mhurhangee/patent-ind-claim-en huggingface dataset:
A conveyor monitoring system for monitoring a plurality of conveyor idlers on a conveyor, each conveyor idler having a cylinder with an inner surface and an outer surface, the cylinder rollingly supported on a shaft by a plurality of bearings , the conveyor monitoring system comprising: a plurality of conveyor idler monitoring systems , each comprising: a bearing temperature sensor disposed to measure the temperature of at least one of the bearings; a vibration sensor configured to detect vibration of the conveyor idler; a wireless transmitter in data communication with said bearing temperature sensor and said vibration sensor, said wireless transmitter configured to transmit data from said bearing temperature sensor and said vibration sensor to a wireless receiver; and an energy generator in electrical communication with said wireless transmitter, wherein said energy generator is powered by rotation of the cylinder relative to the shaft; a gateway in wireless data communication with said wireless transmitter of each conveyor idler monitoring system; characterized in that the conveyor monitoring system comprises an application server in data communication with said gateway, said application server is configured to predict an idler failure time for each of the conveyor idlers based on vibration and bearing temperature data gathered by each of said conveyor idler monitoring systems. a plurality of conveyor idler monitoring systems , each comprising: a bearing temperature sensor disposed to measure the temperature of at least one of the bearings; a vibration sensor configured to detect vibration of the conveyor idler; a wireless transmitter in data communication with said bearing temperature sensor and said vibration sensor, said wireless transmitter configured to transmit data from said bearing temperature sensor and said vibration sensor to a wireless receiver; and an energy generator in electrical communication with said wireless transmitter, wherein said energy generator is powered by rotation of the cylinder relative to the shaft; a bearing temperature sensor disposed to measure the temperature of at least one of the bearings; a vibration sensor configured to detect vibration of the conveyor idler; a wireless transmitter in data communication with said bearing temperature sensor and said vibration sensor, said wireless transmitter configured to transmit data from said bearing temperature sensor and said vibration sensor to a wireless receiver; and an energy generator in electrical communication with said wireless transmitter, wherein said energy generator is powered by rotation of the cylinder relative to the shaft; a gateway in wireless data communication with said wireless transmitter of each conveyor idler monitoring system; characterized in that the conveyor monitoring system comprises an application server in data communication with said gateway, said application server is configured to predict an idler failure time for each of the conveyor idlers based on vibration and bearing temperature data gathered by each of said conveyor idler monitoring systems.
A scanner for inspecting a component , the scanner comprising: a main body comprising a clamp attachable to a trailing edge of the component ; a first flexible arm moveably attached to the main body about a first side of the component ; a first probe pivotally attached to the first flexible arm ; a first axial actuator in mechanical communication with the first flexible arm so that the first probe can slide along the first side of the component ; a second flexible arm moveably attached to the main body about a second side of the component ; a second probe pivotally attached to the second flexible arm ; a second axial actuator in mechanical communication with the second flexible arm so that the second probe can slide along the second side of the component ; and a radial actuator in mechanical communication with the first flexible arm and the second flexible arm . a main body comprising a clamp attachable to a trailing edge of the component ; a first flexible arm moveably attached to the main body about a first side of the component ; a first probe pivotally attached to the first flexible arm ; a first axial actuator in mechanical communication with the first flexible arm so that the first probe can slide along the first side of the component ; a second flexible arm moveably attached to the main body about a second side of the component ; a second probe pivotally attached to the second flexible arm ; a second axial actuator in mechanical communication with the second flexible arm so that the second probe can slide along the second side of the component ; and a radial actuator in mechanical communication with the first flexible arm and the second flexible arm .
A process of forming a mat containing a fiber filler comprising: providing one or more sources of extended length fiber; feeding the one or more sources of extended length fiber simultaneously to an automated cutting machine to produce chopped tow fibers; aerating the chopped tow fibers in a vortex to induce separating the chopped fiber tow into individual chopped fibers that form a fiber filler; coating the fiber filler with a binder; depositing the fiber filler on a first sheet of thermoplastic; covering the fiber filler with a second sheet of thermoplastic to form a stack; and moving the stack to a treatment chamber to form a fiber mat. providing one or more sources of extended length fiber; feeding the one or more sources of extended length fiber simultaneously to an automated cutting machine to produce chopped tow fibers; aerating the chopped tow fibers in a vortex to induce separating the chopped fiber tow into individual chopped fibers that form a fiber filler; coating the fiber filler with a binder; depositing the fiber filler on a first sheet of thermoplastic; covering the fiber filler with a second sheet of thermoplastic to form a stack; and moving the stack to a treatment chamber to form a fiber mat.
A composition including: a nanopore including a first side, a second side, and an aperture extending through the first and second sides; a permanent tether including a head region, a tail region, and an elongated body disposed therebetween, the head region being anchored to a polymerase and being disposed on the first side of the nanopore, the tail region being disposed on the second side, the elongated body including a moiety; the polymerase disposed adjacent to the first side of the nanopore; and a first nucleotide including a first elongated tag, the first elongated tag including a first moiety that interacts with the moiety of the tether responsive to the polymerase acting upon the first nucleotide. a nanopore including a first side, a second side, and an aperture extending through the first and second sides; a permanent tether including a head region, a tail region, and an elongated body disposed therebetween, the head region being anchored to a polymerase and being disposed on the first side of the nanopore, the tail region being disposed on the second side, the elongated body including a moiety; the polymerase disposed adjacent to the first side of the nanopore; and a first nucleotide including a first elongated tag, the first elongated tag including a first moiety that interacts with the moiety of the tether responsive to the polymerase acting upon the first nucleotide.
An inductive heating element for an aerosol-generating system, the inductive heating element comprising: a cavity for receiving aerosol-forming substrate to be heated by the inductive heating element ; a first susceptor ; a second susceptor ; and an intermediate element disposed between the first susceptor and the second susceptor , the intermediate element being gas permeable, wherein the intermediate element comprises at least one of: a thermally insulative material for thermally insulating the first susceptor from the second susceptor ; and an electrically insulative material for electrically insulating the first susceptor from the second susceptor . a cavity for receiving aerosol-forming substrate to be heated by the inductive heating element ; a first susceptor ; a second susceptor ; and an intermediate element disposed between the first susceptor and the second susceptor , the intermediate element being gas permeable, wherein the intermediate element comprises at least one of: a thermally insulative material for thermally insulating the first susceptor from the second susceptor ; and an electrically insulative material for electrically insulating the first susceptor from the second susceptor . a thermally insulative material for thermally insulating the first susceptor from the second susceptor ; and an electrically insulative material for electrically insulating the first susceptor from the second susceptor .
A method to produce a compound, CL2A-SN-38, of the structure, comprising performing a reaction scheme as shown: further comprising reacting SN-38 with tert-butyldimethylsilyl chloride (TBDMS-Cl) to produce 10- O -TBDMS-SN-38 (intermediate 4), wherein the reaction is carried out in dichloromethane solvent.
A communications method, the method comprising: receiving (509 or 606), at a first wireless access point , from a first wireless terminal a first message in encrypted form, said first message being directed to a second wireless terminal , the first message being secured using a first key; decrypting (513 or 608) at the first wireless access point the first message received in encrypted form to recover the first message; and making an access control decision ((529 or 556) or 610) used to control access to the first message based on said first key, said step of making an access control decision including determining (530 or 557 or 612) if the first key used to secure the first message is associated with the second wireless terminal by determining from stored information (107 or 114) if the second wireless terminal has access to the first key. receiving (509 or 606), at a first wireless access point , from a first wireless terminal a first message in encrypted form, said first message being directed to a second wireless terminal , the first message being secured using a first key; decrypting (513 or 608) at the first wireless access point the first message received in encrypted form to recover the first message; and making an access control decision ((529 or 556) or 610) used to control access to the first message based on said first key, said step of making an access control decision including determining (530 or 557 or 612) if the first key used to secure the first message is associated with the second wireless terminal by determining from stored information (107 or 114) if the second wireless terminal has access to the first key.
An apparatus , comprising: a housing including a main body , a cover coupled to a first side of the main body, and a base coupled to a second side of the main body, wherein the cover and the main body define a fuse cavity , and wherein the base and the main body define a main cavity ; a plurality of circuit protection devices disposed within the fuse cavity ; and a plurality of solenoids electrically connected to a printed circuit board (PCB) , wherein the plurality of circuit protection devices is disposed above the PCB, and wherein the PCB is positioned within the main cavity, characterized in that at least one of the plurality of circuit protection devices is directly coupled to an inner side of the cover . a housing including a main body , a cover coupled to a first side of the main body, and a base coupled to a second side of the main body, wherein the cover and the main body define a fuse cavity , and wherein the base and the main body define a main cavity ; a plurality of circuit protection devices disposed within the fuse cavity ; and a plurality of solenoids electrically connected to a printed circuit board (PCB) , wherein the plurality of circuit protection devices is disposed above the PCB, and wherein the PCB is positioned within the main cavity, characterized in that at least one of the plurality of circuit protection devices is directly coupled to an inner side of the cover .
A head-mounted imaging apparatus , comprising: a projector that is energizable to project image-bearing light; a light-conditioning element configured to direct and shape the image-bearing light from the projector to form a real image plane; a curved mirror that is partially transmissive to allow at least partial visibility of the ambient environment to one eye of an observer, wherein a surface of the curved mirror is substantially spherical; a lenslet array positioned adjacent to the real image plane and optically disposed at substantially one focal length away from the curved mirror , wherein the lenslet array is curved about a single axis (A); and a beamsplitter in a path of light from the real image at the lenslet array , wherein the beamsplitter is arranged to direct at least a portion of the light from the real image toward the curved mirror ; wherein the curved mirror is configured to direct light from the beamsplitter to form a virtual image for the one eye of the observer who wears the head-mounted imaging apparatus ; wherein the lenslet array includes a plurality of lenslets facing the curved mirror side of the path of light, the plurality of lenslets having respective focal points (F1), and wherein the real image plane is located along or within a substrate of the lenslet array and before the focal points (F1) of the plurality of lenslets in the path of light. a projector that is energizable to project image-bearing light; a light-conditioning element configured to direct and shape the image-bearing light from the projector to form a real image plane; a curved mirror that is partially transmissive to allow at least partial visibility of the ambient environment to one eye of an observer, wherein a surface of the curved mirror is substantially spherical; a lenslet array positioned adjacent to the real image plane and optically disposed at substantially one focal length away from the curved mirror , wherein the lenslet array is curved about a single axis (A); and a beamsplitter in a path of light from the real image at the lenslet array , wherein the beamsplitter is arranged to direct at least a portion of the light from the real image toward the curved mirror ; wherein the curved mirror is configured to direct light from the beamsplitter to form a virtual image for the one eye of the observer who wears the head-mounted imaging apparatus ; wherein the lenslet array includes a plurality of lenslets facing the curved mirror side of the path of light, the plurality of lenslets having respective focal points (F1), and wherein the real image plane is located along or within a substrate of the lenslet array and before the focal points (F1) of the plurality of lenslets in the path of light.
An electrically heated smoking system and a solid aerosol-forming substrate in the form of a cylindrical plug received in the electrically heated smoking system, the electrically heated smoking system comprising: at least one heater for heating the aerosol-forming substrate to form an aerosol, and a power supply for supplying power to the at least one heater, wherein the at least one heater comprises one or more electrically conductive metallic tracks comprising an electrically resistive material on an electrically insulating substrate , wherein the electrically insulating substrate comprises polyimide and is tubular, wherein the at least one heater surrounds or partially surrounds the aerosol-forming substrate .
Single-fluted deep hole drill having at least one cutting edge formed on a drill head , wherein its cutting face is concave in the radial direction over at least 75% of its width and substantially over its entire length, wherein the cutting face has a planar region of width B, which extends along the secondary cutting edge, characterised in that the cutting face also has a planar region , which extends beyond the drill central axis and from the drill central axis in the direction of the secondary cutting edge of the single-fluted drill with width A, and has a concave region , arranged between the planar regions , of width C = (D/2 - A - B) for a diameter D of the single-fluted deep hole drill , wherein C is at least 95% of D/2, and the cutting face is formed as concave up to and including the cutting edge .
Multi-lobe seal for a sealing device for sealing an opening in a wall of a fuel tank , the multi-layer wall having at least one layer of fuel barrier material and an opening in the multi-layer wall , the multi-lobe seal being fuel-impermeable and capable of being positioned in contact , at the opening in the multi-layer wall of the fuel tank , between the layer of fuel barrier material of the multi-layer wall of the fuel tank and a component , characterized in that the multi-lobe seal comprises, on the face capable of being in contact with the layer of fuel barrier material of the multi-layer wall , at least two protrusions , one of which bears on the layer of fuel barrier material of the multi-layer wall .
An undercarriage assembly comprising: a roller having a bore formed therein defining a major axis; a roller shaft extending through the bore to support the roller for rotation about the major axis ; a seal cavity extending between the roller and the roller shaft and formed in part by a first thrust surface that faces a first axial direction and is fixed relative to the roller , and a second thrust surface that faces a second axial direction opposite to the first axial direction and is fixed relative to the roller shaft ; a thrust washer stack trapped between the first thrust surface and the second thrust surface , to react thrust loads between the roller and the roller shaft ; and a dynamic seal fluidly sealing the thrust washer stack within the seal cavity , characterised in that the thrust washer stack includes a first thrust washer in contact with the first thrust surface , and a second thrust washer in contact with the first thrust washer and with the second thrust surface , and each of the first thrust washer and the second thrust washer is free to rotate about the major axis; wherein contact between the first thrust surface and the first thrust washer causes the first thrust washer to rotate with the roller and contact between the second thrust washer and the second thrust surface cause the second thrust washer to remain stationary, with the first thrust washer rotating, respectively, relative to the second thrust washer . a roller having a bore formed therein defining a major axis; a roller shaft extending through the bore to support the roller for rotation about the major axis ; a seal cavity extending between the roller and the roller shaft and formed in part by a first thrust surface that faces a first axial direction and is fixed relative to the roller , and a second thrust surface that faces a second axial direction opposite to the first axial direction and is fixed relative to the roller shaft ; a thrust washer stack trapped between the first thrust surface and the second thrust surface , to react thrust loads between the roller and the roller shaft ; and a dynamic seal fluidly sealing the thrust washer stack within the seal cavity , characterised in that the thrust washer stack includes a first thrust washer in contact with the first thrust surface , and a second thrust washer in contact with the first thrust washer and with the second thrust surface , and each of the first thrust washer and the second thrust washer is free to rotate about the major axis; wherein contact between the first thrust surface and the first thrust washer causes the first thrust washer to rotate with the roller and contact between the second thrust washer and the second thrust surface cause the second thrust washer to remain stationary, with the first thrust washer rotating, respectively, relative to the second thrust washer .
A gas turbine comprising a compressor, a rotor for rotating around a rotation axis, and an air bleeder tube , wherein the air bleeder tube is configured so that a portion of compressed air is bled from the compressor at a startup timing and discharged into an exhaust duct through the air bleeder tube , wherein a main flow (F) of combustion gas along an axial direction of the rotation axis is not obstructed by an arrangement of the air bleeder tube in that the air bleeder tube is passed through an inside of a structural element connected to a bearing for supporting the rotor , and an outlet of the air bleeder tube is arranged in an inner diameter portion of an exhaust diffuser and is directed toward the downstream of the main flow (F) of combustion gas.
An information input method, wherein the method comprises: obtaining attribute information of a page input box, wherein the page input box is located at a displayed page of a mobile application, wherein the obtained attribute information comprises a type of the page input box ; according to the attribute information, creating a native input box having the attribute information, wherein the native input box is created at a native layer of a host operating system and in a native programming language of the operating system, wherein the native input box and the page input box are the same box type ; when it is detected that the native input box is clicked by a user, providing an input keyboard corresponding to the type of the native input box , wherein the native input keyboard allows inputting, into the native input box, information of a type corresponding to the type of the native input box; determining whether inputs in the native input box are to be encrypted based on the information type of inputs allowed in the page input box; in response to determining that the inputs in the native input box are to be encrypted, encrypting information input through the native input box ; and filling the encrypted information to the page input box . obtaining attribute information of a page input box, wherein the page input box is located at a displayed page of a mobile application, wherein the obtained attribute information comprises a type of the page input box ; according to the attribute information, creating a native input box having the attribute information, wherein the native input box is created at a native layer of a host operating system and in a native programming language of the operating system, wherein the native input box and the page input box are the same box type ; when it is detected that the native input box is clicked by a user, providing an input keyboard corresponding to the type of the native input box , wherein the native input keyboard allows inputting, into the native input box, information of a type corresponding to the type of the native input box; determining whether inputs in the native input box are to be encrypted based on the information type of inputs allowed in the page input box; in response to determining that the inputs in the native input box are to be encrypted, encrypting information input through the native input box ; and filling the encrypted information to the page input box .