mhurhangee/patent-ind-claim-en huggingface dataset:
Navigation aid instrument for an aircraft powered only by solar energy, this navigation aid instrument being intended to assist the pilot of the aircraft , this navigation aid instrument including a first display device (R3) that extends horizontally on the instrument panel of the aircraft , wherein the centre of said display device embodies the longitudinal axis (X) of the aircraft, a mobile marker can move on either side of the centre of the first display device (R3) indicating the flight direction of the aircraft relative to the ground, i.e. the angle formed by the longitudinal axis of said aircraft and the horizontal component of the velocity vector of said aircraft, wherein the angle is positive on the right side of the pilot when said pilot is looking at the nose of the aircraft, and the mobile marker is further away from the centre of the display device (R3) the more the flight direction of the aircraft has drifted from the rectilinear flight direction that will lead said aircraft to the threshold of a runway, the first display device (R3) including at least two diodes (D1) arranged on either side of the centre thereof, the resolution of the angle to be displayed by the first display device (R3) is ± 1° relative to the rectilinear flight direction that will lead the aircraft to the runway threshold, one diode (D1) being provided for each degree of drift.
A housing including: a housing body in which a circuit board is to be_mounted; and a wire section through which electricity is supplied to the circuit board from an electric power source, the wire section including: a pair of first sections embedded in the housing body ; a pair of second sections each projecting from each of the first sections to electrically connect with the circuit board ; and a pair of third sections each projecting from each of the first sections in a direction opposite to a direction in which the second sections project from the first sections , to electrically connect with the electric power source, the first sections each conducting heat having been generated in the circuit board into the housing body , characterized by the first sections each being arranged in parallel with the circuit board in the housing body . a housing body in which a circuit board is to be_mounted; and a wire section through which electricity is supplied to the circuit board from an electric power source, the wire section including: a pair of first sections embedded in the housing body ; a pair of second sections each projecting from each of the first sections to electrically connect with the circuit board ; and a pair of third sections each projecting from each of the first sections in a direction opposite to a direction in which the second sections project from the first sections , to electrically connect with the electric power source, the first sections each conducting heat having been generated in the circuit board into the housing body , characterized by the first sections each being arranged in parallel with the circuit board in the housing body . a pair of first sections embedded in the housing body ; a pair of second sections each projecting from each of the first sections to electrically connect with the circuit board ; and a pair of third sections each projecting from each of the first sections in a direction opposite to a direction in which the second sections project from the first sections , to electrically connect with the electric power source, the first sections each conducting heat having been generated in the circuit board into the housing body , characterized by the first sections each being arranged in parallel with the circuit board in the housing body .
Tread for a tyre comprising at least one elongate block of rubbery material of width W and of length L with L >> W, this elongate block extending in a circumferential direction (X) when the tread is mounted on the tyre, the elongate block comprising a contact surface intended to come into contact with the ground and a first lateral wall and a second lateral wall delimiting this contact surface , the elongate block comprising a plurality of cuts opening onto the contact surface of the elongate block, the cuts extending in an oblique direction from the first lateral wall in the direction of the second lateral wall as far as cut ends , characterized in that, for at least one cut opening onto the first lateral wall , the end thereof does not open onto the second lateral wall and in that when this cut reaches its cut end another cut starts from the first lateral wall , at the same circumferential level (N) on the elongate block , and in that the cuts are sipes and in that two adjacent cuts in the elongate block have different inclinations and/or different shapes and/or different lengths.
A cooling system for an electronic circuit package, comprising: a heat transfer plate positioned in thermal contact with an electronic circuit package surface , wherein the heat transfer plate forms a bottom surface of an evaporative region of the cooling system; a plurality of condensing tubes in fluid communication with, and extending away from, the evaporative region, such that the evaporative region and condensing tubes together form a single, uninterrupted, sealed enclosure; a fluid disposed within the sealed enclosure; a plurality of spacers substantially filling gaps between the heat transfer plate and respective condensing tubes, wherein each of the spacers is configured as an independent component to allow the passage of fluid through an interior space of each spacer, wherein a first end of each of the spacers is inserted into the respective condensing tubes, and a second end of each of the spacers is in close proximity to or in contact with the heat transfer plate; and a plurality of wicks , characterized in that each wick is positioned partially within one spacer of the plurality of spacers to which a corresponding condensing tube of the plurality of condensing tubes is fluidically coupled, wherein each wick is in contact with the heat transfer plate and extends upward to the lower portion of the condensing tube , wherein a portion of the wick in contact with the heat transfer plate is oriented substantially parallel to the heat transfer plate . a heat transfer plate positioned in thermal contact with an electronic circuit package surface , wherein the heat transfer plate forms a bottom surface of an evaporative region of the cooling system; a plurality of condensing tubes in fluid communication with, and extending away from, the evaporative region, such that the evaporative region and condensing tubes together form a single, uninterrupted, sealed enclosure; a fluid disposed within the sealed enclosure; a plurality of spacers substantially filling gaps between the heat transfer plate and respective condensing tubes, wherein each of the spacers is configured as an independent component to allow the passage of fluid through an interior space of each spacer, wherein a first end of each of the spacers is inserted into the respective condensing tubes, and a second end of each of the spacers is in close proximity to or in contact with the heat transfer plate; and a plurality of wicks , characterized in that each wick is positioned partially within one spacer of the plurality of spacers to which a corresponding condensing tube of the plurality of condensing tubes is fluidically coupled, wherein each wick is in contact with the heat transfer plate and extends upward to the lower portion of the condensing tube , wherein a portion of the wick in contact with the heat transfer plate is oriented substantially parallel to the heat transfer plate .
Chair assembly for a chair or an armchair, comprising a seat body for a seat, a backrest body for a backrest, a locking and adjustment device applied to the seat body and a backrest support that connects the locking and adjustment device to the backrest body , wherein the backrest support comprises a lower engagement portion fixed to the seat body , an upper engagement portion fixed to the backrest body , a first arm , hinged to the lower engagement portion in a first lower axis and to the upper engagement portion in a first upper axis , and a second arm , hinged to the lower engagement portion in a second lower axis and to the upper engagement portion in a second upper axis , to form an articulated parallelogram that allows the position of the backrest body to be changed, keeping it parallel to itself, wherein the backrest support comprises return means suitable to operate permanently to bring the backrest support towards a retracted limit position, wherein said return means are elastic and comprise at least one spring operating on one of said arms and on a fixed stop, permanently in traction.
An OpenFlow node , comprising: a first means for receiving a packet including a header containing an array of a plurality of OpenFlow processing operations to be performed by individual OpenFlow nodes on a forwarding route of a data forwarding network; a second means for executing an OpenFlow processing operation corresponding to the OpenFlow node based on the header; and a third means for: requesting from an OpenFlow control server , in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions. a first means for receiving a packet including a header containing an array of a plurality of OpenFlow processing operations to be performed by individual OpenFlow nodes on a forwarding route of a data forwarding network; a second means for executing an OpenFlow processing operation corresponding to the OpenFlow node based on the header; and a third means for: requesting from an OpenFlow control server , in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions. requesting from an OpenFlow control server , in the case that the OpenFlow node cannot identify any OpenFlow processing operations corresponding to the OpenFlow node and the packet, the creation of an array of a plurality of OpenFlow processing operations corresponding to the packet; in response to the request, receiving from the OpenFlow control server instructions to append a header containing the requested array of a plurality of OpenFlow processing operations to the packet and outputting the packet, and subsequently executing the instructions.
A system for calculating location(s) and/or range(s) of object(s) in a scene external to an aircraft, the system comprising: a light projector (28L, 28R; 28) configured to be mounted at a projector location on the aircraft and to project pulses of linearly-patterned light in a controllable elevation or azimuth direction onto the scene external to the aircraft, wherein the linearly-patterned light appears as a reflected line on the object(s) in the scene; a camera (30L, 30R; 30) having a two dimensional array of light-sensitive pixels arranged in rows and columns of the light-sensitive pixels, the camera (30L, 30R; 30) configured to be mounted at a camera location on the aircraft and aligned such that the reflected line is imaged by a selected one of the rows or columns that is geometrically aligned to the reflected pulse of linearly patterned light; a controller configured to coordinate the light projector (28L, 28R; 28) and the camera (30L, 30R; 30) by synchronizing the controllable elevation or azimuth direction of the projected pulses of linearly-patterned light with the selected one of the rows or columns, upon which the reflected line is received by the camera (30L, 30R; 30) and focused; and an image processor configured to calculate, based on the projector location, the camera location, and the reflected line imaged by the selected one of the rows or columns, locations(s) and/or range(s) of object(s) in the scene from which the pulses of linearly-patterned light projected by the light projector (28L, 28R; 28) are reflected. a light projector (28L, 28R; 28) configured to be mounted at a projector location on the aircraft and to project pulses of linearly-patterned light in a controllable elevation or azimuth direction onto the scene external to the aircraft, wherein the linearly-patterned light appears as a reflected line on the object(s) in the scene; a camera (30L, 30R; 30) having a two dimensional array of light-sensitive pixels arranged in rows and columns of the light-sensitive pixels, the camera (30L, 30R; 30) configured to be mounted at a camera location on the aircraft and aligned such that the reflected line is imaged by a selected one of the rows or columns that is geometrically aligned to the reflected pulse of linearly patterned light; a controller configured to coordinate the light projector (28L, 28R; 28) and the camera (30L, 30R; 30) by synchronizing the controllable elevation or azimuth direction of the projected pulses of linearly-patterned light with the selected one of the rows or columns, upon which the reflected line is received by the camera (30L, 30R; 30) and focused; and an image processor configured to calculate, based on the projector location, the camera location, and the reflected line imaged by the selected one of the rows or columns, locations(s) and/or range(s) of object(s) in the scene from which the pulses of linearly-patterned light projected by the light projector (28L, 28R; 28) are reflected.
An automatic transmission , comprising: an input ; an output coupled to the input; a first rotating torque-transferring mechanism (C1) and a second rotating torque-transferring mechanism (C2), the first and second rotating torque-transferring mechanisms being independently coupled to the input; a plurality of stationary torque-transferring mechanisms (C3, C4, C5, C6) disposed between the input and the output; and a first planetary gearset (P1), a second planetary gearset (P2), a third planetary gearset (P3), and a fourth planetary gearset (P4), where each gearset is coupled to one of the plurality of stationary torque-transferring mechanisms and includes a sun gear , a ring gear , and a carrier assembly , wherein the ring gear of the fourth planetary gearset is coupled to the ring gear of the third planetary gearset, characterised in that a third torque path is at least partially defined by the input , the sun gear of the first planetary gear set (P1) and the carrier assembly of the first planetary gear set (P1) and the input is continuously coupled to the sun gear of the first planetary gearset (P1). an input ; an output coupled to the input; a first rotating torque-transferring mechanism (C1) and a second rotating torque-transferring mechanism (C2), the first and second rotating torque-transferring mechanisms being independently coupled to the input; a plurality of stationary torque-transferring mechanisms (C3, C4, C5, C6) disposed between the input and the output; and a first planetary gearset (P1), a second planetary gearset (P2), a third planetary gearset (P3), and a fourth planetary gearset (P4), where each gearset is coupled to one of the plurality of stationary torque-transferring mechanisms and includes a sun gear , a ring gear , and a carrier assembly , wherein the ring gear of the fourth planetary gearset is coupled to the ring gear of the third planetary gearset, characterised in that a third torque path is at least partially defined by the input , the sun gear of the first planetary gear set (P1) and the carrier assembly of the first planetary gear set (P1) and the input is continuously coupled to the sun gear of the first planetary gearset (P1).
A method for controlling a heat pump system (1; 10), the heat pump system comprising a compressor (2; 20) for compressing a working fluid (3; 30) of the heat pump system and an electric motor (4; 40) for providing an output torque for driving the compressor, comprising the step of recovering heat emitted from the electric motor by heating the working fluid by means of a heat exchanger transferring heat from the electric motor to the working fluid, characterized by providing a first control mode and a second control mode for the electric motor (4; 40), and controlling the electrical motor in a way creating higher heat losses of the electric motor for a given output torque of the electric motor in the second control mode than in the first control mode by creating higher heat losses of stator windings of the electric motor for a given output torque of the electric motor in the second control mode than in the first control mode or by creating higher heat losses of a stator core of the electric motor for a given output torque of the electric motor in the second control mode than in the first control mode.
An inhibitor of polynucleotide kinase/phosphatase (PNKP) for use in the treatment of a subject having cancer, or suspected of having cancer, said cancer associated with a defect in ING3, CDKN3, PTPN6, PTEN, or SMG1.
A water spout control device , comprising: a target object detector configured to detect a position of a target object as a detection target in a regional image according to an image information of the regional image, the regional image being generated by capturing an imaging target region including a faucet spout ; a faucet spout port detector configured to detect a position of a faucet spout port of the faucet spout in the regional image; and a determiner configured to determine whether to discharge water according to the position of the target object detected by the target object detector and the position of the faucet spout port detected by the faucet spout port detector , wherein the target object detector is configured to detect the position of the target object in each of the regional images in a time series, and the water spout control device further includes a switcher configured to switch a water discharging state regarding the water to be discharged; the waterspout control device being characterised in that the water discharging state is switched regarding the water to be discharged according to the position of the target object at a time when the target object is detected by the target object detector and the position of the target object at any time before the time when the target object is detected. a target object detector configured to detect a position of a target object as a detection target in a regional image according to an image information of the regional image, the regional image being generated by capturing an imaging target region including a faucet spout ; a faucet spout port detector configured to detect a position of a faucet spout port of the faucet spout in the regional image; and a determiner configured to determine whether to discharge water according to the position of the target object detected by the target object detector and the position of the faucet spout port detected by the faucet spout port detector , wherein the target object detector is configured to detect the position of the target object in each of the regional images in a time series, and the water spout control device further includes a switcher configured to switch a water discharging state regarding the water to be discharged; the waterspout control device being characterised in that the water discharging state is switched regarding the water to be discharged according to the position of the target object at a time when the target object is detected by the target object detector and the position of the target object at any time before the time when the target object is detected.
A fluid transfer hub , comprising: a first vessel closure ; a second vessel closure , a gasket arranged between the first vessel closure and the second vessel closure ; and a clamp at least partially surrounding the first vessel closure , the second vessel closure and the gasket ; wherein the first vessel closure comprises: a first body , one or more apertures extending axially through the first body , one or more first inserts extending axially through the one or more apertures, and a cast seal disposed within the first body and surrounding each first insert , wherein the second vessel closure comprises: a second body , one or more apertures extending axially through the second body, one or more second inserts extending axially through the one or more apertures, and a cast seal disposed within the second body and surrounding each second insert . a first vessel closure ; a second vessel closure , a gasket arranged between the first vessel closure and the second vessel closure ; and a clamp at least partially surrounding the first vessel closure , the second vessel closure and the gasket ; wherein the first vessel closure comprises: a first body , one or more apertures extending axially through the first body , one or more first inserts extending axially through the one or more apertures, and a cast seal disposed within the first body and surrounding each first insert , wherein the second vessel closure comprises: a second body , one or more apertures extending axially through the second body, one or more second inserts extending axially through the one or more apertures, and a cast seal disposed within the second body and surrounding each second insert .