mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal , comprising a first camera module and a second camera module adjacent to the first camera module , wherein the first camera module comprises a first image sensor , and the second camera module comprises a second image sensor ; a first pixel array corresponding to the first image sensor comprises a preset quantity of first pixel units arranged in a first predetermined manner, and the first pixel unit comprises a first pixel and a second pixel adjacent to the first pixel in location; a second pixel array corresponding to the second image sensor comprises a preset quantity of second pixel units arranged in a second predetermined manner, and the second pixel unit comprises the first pixel; and the first pixel comprises a red subpixel, a green subpixel, and a blue subpixel, the second pixel comprises the green subpixel and an infrared subpixel, and at least one of the red subpixel and the blue subpixel, both the first pixel and the second pixel are full-pixel dual-core focus pixels, and each of the first pixel and the second pixel comprises four full-pixel dual-core focus subpixels. a first pixel array corresponding to the first image sensor comprises a preset quantity of first pixel units arranged in a first predetermined manner, and the first pixel unit comprises a first pixel and a second pixel adjacent to the first pixel in location; a second pixel array corresponding to the second image sensor comprises a preset quantity of second pixel units arranged in a second predetermined manner, and the second pixel unit comprises the first pixel; and the first pixel comprises a red subpixel, a green subpixel, and a blue subpixel, the second pixel comprises the green subpixel and an infrared subpixel, and at least one of the red subpixel and the blue subpixel, both the first pixel and the second pixel are full-pixel dual-core focus pixels, and each of the first pixel and the second pixel comprises four full-pixel dual-core focus subpixels.
A method of preparing a lens blank (BLA) for a further operation of surfacing of said lens blank wherein the lens blank is fastened to a support (SUPP) which includes a support base (BASE) and a support material (MAT) via which the lens blank is fastened to the support base, the support material being arranged to define a support material shape having a circular periphery, the operation of surfacing being configured to transform the lens blank into a surfaced lens (SLE) having a surfaced lens shape (SH) at the end thereof, the method being implemented using a processing module (PROCESS) and comprising: - determining the surfaced lens shape based on input data, the method being characterised by : - based on the surfaced lens shape, determining a maximum diameter (D MAX ) of said support material shape as a function of a predetermined maximum thickness (MaxTh) defining the maximum thickness of the support material which is allowed to be cut into during the surfacing of the lens blank, and - choosing a diameter (D) for the support material shape inferior or equal to said maximum diameter for further fastening of the lens blank to the support by forming the support material so that the support material shape has a diameter corresponding to the chosen diameter. - determining the surfaced lens shape based on input data, - based on the surfaced lens shape, determining a maximum diameter (D MAX ) of said support material shape as a function of a predetermined maximum thickness (MaxTh) defining the maximum thickness of the support material which is allowed to be cut into during the surfacing of the lens blank, and - choosing a diameter (D) for the support material shape inferior or equal to said maximum diameter for further fastening of the lens blank to the support by forming the support material so that the support material shape has a diameter corresponding to the chosen diameter.
A sunshade apparatus , comprising: - at least one slat having a guide integral therewith and extending along a longitudinal direction of the slat ; - at least one movement element configured to be coupled to one end of the slat ; - a locking element slidably coupled to the guide of the slat, to be movable along the longitudinal direction between a deactivated position, where the locking element does not interfere with the movement element , and an active position, where it is at least partly superposed on the movement element to lock the movement element relative to the slat , - an elastic structure, having a first configuration of non-interference with the movement element and a second configuration, where the elastic structure operates on the movement element to apply a force perpendicular to a contact surface between the slat and the movement element , wherein the elastic structure is configured to move to the second configuration when the locking element is at the active position, characterized in that the elastic structure includes a wedge-shaped elastic element operatively interposed between the movement element and the locking element positioned at the active position, for generating said force. - at least one slat having a guide integral therewith and extending along a longitudinal direction of the slat ; - at least one movement element configured to be coupled to one end of the slat ; - a locking element slidably coupled to the guide of the slat, to be movable along the longitudinal direction between a deactivated position, where the locking element does not interfere with the movement element , and an active position, where it is at least partly superposed on the movement element to lock the movement element relative to the slat , - an elastic structure, having a first configuration of non-interference with the movement element and a second configuration, where the elastic structure operates on the movement element to apply a force perpendicular to a contact surface between the slat and the movement element , wherein the elastic structure is configured to move to the second configuration when the locking element is at the active position,
A radiation detector which includes a plurality of pixels, each of the plurality of pixels including a unit detector configured to detect radiation, wherein each of the unit detectors comprises: a radiation absorbing layer configured to convert incident photons into electric signals; a plurality of comparators configured to compare each of the electric signals with a respective one of a plurality of reference values which have different values than each other, in order to classify the photons in a plurality of energy bands; and a plurality of counters , which are respectively connected with the plurality of comparators, configured to count and store a respective number of photons that are classified in each of the plurality of energy bands, and wherein the radiation detector is characterized in that the plurality of counters have different sizes wherein the sizes correspond to the plurality of reference values, and wherein the sizes of the plurality of counters vary inversely with respect to the corresponding plurality of reference values such that a size of a first counter from among the plurality of counters is greater than a size of a second counter when a first reference value applied to a first comparator connected to the first counter from among the plurality of comparators is smaller than a second reference value applied to a second comparator connected to the second counter. a radiation absorbing layer configured to convert incident photons into electric signals; a plurality of comparators configured to compare each of the electric signals with a respective one of a plurality of reference values which have different values than each other, in order to classify the photons in a plurality of energy bands; and a plurality of counters , which are respectively connected with the plurality of comparators, configured to count and store a respective number of photons that are classified in each of the plurality of energy bands, and wherein the radiation detector is characterized in that the plurality of counters have different sizes wherein the sizes correspond to the plurality of reference values, and wherein the sizes of the plurality of counters vary inversely with respect to the corresponding plurality of reference values such that a size of a first counter from among the plurality of counters is greater than a size of a second counter when a first reference value applied to a first comparator connected to the first counter from among the plurality of comparators is smaller than a second reference value applied to a second comparator connected to the second counter.
A device, comprising: a first amplifier circuit having outputs coupled to inputs of a first transformer and a second transformer , the first transformer selectively coupled to a first shared power distribution network through a first switch configured to selectively couple the first shared power distribution network to the first transformer , the second transformer selectively coupled to a second shared power distribution network through a second switch configured to selectively couple the second shared power distribution network to the second transformer , wherein the first and second shared power distribution network comprises a respective first and second low dropout voltage regulator; a second amplifier circuit having outputs coupled to inputs of a third transformer and a fourth transformer , the third transformer selectively coupled to the first shared power distribution network through a third switch , the fourth transformer selectively coupled to the second shared power distribution network through a fourth switch ; the first and third switches are configured to selectively couple one of the first transformer or the third transformer having a first carrier-aggregation, CA, signal to the first shared power distribution network ; and the second and fourth switches are configured to selectively couple one of the second transformer or the fourth transformer having a second carrier-aggregation, CA, signal to the second shared power distribution network . a first amplifier circuit having outputs coupled to inputs of a first transformer and a second transformer , the first transformer selectively coupled to a first shared power distribution network through a first switch configured to selectively couple the first shared power distribution network to the first transformer , the second transformer selectively coupled to a second shared power distribution network through a second switch configured to selectively couple the second shared power distribution network to the second transformer , wherein the first and second shared power distribution network comprises a respective first and second low dropout voltage regulator; a second amplifier circuit having outputs coupled to inputs of a third transformer and a fourth transformer , the third transformer selectively coupled to the first shared power distribution network through a third switch , the fourth transformer selectively coupled to the second shared power distribution network through a fourth switch ; the first and third switches are configured to selectively couple one of the first transformer or the third transformer having a first carrier-aggregation, CA, signal to the first shared power distribution network ; and the second and fourth switches are configured to selectively couple one of the second transformer or the fourth transformer having a second carrier-aggregation, CA, signal to the second shared power distribution network .
A method of maneuvering a vehicle , the method comprising: receiving, by one or more processors from a perception system of the vehicle, sensor information identifying a set of objects as well as a set of characteristics for each object of the set of objects; filtering, by the one or more processors, the set of objects to remove objects corresponding to vehicles, bicycles, and pedestrians; selecting, by the one or more processors, from the filtered set of objects, an object within an expected future path of the vehicle; classifying, by the one or more processors, from classifications of drivable and not drivable, the selected object as drivable based on the set of characteristics for the selected object, wherein drivable indicates that the vehicle can drive over the selected object without causing damage to the vehicle and wherein not drivable indicates that the vehicle should stop or maneuver around the selected object; and maneuvering, by the one or more processors, the vehicle based on the classification of the selected object as drivable, wherein maneuvering the vehicle includes driving the vehicle over the selected object by not altering the expected future path of the vehicle. receiving, by one or more processors from a perception system of the vehicle, sensor information identifying a set of objects as well as a set of characteristics for each object of the set of objects; filtering, by the one or more processors, the set of objects to remove objects corresponding to vehicles, bicycles, and pedestrians; selecting, by the one or more processors, from the filtered set of objects, an object within an expected future path of the vehicle; classifying, by the one or more processors, from classifications of drivable and not drivable, the selected object as drivable based on the set of characteristics for the selected object, wherein drivable indicates that the vehicle can drive over the selected object without causing damage to the vehicle and wherein not drivable indicates that the vehicle should stop or maneuver around the selected object; and maneuvering, by the one or more processors, the vehicle based on the classification of the selected object as drivable, wherein maneuvering the vehicle includes driving the vehicle over the selected object by not altering the expected future path of the vehicle.
A method for solubilizing a carbonaceous feedstock, whereby solubilizing means converting a solid carbonaceous material to a form of oxygenated carbon compounds that are in solution with water, the method comprising the steps of: a. reacting a mixture of the carbonaceous feedstock with a solid metal oxide including a metal at a first, higher oxidation state to reduce the metal of the metal oxide to a second, lower oxidation state by releasing at least one oxygen atom to oxidize at least one component of the carbonaceous feedstock; and b. oxidizing at least a portion of the metal or metal oxide containing the metal at the second, lower oxidation state to the first, higher oxidation state, and c. recycling at least a portion of the metal oxide containing the metal at the first, higher oxidation state from step (b) back to step (a). a. reacting a mixture of the carbonaceous feedstock with a solid metal oxide including a metal at a first, higher oxidation state to reduce the metal of the metal oxide to a second, lower oxidation state by releasing at least one oxygen atom to oxidize at least one component of the carbonaceous feedstock; and b. oxidizing at least a portion of the metal or metal oxide containing the metal at the second, lower oxidation state to the first, higher oxidation state, and c. recycling at least a portion of the metal oxide containing the metal at the first, higher oxidation state from step (b) back to step (a).
A light deflecting device including a light deflecting unit having paired beams provided on both sides of a movable unit having a light reflecting unit and a coil, and a fixed unit to which the light deflecting unit is swingably fixed through the beams and which has a magnetic field forming unit , the movable unit being swung with the beams as torsional rotation axes by an electromagnetic force generated by a driving current flowing to the coil and a magnetic field formed by the magnetic field forming unit , wherein a counter swing member to be swung in a reverse phase to a swing phase of the light deflecting unit is provided in the fixed unit so as to be opposed to the light deflecting unit , wherein the counter swing member is configured by a counter movable unit and paired counter beams provided on both sides of the counter movable unit and functioning as torsional rotation axes, and is configured to be passively swung in an almost reverse phase with a phase delay of approximately 180 degrees to a swing phase of the light deflecting unit upon receipt of a stress acting on the fixed unit by swing of the light deflecting unit , and wherein a frequency of the driving current is set to the vicinity of a resonance frequency of the light deflecting unit , and a resonance frequency of the counter swing member is set to be lower than the frequency of the driving current. wherein a counter swing member to be swung in a reverse phase to a swing phase of the light deflecting unit is provided in the fixed unit so as to be opposed to the light deflecting unit , wherein the counter swing member is configured by a counter movable unit and paired counter beams provided on both sides of the counter movable unit and functioning as torsional rotation axes, and is configured to be passively swung in an almost reverse phase with a phase delay of approximately 180 degrees to a swing phase of the light deflecting unit upon receipt of a stress acting on the fixed unit by swing of the light deflecting unit , and wherein a frequency of the driving current is set to the vicinity of a resonance frequency of the light deflecting unit , and a resonance frequency of the counter swing member is set to be lower than the frequency of the driving current.
A shaft assembly for a gas turbine engine, comprising: a shaft comprising a plurality of notches that extend axially into an end thereof; a nut comprising a nut base and a plurality of protrusions , wherein the nut base is mounted on the shaft , the protrusions extend radially out from the nut base , and adjacent protrusions are circumferentially separated by a gap ; a nut lock ring comprising a tubular ring base connected axially between a plurality of first lock tabs and a plurality of second lock tabs , wherein the ring base is disposed on the nut base , each first lock tab extends radially inward through a respective one of the notches , and each second lock tab extends axially through a respective one of the gaps ; and a tubular nut support ring disposed on the ring base , characterized in that : the nut lock ring further comprises a third lock tab connected to the ring base , wherein the third lock tab extends radially outward, and the nut support ring is disposed axially between the third lock tab and the second lock tabs . a shaft comprising a plurality of notches that extend axially into an end thereof; a nut comprising a nut base and a plurality of protrusions , wherein the nut base is mounted on the shaft , the protrusions extend radially out from the nut base , and adjacent protrusions are circumferentially separated by a gap ; a nut lock ring comprising a tubular ring base connected axially between a plurality of first lock tabs and a plurality of second lock tabs , wherein the ring base is disposed on the nut base , each first lock tab extends radially inward through a respective one of the notches , and each second lock tab extends axially through a respective one of the gaps ; and a tubular nut support ring disposed on the ring base , characterized in that : the nut lock ring further comprises a third lock tab connected to the ring base , wherein the third lock tab extends radially outward, and the nut support ring is disposed axially between the third lock tab and the second lock tabs .
A method for manufacturing at least one dental prosthesis implant abutment , an implant abutment comprising an insert in the lower part, comprising a connector configured to connect the abutment to an implant, and a body in the upper part configured to support a crown, the method comprising: - a step of producing an implant abutment blank , comprising ∘ a specific step of producing the body of the implant abutment , comprising a step of producing the body by additive manufacturing , on an additive manufacturing substrate , starting with the top of the body ; and ∘ a step of producing an insert blank as an extension of the body , comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; - at least one blank being positioned in a spark erosion machining apparatus enclosure, the spark erosion machining apparatus enclosure then being closed and filled with dielectric fluid; and - a step of producing the connector , comprising at least one step of spark erosion machining the connector blank by sinking at least one electrode onto the connector blank , the at least one electrode comprising a cavity representing a negative of the connector of the insert to be produced. - a step of producing an implant abutment blank , comprising ∘ a specific step of producing the body of the implant abutment , comprising a step of producing the body by additive manufacturing , on an additive manufacturing substrate , starting with the top of the body ; and ∘ a step of producing an insert blank as an extension of the body , comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; ∘ a specific step of producing the body of the implant abutment , comprising a step of producing the body by additive manufacturing , on an additive manufacturing substrate , starting with the top of the body ; and ∘ a step of producing an insert blank as an extension of the body , comprising a sub-step of producing a connector blank by additive manufacturing on the same additive manufacturing substrate; - at least one blank being positioned in a spark erosion machining apparatus enclosure, the spark erosion machining apparatus enclosure then being closed and filled with dielectric fluid; and - a step of producing the connector , comprising at least one step of spark erosion machining the connector blank by sinking at least one electrode onto the connector blank , the at least one electrode comprising a cavity representing a negative of the connector of the insert to be produced.
Turbomachine comprising: - a turbine provided with a turbine wheel, - a compressor , - a shaft , rotatable, connecting the turbine and the compressor , - support means (3, 3*, 8, 8*) of the shaft , - a cooling and lubrication system exclusively based on heat removal by lubricating oil, which system includes a main channel for feeding the lubricating oil to the support means (3, 3*, 8, 8*) of the shaft , - sealing means on the turbine side, configured to avoid lubricating oil entering the turbine wheel, wherein - the cooling and lubrication system comprises at least one spray-channel (5, 5*) for cooling the sealing means , fluid-dynamically connected to the main channel and able to supply a flow of lubricating oil fed directly or indirectly, from the main channel ; - the spray-channel (5, 5*) is provided, in a distal position with respect to the main channel , with a spray nozzle facing the sealing means , the turbomachine being characterized by the fact that a distance (d) of the spray nozzle from the sealing means is between five and twelve times the diameter (φ5) of the spray-channel (5, 5*). - a turbine provided with a turbine wheel, - a compressor , - a shaft , rotatable, connecting the turbine and the compressor , - support means (3, 3*, 8, 8*) of the shaft , - a cooling and lubrication system exclusively based on heat removal by lubricating oil, which system includes a main channel for feeding the lubricating oil to the support means (3, 3*, 8, 8*) of the shaft , - sealing means on the turbine side, configured to avoid lubricating oil entering the turbine wheel, wherein - the cooling and lubrication system comprises at least one spray-channel (5, 5*) for cooling the sealing means , fluid-dynamically connected to the main channel and able to supply a flow of lubricating oil fed directly or indirectly, from the main channel ; - the spray-channel (5, 5*) is provided, in a distal position with respect to the main channel , with a spray nozzle facing the sealing means ,