mhurhangee/patent-ind-claim-en huggingface dataset:
A system for the detection of foreign object debris materials or defects on and/or under a surface, comprising: a composite layup machine configured to form a composite part , the composite layup machine having a first gantry a head mounted on the first gantry and configured to move over the composite part during formation thereof; a member configured to move separately from the first gantry over an outer ply of the composite part, wherein the member comprises a second gantry ; a support frame , wherein the first gantry and the second gantry are mounted to the support frame; a thermal excitation source fixed to the member and configured to direct infrared radiation across the outer ply of the composite part, wherein the thermal excitation source is mounted to the second gantry; an infrared camera fixed to the member a predetermined distance away from the thermal excitation source and configured to scan the outer ply of the composite part as the member moves over the outer ply of the composite part to detect and output scan information of the outer ply of the composite part, wherein the infrared camera is mounted to the second gantry ; and a controller coupled to the thermal excitation source and to the infrared camera , the controller configured to process the scan information from the infrared camera to identify a foreign object debris material or defect located on and/or under the outer ply of the composite part. a composite layup machine configured to form a composite part , the composite layup machine having a first gantry a head mounted on the first gantry and configured to move over the composite part during formation thereof; a member configured to move separately from the first gantry over an outer ply of the composite part, wherein the member comprises a second gantry ; a support frame , wherein the first gantry and the second gantry are mounted to the support frame; a thermal excitation source fixed to the member and configured to direct infrared radiation across the outer ply of the composite part, wherein the thermal excitation source is mounted to the second gantry; an infrared camera fixed to the member a predetermined distance away from the thermal excitation source and configured to scan the outer ply of the composite part as the member moves over the outer ply of the composite part to detect and output scan information of the outer ply of the composite part, wherein the infrared camera is mounted to the second gantry ; and a controller coupled to the thermal excitation source and to the infrared camera , the controller configured to process the scan information from the infrared camera to identify a foreign object debris material or defect located on and/or under the outer ply of the composite part.
An electrochemical cell, comprising: a first electrode comprising lithium as an electroactive material; a second electrode; and a composite positioned between the first and second electrodes, the composite comprising: a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O : S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator. a first electrode comprising lithium as an electroactive material; a second electrode; and a composite positioned between the first and second electrodes, the composite comprising: a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O : S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator. a separator comprising pores having an average pore size, wherein the separator has a bulk electronic resistivity of at least about 10 4 Ω*m; and an ion conductor layer bonded to the separator, said ion conductor layer being a solvent barrier between a liquid electrolyte and said electroactive material; wherein the ion conductor layer has a lithium-ion conductivity of at least 10 -6 S/cm; wherein the ion conductor layer comprises a lithium oxysulfide having an atomic ratio of oxygen atoms to sulfur atoms (O : S) in the range of from 0.01 to 0.25; and wherein the composite is formed by subjecting a surface of the separator to a plasma prior to depositing the ion conductor layer on the surface of the separator.
An alpha-beta titanium alloy comprising, in weight percentages: up to 0.5 oxygen; 2.0 to 7.0 aluminum; a molybdenum equivalency in the range of 2.0 to 5.0, wherein the molybdenum equivalent [Mo] eq = [Mo] + 2/3[V] + 3[Mn +Fe + Ni + Cr + Cu + Be] + 1/3[Ta + Nb + W]; 0.3 to 4.0 cobalt; optionally, a grain refinement additive, wherein the grain refinement additive is one or more of cerium, praseodymium, neodymium, samarium, gadolinium, holmium, erbium, thulium, yttrium, scandium, beryllium, and boron, in a total concentration that is greater than 0 up to 0.3; optionally, a corrosion inhibiting additive, wherein the corrosion inhibiting additive is one or more of gold, silver, palladium, platinum, nickel, and iridium, in a total concentration that is greater than 0 up to 0.5; optionally, greater than 0 to 6 tin; optionally, greater than 0 to 0.6 silicon; optionally, up to 0.25 nitrogen; optionally, up to 0.3 carbon; and balance titanium; and up to 0.4 of incidental impurities. up to 0.5 oxygen; 2.0 to 7.0 aluminum; a molybdenum equivalency in the range of 2.0 to 5.0, wherein the molybdenum equivalent [Mo] eq = [Mo] + 2/3[V] + 3[Mn +Fe + Ni + Cr + Cu + Be] + 1/3[Ta + Nb + W]; 0.3 to 4.0 cobalt; optionally, a grain refinement additive, wherein the grain refinement additive is one or more of cerium, praseodymium, neodymium, samarium, gadolinium, holmium, erbium, thulium, yttrium, scandium, beryllium, and boron, in a total concentration that is greater than 0 up to 0.3; optionally, a corrosion inhibiting additive, wherein the corrosion inhibiting additive is one or more of gold, silver, palladium, platinum, nickel, and iridium, in a total concentration that is greater than 0 up to 0.5; optionally, greater than 0 to 6 tin; optionally, greater than 0 to 0.6 silicon; optionally, up to 0.25 nitrogen; optionally, up to 0.3 carbon; and balance titanium; and up to 0.4 of incidental impurities.
Bluetooth low energy proximity lock system, comprising: a host electronic device comprising a computer processor; a peripheral electronic device , comprising a keyboard, interfacing with the host electronic device and comprising: a controller; and a first Bluetooth low energy component ; and a user device comprising a second Bluetooth low energy component ; wherein the controller is configured to: using the first Bluetooth low energy component , identify the second Bluetooth low energy component ; determine a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component ; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device ; and send one or more keyboard commands to the host electronic device to unlock the host electronic device , if the host electronic device is locked and the user device is sensed to be within a certain distance. a host electronic device comprising a computer processor; a peripheral electronic device , comprising a keyboard, interfacing with the host electronic device and comprising: a controller; and a first Bluetooth low energy component ; and a controller; and a first Bluetooth low energy component ; and a user device comprising a second Bluetooth low energy component ; wherein the controller is configured to: using the first Bluetooth low energy component , identify the second Bluetooth low energy component ; determine a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component ; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device ; and send one or more keyboard commands to the host electronic device to unlock the host electronic device , if the host electronic device is locked and the user device is sensed to be within a certain distance. using the first Bluetooth low energy component , identify the second Bluetooth low energy component ; determine a radio signal strength between the first Bluetooth low energy component and the second Bluetooth low energy component ; generate a keyboard command that renders the host electronic device temporarily inoperable in response to the radio signal strength being below a predetermined threshold, wherein the keyboard command causes the host electronic device to lock the host electronic device ; and send one or more keyboard commands to the host electronic device to unlock the host electronic device , if the host electronic device is locked and the user device is sensed to be within a certain distance.
A method of production of a solid nitrile group-containing copolymer rubber containing α,β-ethylenically unsaturated nitrile monomer units in 10 to 60 wt% and diene monomer units and/or α-olefin monomer units in 40 to 90 wt%, having an iodine value of 120 or less, as measured in accordance with JIS K 6235, and having a weight average radius of gyration of 20 to 80 nm in range, wherein the method comprises: adding a part of a molecular weight adjuster which is used for a polymerization to a polymerization system at the time of start of polymerization, polymerizing monomers containing an α,β-ethylenically unsaturated nitrile monomer and a diene monomer and/or α-olefin monomer in the presence of the molecular weight adjuster; and additionally adding the molecular weight adjuster divided into a plurality of batches at a stage when a polymerization conversion rate becomes 10 to 80%. adding a part of a molecular weight adjuster which is used for a polymerization to a polymerization system at the time of start of polymerization, polymerizing monomers containing an α,β-ethylenically unsaturated nitrile monomer and a diene monomer and/or α-olefin monomer in the presence of the molecular weight adjuster; and additionally adding the molecular weight adjuster divided into a plurality of batches at a stage when a polymerization conversion rate becomes 10 to 80%.
A chain lock having at least one securing part and a chain which is permanently fastened to the securing part at one end, wherein the chain has a chain end link having a fastening mandrel ; wherein an introduction section of the fastening mandrel is inserted into a reception opening of the securing part ; wherein the introduction section of the fastening mandrel has a prolongation having a non-circular cross-section at its end; wherein the prolongation of the fastening mandrel has a different cross-section than the introduction section of the fastening mandrel ; and wherein the reception opening of the securing part has a reception section in which the prolongation of the fastening mandrel is received in an at least substantially shape-matched manner.
A method for preparing a polymeric vesicle, the method comprising the step of self-crosslinking a biodegradable amphiphilic polymer, wherein the chemical structure of the biodegradable amphiphilic polymer is one of the following structures: wherein R1 is selected from one of the following groups: R2 is selected from one of the following groups: wherein k ranges from 43 to 170, x ranges from 10 to 30, y ranges from 40 to 200, m ranges from 86 to 340.
A thermoplastic composition comprising: a homopolycarbonate; a poly(carbonate siloxane) component present in an amount effective to provide 0.5-20 wt% total siloxane content, based on the total weight of the thermoplastic composition; an antimicrobial agent comprising silver zirconium phosphate, silver phosphate glass, or a combination thereof; and, optionally, an additive composition. a homopolycarbonate; a poly(carbonate siloxane) component present in an amount effective to provide 0.5-20 wt% total siloxane content, based on the total weight of the thermoplastic composition; an antimicrobial agent comprising silver zirconium phosphate, silver phosphate glass, or a combination thereof; and, optionally, an additive composition.
A device for thermally triggering, disconnecting, and/or signaling the state of a surge protection device, comprising: - a locking element (A1) on which a first force (F1) acts and which changes its state of aggregation and/or its outer shape when a limit temperature is exceeded; - a slider (S1) which, in a first state (Z1), is blocked by the locking element (A1) and on which a second force (F2) acts in order to transfer the slider to a second state (Z2) when the locking element (A1) has changed its state of aggregation and/or its outer shape, wherein a latching retaining means (H1) is provided, which is connected with the slider (S1) and by which the locking element (A1) indirectly blocks the slider, and by which the second force (F2), broken down into a partial force component, acts on the locking element (A1) in a clamping manner, and furthermore the latching retaining means (H1) includes at least two jaws (B; BF) which, in the first state (Z1), are supported against the locking element (A1) and against a surrounding area (G) of the slider (S1), the first force (F1) corresponding to the partial force component, at least one of the jaws (B) being designed to be elastic and resilient. - a locking element (A1) on which a first force (F1) acts and which changes its state of aggregation and/or its outer shape when a limit temperature is exceeded; - a slider (S1) which, in a first state (Z1), is blocked by the locking element (A1) and on which a second force (F2) acts in order to transfer the slider to a second state (Z2) when the locking element (A1) has changed its state of aggregation and/or its outer shape, wherein
A compound of formula: or wherein Ar is an optionally substituted aromatic or heteroaromatic group or conjugated group; k is 0 and the structure has a direct bond between the thiophene and pyrrole group; each Y is independently H, halo, trialkylsilane, optionally substituted C 1 -C 40 alkyl, optionally substituted aralkyl, alkoxy, alkylthio, optionally substituted C 2 -C 40 alkenyl, optionally substituted C 2 -C 40 alkynyl, aminocarbonyl, acylamino, acyloxy, aryl, aryloxy, optionally substituted amino, carboxyalkyl, optionally substituted cycloalkyl, optionally substituted cycloalkenyl, acyl, optionally substituted heteroaryl, optionally substituted heteroaralkyl, heteroaryloxy, optionally substituted heterocyclyl, thiol, alkylthio, heteroarylthiol, optionally substituted sulfoxide, optionally substituted sulfone, OSO-alkyl, Mg-halo, Zn-halo, Sn(alkyl) 3 , SnH 3 , B(OH) 2 , B(alkoxy) 2 , or OTs; each R, R 2 , and R 3 is independently H, halo, optionally substituted C 1 -C 20 alkyl, optionally substituted aralkyl, alkoxy, alkylthio, optionally substituted C 2 -C 20 alkenyl, optionally substituted C 2 -C 20 alkynyl, optionally substituted cycloalkyl, optionally substituted cycloalkenyl, optionally substituted heterocyclyl, or an optionally substituted aryl or optionally substituted heteroaryl from the group consisting of phenyl, thiophenyl, furanyl, pyrrolyl, imidazolyl, triazolyl, oxaxolyl, thiazolyl, pyridinyl, pyrimidinyl, triazinyl, naphthalenyl, isoquinolinyl, quinolinyl, or naphthyridinyl; and at least one or more of R, R 2 , or R 3 is independently an optionally substituted C 1 -C 20 alkyl.
A tank support assembly (34; 334) for retaining Self-Contained Breathing Apparatus (SCBA) tanks in a cab of an emergency vehicle, the tank support assembly (34; 334) comprising: a main support (120; 420) configured to be secured within the cab of the emergency vehicle; and a tank securing device (140; 440) with a first tank securement (144; 444) configured to engage SCBA tanks of a first diameter and a second tank securement (146; 446) configured to engage SCBA tanks of a second diameter separately from the first tank securement (144; 444); the tank securing device (140; 440) being configured to be selectively rotated to a first orientation and a second orientation; the first orientation of the tank securing device (140; 440) disposing the first tank securement (144; 444) to secure a SCBA tank of the first diameter relative to the main support (120; 420); and the second orientation of the tank securing device (140; 440) disposing the second tank securement (146; 446) to secure a SCBA tank of the second diameter relative to the main support (120; 420). a main support (120; 420) configured to be secured within the cab of the emergency vehicle; and a tank securing device (140; 440) with a first tank securement (144; 444) configured to engage SCBA tanks of a first diameter and a second tank securement (146; 446) configured to engage SCBA tanks of a second diameter separately from the first tank securement (144; 444); the tank securing device (140; 440) being configured to be selectively rotated to a first orientation and a second orientation; the first orientation of the tank securing device (140; 440) disposing the first tank securement (144; 444) to secure a SCBA tank of the first diameter relative to the main support (120; 420); and the second orientation of the tank securing device (140; 440) disposing the second tank securement (146; 446) to secure a SCBA tank of the second diameter relative to the main support (120; 420).
A method by a transmitting user equipment, UE, for controlling radio resources used for a data transmission, the method comprising: determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; characterised in that wherein determining the allocated bandwidth is performed before determining the transmission bandwidth; and wherein determining the transmission bandwidth comprises determining the transmission bandwidth based on a supported Discrete Fourier Transform size. determining an allocated bandwidth; determining a transmission bandwidth for the data transmission; and transmitting towards a receiving UE a scheduling assignment that indicates a number or a set of subchannels within the allocated bandwidth; characterised in that wherein determining the allocated bandwidth is performed before determining the transmission bandwidth; and wherein determining the transmission bandwidth comprises determining the transmission bandwidth based on a supported Discrete Fourier Transform size.
A method for measuring hydraulic conductivity associated with cells, the method comprising: moving a fluid through a first microchannel of a microfluidic device , the microfluidic device including a second microchannel and a barrier located at an interface region between the first microchannel and the second microchannel , the barrier including a first side facing toward the first microchannel and having the cells adhered thereto; characterised by that the method further comprises the steps of measuring a first flow rate of the fluid that exits the first microchannel ; measuring a second flow rate of the fluid that migrates through the cell layer and the barrier and exits the second microchannel ; determining the hydraulic conductivity of the cells based on at least one of the first flow rate and the second flow rate of the fluids. measuring a first flow rate of the fluid that exits the first microchannel ; measuring a second flow rate of the fluid that migrates through the cell layer and the barrier and exits the second microchannel ; determining the hydraulic conductivity of the cells based on at least one of the first flow rate and the second flow rate of the fluids.
Aircraft in formation flight comprising a lead aircraft and a follower aircraft flying behind the lead aircraft, provided with a system for the acquisition of an image of the lead aircraft by the follower aircraft comprising at least one camera installed on or in the follower aircraft , a lighting device provided on the follower aircraft and oriented at least partially towards the lead aircraft and a retroreflective device of retroreflector type disposed on the lead aircraft , the retroreflective device allowing the camera to acquire the image of the zones marked by said device, characterized in that the retroreflective device comprises at least one or more retroreflectors in an oblong form or juxtaposed so as to form an oblong arrangement which, from a distance, appears in the form of a line, the retroreflective device taking the form of strips disposed on the outer surface of the lead aircraft, the strips being disposed on lines on the axes Y and Z of the cartesian reference frame of the lead aeroplane , namely on the axis Y on the wing and/or horizontal tail unit and, on the axis Z, on the vertical tail unit.
A baler comprises a flywheel and a connection , the flywheel connected by a cardan coupling to the connection , the connection being configured for connection to a PTO of a tractor, so that the flywheel may be driven by the PTO, in which the connection comprises a housing ; an input shaft to be connected to the PTO, the input shaft being mounted for rotation in a first part of the housing ; an output shaft to be connected to the cardan coupling , the output shaft being mounted for rotation in a second part of the housing ; an intermediate gear being mounted for rotation in the housing between the input shaft and the output shaft , characterised in that the intermediate gear is disposed parallel to the input shaft and adapted to drive the output shaft ; and in that the input shaft is provided with a displaceable geared collar adapted to engage the intermediate gear with either a first lower gear ratio or a second higher gear ratio. a housing ; an input shaft to be connected to the PTO, the input shaft being mounted for rotation in a first part of the housing ; an output shaft to be connected to the cardan coupling , the output shaft being mounted for rotation in a second part of the housing ; an intermediate gear being mounted for rotation in the housing between the input shaft and the output shaft , characterised in that the intermediate gear is disposed parallel to the input shaft and adapted to drive the output shaft ; and in that the input shaft is provided with a displaceable geared collar adapted to engage the intermediate gear with either a first lower gear ratio or a second higher gear ratio.