mhurhangee/patent-ind-claim-en huggingface dataset:
A contact imaging device comprising: an imaging sensor ; a fixed fiber faceplate mechanically coupled to the imaging sensor ; and an optical filtering layer mechanically coupled to the fixed fiber faceplate ; wherein the optical filtering layer further comprises a removable fiber faceplate and a transmission filter , the removable fiber faceplate is bonded on one side with the transmission filter ; characterized in that the contact image device comprises a reversible mechanism for attachment and detachment of the optical filtering layer to and from the fixed fiber faceplate , and in that the contact imaging device is provided as a kit with two or more optical filtering layers , each with a different configuration of optical components. an imaging sensor ; a fixed fiber faceplate mechanically coupled to the imaging sensor ; and an optical filtering layer mechanically coupled to the fixed fiber faceplate ; wherein the optical filtering layer further comprises a removable fiber faceplate and a transmission filter , the removable fiber faceplate is bonded on one side with the transmission filter ; characterized in that the contact image device comprises a reversible mechanism for attachment and detachment of the optical filtering layer to and from the fixed fiber faceplate , and in that the contact imaging device is provided as a kit with two or more optical filtering layers , each with a different configuration of optical components.
A fuel and air system for an aircraft comprising: a pressurized fuel tank containing a pressurized fuel; a turbo expander configured to receive the pressurized fuel from the pressurized fuel tank, the turbo expander configured to decrease a pressure of the pressurized fuel to generate low pressure fuel, wherein the low pressure fuel has a pressure that is less than the pressurized fuel; a fuel-to-air heat exchanger configured to receive the low pressure fuel from the turbo expander as a first working fluid and air as a second working fluid, the heat exchanger configured to cool the air and warm the low pressure fuel to generate treated fuel; a space configured to receive the cooled air; and a fuel consumption system configured to consume the treated fuel to generate power; wherein the turbo expander is part of a turbo-compressor comprising a compressor operably coupled to the turbo expander by a shaft, and the compressor is configured to receive ram air and compress said ram air and increase pressure thereof, the increased pressure ram air being directed to the fuel-to-air heat exchanger. a pressurized fuel tank containing a pressurized fuel; a turbo expander configured to receive the pressurized fuel from the pressurized fuel tank, the turbo expander configured to decrease a pressure of the pressurized fuel to generate low pressure fuel, wherein the low pressure fuel has a pressure that is less than the pressurized fuel; a fuel-to-air heat exchanger configured to receive the low pressure fuel from the turbo expander as a first working fluid and air as a second working fluid, the heat exchanger configured to cool the air and warm the low pressure fuel to generate treated fuel; a space configured to receive the cooled air; and a fuel consumption system configured to consume the treated fuel to generate power; wherein the turbo expander is part of a turbo-compressor comprising a compressor operably coupled to the turbo expander by a shaft, and the compressor is configured to receive ram air and compress said ram air and increase pressure thereof, the increased pressure ram air being directed to the fuel-to-air heat exchanger.
A decontamination apparatus for a viewing window, comprising: a cylinder ; and a rotating module , disposed at one end of the cylinder and connected with a viewing window ; the rotating module can be driven to rotate, which further drives the viewing window to rotate for removing dirt attached to the viewing window , characterized in that the rotating module includes a rotor unit and at least one stator unit ; the rotor unit surrounds the cylinder ; the stator unit is fixed to an outer side of the cylinder and wound with an energizable coil ; the rotor unit is pivotally connected to the cylinder , the viewing window is fixed on the rotor unit , and the rotor unit is provided with a permanent magnet opposite to the stator unit , wherein a bearing is provided between the rotor unit and the cylinder , and wherein the rotor unit includes a first block , a second block and a third block threadedly connected in sequence; the bearing is socketed between the first block and the cylinder , the permanent magnet is assembled on an inner wall of the second block and is faced to the stator unit , and the viewing window is socketed in the third block (223 A). a cylinder ; and a rotating module , disposed at one end of the cylinder and connected with a viewing window ; the rotating module can be driven to rotate, which further drives the viewing window to rotate for removing dirt attached to the viewing window , characterized in that the rotating module includes a rotor unit and at least one stator unit ; the rotor unit surrounds the cylinder ; the stator unit is fixed to an outer side of the cylinder and wound with an energizable coil ; the rotor unit is pivotally connected to the cylinder , the viewing window is fixed on the rotor unit , and the rotor unit is provided with a permanent magnet opposite to the stator unit , wherein a bearing is provided between the rotor unit and the cylinder , and wherein the rotor unit includes a first block , a second block and a third block threadedly connected in sequence; the bearing is socketed between the first block and the cylinder , the permanent magnet is assembled on an inner wall of the second block and is faced to the stator unit , and the viewing window is socketed in the third block (223 A).
Method for detecting anomalies on navigation signals received by N reception channels of a satellite positioning receiver , where N is an integer number greater than 1, each channel i, where i is between 1 and N, comprising a carrier correlation circuit , a code correlation circuit including spot (Cp), advance (Ca) and delay (Cr) correlators, a code discriminator (DSC), a carrier phase discriminator (DSP), the code (DSC) and carrier phase (DSP) discriminators being connected to a common channel filter suitable for managing, jointly, the position of the spot (Cp), advance (Ca) and delay (Cr) correlators of the N reception channels to reduce code (DCi) and carrier phase (DPi) error values delivered by the code and carrier phase discriminators (DSC, DSP), characterised in that it consists in extracting the code error values (DCi) delivered at the output of the N code discriminators (DSC), in comparing the extracted code error values (DCi) with a same first threshold value (S1) corresponding to an acceptable maximum code error value, in extracting carrier phase error values (DPi) delivered at the output of the N carrier phase discriminators (DSP), in comparing the extracted carrier phase error values (DPi) with a same second threshold value (S2) corresponding to an acceptable maximum code error value and in assigning a confidence index (ICi) to each navigation signal received on each reception channel, the confidence index (ICi) depending on the results of the comparison carried out on the code error values (DCi) and on the carrier phase error values (DPi), and to select navigation signals having a confidence index (ICi) greater than a minimal reference confidence level (ICmin) and to transmit only the selected navigation signals to the channel filter .
A local wireless access network node comprising: a communication interface to communicate with a macro wireless access network node ; and at least one processor configured to: receive , from the macro wireless access network node and via the communication interface , a request to offload at least a portion of data traffic associated with one or more radio access bearers to be offloaded for a user equipment from the macro wireless access network node to the local wireless access network node , wherein the user equipment is to maintain a wireless connection to the macro wireless access network node while the user equipment is to receive the at least a portion of data traffic from the local wireless access network node but not from the macro wireless access network node ; and send , to the macro wireless access network node , a response indicating acceptance of the request, the response including random access channel configuration information of the local wireless access network node and random access preamble information to be sent by the macro wireless access network node to the user equipment . a communication interface to communicate with a macro wireless access network node ; and at least one processor configured to: receive , from the macro wireless access network node and via the communication interface , a request to offload at least a portion of data traffic associated with one or more radio access bearers to be offloaded for a user equipment from the macro wireless access network node to the local wireless access network node , wherein the user equipment is to maintain a wireless connection to the macro wireless access network node while the user equipment is to receive the at least a portion of data traffic from the local wireless access network node but not from the macro wireless access network node ; and send , to the macro wireless access network node , a response indicating acceptance of the request, the response including random access channel configuration information of the local wireless access network node and random access preamble information to be sent by the macro wireless access network node to the user equipment . receive , from the macro wireless access network node and via the communication interface , a request to offload at least a portion of data traffic associated with one or more radio access bearers to be offloaded for a user equipment from the macro wireless access network node to the local wireless access network node , wherein the user equipment is to maintain a wireless connection to the macro wireless access network node while the user equipment is to receive the at least a portion of data traffic from the local wireless access network node but not from the macro wireless access network node ; and send , to the macro wireless access network node , a response indicating acceptance of the request, the response including random access channel configuration information of the local wireless access network node and random access preamble information to be sent by the macro wireless access network node to the user equipment .
A device comprising: a catheter including a proximal end and a distal end and defining a lumen extending from the proximal end to the distal end, the catheter including a plurality of openings extending from the lumen through a wall of the catheter; and a connector coupled to the proximal end of the catheter and including a clamp configured to close over a portion of the catheter to compress the lumen to prevent fluid flow a needle including a connection element configured to couple the needle to the distal end of the catheter, wherein the needle includes a tip , a cutting blade , and a body portion extending between the tip and the cutting blade, wherein the body portion is curved to form an arcuate shape, and the cutting blade is substantially planar and comprises first and second sharpened edges that extend outward and away from the body portion , characterised in that the first sharpened edge is sharpened on a first side of the cutting blade but not a second side of the cutting blade and wherein the second sharpened edge is sharpened on the second side of the cutting blade but not the first side of the cutting blade. a catheter including a proximal end and a distal end and defining a lumen extending from the proximal end to the distal end, the catheter including a plurality of openings extending from the lumen through a wall of the catheter; and a connector coupled to the proximal end of the catheter and including a clamp configured to close over a portion of the catheter to compress the lumen to prevent fluid flow a needle including a connection element configured to couple the needle to the distal end of the catheter, wherein the needle includes a tip , a cutting blade , and a body portion extending between the tip and the cutting blade, wherein the body portion is curved to form an arcuate shape, and the cutting blade is substantially planar and comprises first and second sharpened edges that extend outward and away from the body portion , characterised in that the first sharpened edge is sharpened on a first side of the cutting blade but not a second side of the cutting blade and wherein the second sharpened edge is sharpened on the second side of the cutting blade but not the first side of the cutting blade.
A wire rod, by weight %, comprising: 0.05 to 0.20% of carbon (C), 0.2% or less of silicon (Si), 5.0 to 6.0% of manganese (Mn), 0.020% or less of phosphorus (P), 0.020% or less of sulfur (S), 0.010 to 0.050% of aluminum (Al), 0.010 to 0.020% of nitrogen (N), a balance of iron (Fe) and inevitable impurities, and having a microstructure composed of two phases of austenite and ferrite, wherein an area fraction of austenite is 15 to 25%, characterized in that the following Relational Expressions 1 and 2 are satisfied; wherein the microstructure of the wire rod has a lamellar structure of austenite and ferrite in a form of a lath; and wherein an inter-lamellar spacing is 0.2μm or less excluding 0 μm: Mn / Si ≥ 25 where each of [Mn] and [Si] is a content by weight% of the corresponding element, 1 ≤ Al / N ≤ 4 where each of [Al] and [N] is a content by weight% of the corresponding element. 0.05 to 0.20% of carbon (C), 0.2% or less of silicon (Si), 5.0 to 6.0% of manganese (Mn), 0.020% or less of phosphorus (P), 0.020% or less of sulfur (S), 0.010 to 0.050% of aluminum (Al), 0.010 to 0.020% of nitrogen (N), a balance of iron (Fe) and inevitable impurities, and having a microstructure composed of two phases of austenite and ferrite, wherein an area fraction of austenite is 15 to 25%, characterized in that the following Relational Expressions 1 and 2 are satisfied; wherein the microstructure of the wire rod has a lamellar structure of austenite and ferrite in a form of a lath; and wherein an inter-lamellar spacing is 0.2μm or less excluding 0 μm: Mn / Si ≥ 25 where each of [Mn] and [Si] is a content by weight% of the corresponding element, 1 ≤ Al / N ≤ 4 where each of [Al] and [N] is a content by weight% of the corresponding element.
A compound having the formula: R 1 -X-Z-R 2 wherein R 1 is H (i.e. hydrogen), C 1-4 alkyl, acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is OH or NH 2 ; X is a peptide having the sequence: H-X2-X3-GTFTSDYSKYL-X15-X16-X17-X18-A-X20-DFI-X24-WLE-X28-A wherein: X2 is selected from Ac3c, Ac4c and Ac5c; X3 is selected from Gln and His; X15 is selected from Asp and Glu; X16 is selected from Glu, Lys and Ψ; X17 is selected from Lys, Arg and Ψ; X18 is selected from Ala and Arg; X20 is selected from Lys and Ψ; X24 is selected from Glu, Lys and Ψ; X28 is selected from Ser, Lys and Ψ; wherein each Ψ is a residue independently selected from Lys, Arg, Orn and Cys and wherein the side chain of each residue Ψ is conjugated to a lipophilic substituent; and wherein Z is absent or is a sequence of 1-20 amino acid units independently selected from the group consisting of Ala, Leu, Ser, Thr, Tyr, Cys, Glu, Lys, Arg, Dbu, Dpr and Orn; or a pharmaceutically acceptable salt or solvate thereof. R 1 is H (i.e. hydrogen), C 1-4 alkyl, acetyl, formyl, benzoyl or trifluoroacetyl; R 2 is OH or NH 2 ; X is a peptide having the sequence: H-X2-X3-GTFTSDYSKYL-X15-X16-X17-X18-A-X20-DFI-X24-WLE-X28-A wherein: X2 is selected from Ac3c, Ac4c and Ac5c; X3 is selected from Gln and His; X15 is selected from Asp and Glu; X16 is selected from Glu, Lys and Ψ; X17 is selected from Lys, Arg and Ψ; X18 is selected from Ala and Arg; X20 is selected from Lys and Ψ; X24 is selected from Glu, Lys and Ψ; X28 is selected from Ser, Lys and Ψ; X2 is selected from Ac3c, Ac4c and Ac5c; X3 is selected from Gln and His; X15 is selected from Asp and Glu; X16 is selected from Glu, Lys and Ψ; X17 is selected from Lys, Arg and Ψ; X18 is selected from Ala and Arg; X20 is selected from Lys and Ψ; X24 is selected from Glu, Lys and Ψ; X28 is selected from Ser, Lys and Ψ;
A method of operating a hookloader , the hookloader comprising a chassis for receiving a container , a boom arm pivotably moveable with respect to the chassis , with a linear actuator disposed therebetween and actuatable to pivot the boom arm , the boom arm comprising a hook having a hook body defining an opening for hooking the container , the hook comprising a latch configured to lock to close the opening of the hook , or to unlock to open the opening of the hook , the method characterised by comprising: receiving an inclination parameter, from a sensor , relating to the inclination of the boom arm ; and controlling the latch of the hook to lock or unlock based on the inclination parameter. receiving an inclination parameter, from a sensor , relating to the inclination of the boom arm ; and controlling the latch of the hook to lock or unlock based on the inclination parameter.
A method, implemented by a multi domain service coordinator, MDSC, of locating a fault in an optical communication link, comprising: determining a fault in a first optical link; determining a fault in a second optical link, wherein the first optical link belongs to a first network domain and the second optical link belongs to a second network domain; determining that a first portion of the first optical link is co-located with a second portion of the second optical link; and identifying , as a result of determining that the first portion is co-located with the second portion, that the fault in the first optical link is located in the first portion and the fault in the second optical link is located in the second portion, wherein determining the fault in the first optical link comprises receiving a first notification from a first physical network controller, PNC, of the fault in the first optical link, wherein the first optical link and the first PNC are associated with the first network domain; and determining the fault in the second optical link comprises receiving a second notification from a second PNC of the fault in the second optical link, wherein the second optical link and the second PNC are associated with the second network domain. determining a fault in a first optical link; determining a fault in a second optical link, wherein the first optical link belongs to a first network domain and the second optical link belongs to a second network domain; determining that a first portion of the first optical link is co-located with a second portion of the second optical link; and identifying , as a result of determining that the first portion is co-located with the second portion, that the fault in the first optical link is located in the first portion and the fault in the second optical link is located in the second portion, wherein determining the fault in the first optical link comprises receiving a first notification from a first physical network controller, PNC, of the fault in the first optical link, wherein the first optical link and the first PNC are associated with the first network domain; and determining the fault in the second optical link comprises receiving a second notification from a second PNC of the fault in the second optical link, wherein the second optical link and the second PNC are associated with the second network domain.
A radiation sensor, comprising: a substrate ; and a semiconductor detector ; and the radiation sensor comprises a carrier material mounted to the substrate ; wherein the semiconductor detector is mounted to said carrier material and a radiation sensitive portion of said semiconductor detector is oriented towards said carrier material and away from said substrate , and said carrier material is adapted to transmit radiation to said radiation sensitive portion of said semiconductor detector ; and characterized in that the substrate includes an aperture or a recess designed for receiving a rear portion of said semiconductor detector . a substrate ; and a semiconductor detector ; and the radiation sensor comprises a carrier material mounted to the substrate ; wherein the semiconductor detector is mounted to said carrier material and a radiation sensitive portion of said semiconductor detector is oriented towards said carrier material and away from said substrate , and said carrier material is adapted to transmit radiation to said radiation sensitive portion of said semiconductor detector ; and characterized in that the substrate includes an aperture or a recess designed for receiving a rear portion of said semiconductor detector .
A structure for performing physical exercises in a liquid medium, said structure including: - at least one floating element able to ensure a user's at least partial floatation; - a front part comprising hydraulic propulsion means , connected to mechanical driving means able to be actuated by the user's legs; where the floating element consists of a generally U-shaped tubular element comprising two parallel spaced apart branches and a support part , forming a base transverse to said two branches , said support part being for providing support for the user's nape and/or back of the head, and in that the free end of each U-branch , opposite to the support part , is respectively removably connected to a first end of a side member , the second end of each side member being connected to the front part via a cross-member , so that the user is in a lying down position while using the structure as the structure moves in water. - at least one floating element able to ensure a user's at least partial floatation; - a front part comprising hydraulic propulsion means , connected to mechanical driving means able to be actuated by the user's legs; where the floating element consists of a generally U-shaped tubular element comprising two parallel spaced apart branches and a support part , forming a base transverse to said two branches , said support part being for providing support for the user's nape and/or back of the head, and in that the free end of each U-branch , opposite to the support part , is respectively removably connected to a first end of a side member , the second end of each side member being connected to the front part via a cross-member , so that the user is in a lying down position while using the structure as the structure moves in water.
A directional antenna array, comprising: - a rectangular waveguide with two feeds , the guide extending along a longitudinal axis (Oy), said rectangular waveguide comprising: • a fixed portion with two lateral faces facing each other and an upper face joining the two lateral faces orthogonally, and • a bottom part placed between the two lateral faces and forming the lower face of the waveguide; - a plurality of radiating elements placed regularly along said longitudinal axis on the fixed portion of the waveguide, the directional antenna array being characterised in that the bottom part of the rectangular waveguide is movable translationally in a direction of movement (Oz) parallel to the lateral faces, the maximum distance (H) between the bottom part and the upper face being smaller than the distance (L) between the lateral faces. - a rectangular waveguide with two feeds , the guide extending along a longitudinal axis (Oy), said rectangular waveguide comprising: • a fixed portion with two lateral faces facing each other and an upper face joining the two lateral faces orthogonally, and • a bottom part placed between the two lateral faces and forming the lower face of the waveguide; • a fixed portion with two lateral faces facing each other and an upper face joining the two lateral faces orthogonally, and • a bottom part placed between the two lateral faces and forming the lower face of the waveguide; - a plurality of radiating elements placed regularly along said longitudinal axis on the fixed portion of the waveguide,