and into the urinary bladder; and a first pressure sensor positioned at a distal end of the delivery member; a signal processing component for receiving data from the first pressure sensor and providing an output to a user based upon the received data, and a second pressure sensor configured to be inserted subcutaneously in to a patient in use, and further comprising means for receiving data from the second sensor and for comparing it to pressure data from the first sensor to provide compensated pressure data to a user. a delivery component in the form of a cannula arranged to be inserted through an abdominal wall and through the bladder wall into the urinary bladder; an elongate sensor delivery member in the form of a catheter shaped so as to pass through the delivery component when it has been inserted through the abdominal wall and into the urinary bladder; and a first pressure sensor positioned at a distal end of the delivery member; a signal processing component for receiving data from the first pressure sensor and providing an output to a user based upon the received data, and a second pressure sensor configured to be inserted subcutaneously in to a patient in use, and further comprising means for receiving data from the second sensor and for comparing it to pressure data from the first sensor to provide compensated pressure data to a user.
Harness composed of textiles straps , and having at least one connection and securing point in the form of a closed loop made from textile material delineating an opening for the passage of a connector , characterized in that the opening of the closed loop made from textile material is strengthened by a rigid or semi-rigid insert , rigid or semi-rigid insert is configured to facilitate fitting of the connector , said rigid or semi-rigid insert comprising a base surface securedly attached to a support structure of the harness to transmit and distribute the forces when a user is in a securing position at work.
A cable for carrying electrical current in a coil of a magnet, comprising: a stack of tape assemblies, each tape assembly having a length and a width, such that the length is much larger than the width and each tape assembly comprises an HTS layer of anisotropic high temperature superconductor, HTS material, wherein a c-axis of the HTS layer is at a non-zero angle to a vector perpendicular to the plane of the HTS layer; wherein the tape assemblies are stacked as a series of pairs, each pair comprising first and second HTS tape assemblies and a copper layer therebetween; wherein the tape assemblies in each pair are arranged such that the c-axis of the HTS layer of the first HTS tape assembly of each pair have reflective symmetry to the c-axis of the HTS layer of the second HTS tape assembly of each pair about a plane which is parallel to and equidistant from each HTS layer. a stack of tape assemblies, each tape assembly having a length and a width, such that the length is much larger than the width and each tape assembly comprises an HTS layer of anisotropic high temperature superconductor, HTS material, wherein a c-axis of the HTS layer is at a non-zero angle to a vector perpendicular to the plane of the HTS layer; wherein the tape assemblies are stacked as a series of pairs, each pair comprising first and second HTS tape assemblies and a copper layer therebetween; wherein the tape assemblies in each pair are arranged such that the c-axis of the HTS layer of the first HTS tape assembly of each pair have reflective symmetry to the c-axis of the HTS layer of the second HTS tape assembly of each pair about a plane which is parallel to and equidistant from each HTS layer.
A temperature control system, comprising: - gas chromatography column temperature control system, comprising: a column heating apparatus , a capillary gas chromatography column , (i) a first temperature sensor located within or directly adjacent to the column heating apparatus , and a second temperature sensor disposed above the column heating apparatus ; or (ii) a first temperature sensor disposed adjacent to the gas chromatography column , and a second temperature sensor disposed in or above the column heating apparatus ; - a controller configured to receive temperature data from the first and second temperature sensors and to output control signals based on the temperature data from the first and second temperature sensors ; and - a power source configured to receive control signals from the controller and to adjust electrical power to the column heating apparatus to alter the temperature of the gas chromatography column , characterized in that the apparatus further comprises a first layer of thermal insulation disposed beneath the column heating apparatus and a second layer of thermal insulation disposed above the gas chromatography column , the second temperature sensor being disposed over, within, or beneath the second layer of thermal insulation . - gas chromatography column temperature control system, comprising: a column heating apparatus , a capillary gas chromatography column , (i) a first temperature sensor located within or directly adjacent to the column heating apparatus , and a second temperature sensor disposed above the column heating apparatus ; or (ii) a first temperature sensor disposed adjacent to the gas chromatography column , and a second temperature sensor disposed in or above the column heating apparatus ; a column heating apparatus , a capillary gas chromatography column , (i) a first temperature sensor located within or directly adjacent to the column heating apparatus , and a second temperature sensor disposed above the column heating apparatus ; or (ii) a first temperature sensor disposed adjacent to the gas chromatography column , and a second temperature sensor disposed in or above the column heating apparatus ; (i) a first temperature sensor located within or directly adjacent to the column heating apparatus , and a second temperature sensor disposed above the column heating apparatus ; or (ii) a first temperature sensor disposed adjacent to the gas chromatography column , and a second temperature sensor disposed in or above the column heating apparatus ; - a controller configured to receive temperature data from the first and second temperature sensors and to output control signals based on the temperature data from the first and second temperature sensors ; and - a power source configured to receive control signals from the controller and to adjust electrical power to the column heating apparatus to alter the temperature of the gas chromatography column , characterized in that
A method for coding a video implemented in an encoder or a decoder including an enhanced interpolation filter, EIF, for motion compensation, the method comprising: i) determining control point motion vectors, CPMVs, for a block according to affine inter-prediction, the block being an affine block or a sub-block of the affine block; ii) for a sub-block of said block having a predefined size, determining a reference area in a reference picture based on the determined CPMVs; iii) comparing the size of the determined reference area with a predefined threshold; iv) applying EIF for motion compensation, comprising deriving a pixel-based motion vector field for the block from the CPMVs; wherein if the determined reference area is larger than the predefined threshold, deriving the pixel-based motion vector field for the sub-block further comprises motion vector clipping, wherein a motion vector clipping range is determined based on a motion model of the sub-block and the size of the sub-block; wherein using EIF for motion compensation further comprises: obtaining interpolated samples in a reference picture based on the pixel-based derived motion vector field using a T taps interpolation filter, where T is the number of interpolation filter taps corresponding to the filter length, where T is larger than zero; and applying a high-pass filter to the interpolated samples. i) determining control point motion vectors, CPMVs, for a block according to affine inter-prediction, the block being an affine block or a sub-block of the affine block; ii) for a sub-block of said block having a predefined size, determining a reference area in a reference picture based on the determined CPMVs; iii) comparing the size of the determined reference area with a predefined threshold; iv) applying EIF for motion compensation, comprising deriving a pixel-based motion vector field for the block from the CPMVs; wherein if the determined reference area is larger than the predefined threshold, deriving the pixel-based motion vector field for the sub-block further comprises motion vector clipping, wherein a motion vector clipping range is determined based on a motion model of the sub-block and the size of the sub-block; wherein using EIF for motion compensation further comprises: obtaining interpolated samples in a reference picture based on the pixel-based derived motion vector field using a T taps interpolation filter, where T is the number of interpolation filter taps corresponding to the filter length, where T is larger than zero; and applying a high-pass filter to the interpolated samples. obtaining interpolated samples in a reference picture based on the pixel-based derived motion vector field using a T taps interpolation filter, where T is the number of interpolation filter taps corresponding to the filter length, where T is larger than zero; and applying a high-pass filter to the interpolated samples.
Sensor cartridge for chemical assays of a liquid sample containing analyte molecules, said sensor cartridge comprising: - a wall having an open top end and a lower end , said wall enclosing a space for containing porous matrix, said open top end being configured for supplying liquid sample containing analyte molecules to the space ; - a porous collection disk closing the lower end of the wall , said porous collection disk being arranged for supporting and contacting porous matrix; wherein the space contains porous matrix , said porous matrix being configured for passing analyte molecules of a liquid sample therethrough and said porous matrix contacting the porous collection disk ; - a base cap attached to the lower end of the wall , said porous collection disk being sandwiched between the lower end of the wall and the base cap ; - an air channel extending between a first air opening positioned at the open top end of the wall and a second air opening (10', 10") positioned at a distance above the porous collection disk ; - said base cap comprising a base cap air opening (12', 12") positioned opposite the second air opening (10', 10"), said porous collection disk being positioned between the second air opening (10', 10") and the base cap air opening (12', 12"); wherein at least one of the first air opening and the base cap air opening (12', 12") comprises an air source connection for connecting the cartridge to a source of air under supra-atmospheric pressure or a source of subatmospheric pressure; said second air opening (10', 10") and the base cap air opening (12', 12") being arranged to guide an air flow to specific locations of the porous collection disk for providing localized evaporation and analyte concentration. - a wall having an open top end and a lower end , said wall enclosing a space for containing porous matrix, said open top end being configured for supplying liquid sample containing analyte molecules to the space ; - a porous collection disk closing the lower end of the wall , said porous collection disk being arranged for supporting and contacting porous matrix; - a base cap attached to the lower end of the wall , said porous collection disk being sandwiched between the lower end of the wall and the base cap ; - an air channel extending between a first air opening positioned at the open top end of the wall and a second air opening (10', 10") positioned at a distance above the porous collection disk ; - said base cap comprising a base cap air opening (12', 12") positioned opposite the second air opening (10', 10"), said porous collection disk being positioned between the second air opening (10', 10") and the base cap air opening (12', 12");
A method, comprising: receiving, at a station , a plurality of beacon data units transmitted by a network controller during a timeslot reserved for transmission of beacons within a beacon interval of a wireless communication protocol, each beacon data unit including data indicating the beacon data unit is for transmit beamforming training for the network controller, and an indication of a duration limit of an association beamforming training, A-BFT, timeslot within the beacon interval, the A-BFT timeslot used for beamforming training with unbeamformed stations and using said duration limit to go to sleep for stations not being involved in the A-BFT, and each beacon data unit having been transmitted by the network controller using a different steering vector; assessing, at the station, respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; selecting, at the station, one of the steering vectors based on the respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; and transmitting, by the station, to the network controller an indication of the one steering vector. receiving, at a station , a plurality of beacon data units transmitted by a network controller during a timeslot reserved for transmission of beacons within a beacon interval of a wireless communication protocol, each beacon data unit including data indicating the beacon data unit is for transmit beamforming training for the network controller, and an indication of a duration limit of an association beamforming training, A-BFT, timeslot within the beacon interval, the A-BFT timeslot used for beamforming training with unbeamformed stations and using said duration limit to go to sleep for stations not being involved in the A-BFT, and each beacon data unit having been transmitted by the network controller using a different steering vector; assessing, at the station, respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; selecting, at the station, one of the steering vectors based on the respective qualities of the beacon data units received during the timeslot reserved for transmission of beacons; and transmitting, by the station, to the network controller an indication of the one steering vector.