mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit board assembly , said assembly comprising: a printed circuit board that includes a plated thru-hole through the printed circuit board; and a component that includes a lead to interconnect the component to the printed circuit board, wherein the lead is welded to the copper barrel of the plated thru-hole of the PCB; and wherein the circuit board assembly is obtainable by: providing a printed circuit board that includes a plated thru-hole through the printed circuit board providing a lead with an opening wherein the lead is about the same size as the plated-thru hole , inserting the lead into the plated thru-hole to ensure contact between the lead and the plated thru hole, wherein at least a part of the opening of the lead is within the plated thru-hole, directing a laser beam to the tip of the lead to melt material of the lead thereby filling a gap between the lead and the plated thru-hole.. a printed circuit board that includes a plated thru-hole through the printed circuit board; and a component that includes a lead to interconnect the component to the printed circuit board, wherein the lead is welded to the copper barrel of the plated thru-hole of the PCB; and wherein the circuit board assembly is obtainable by: providing a printed circuit board that includes a plated thru-hole through the printed circuit board providing a lead with an opening wherein the lead is about the same size as the plated-thru hole , inserting the lead into the plated thru-hole to ensure contact between the lead and the plated thru hole, wherein at least a part of the opening of the lead is within the plated thru-hole, directing a laser beam to the tip of the lead to melt material of the lead thereby filling a gap between the lead and the plated thru-hole.. providing a printed circuit board that includes a plated thru-hole through the printed circuit board providing a lead with an opening wherein the lead is about the same size as the plated-thru hole , inserting the lead into the plated thru-hole to ensure contact between the lead and the plated thru hole, wherein at least a part of the opening of the lead is within the plated thru-hole, directing a laser beam to the tip of the lead to melt material of the lead thereby filling a gap between the lead and the plated thru-hole..
Device for analyzing the modes of a multi-mode fiber, comprising a multi-mode fiber , a plurality of single-mode fibers , an array of evanescently coupled waveguides and means to detect light, wherein the input of the device is a part of the multi-mode fiber , the multi-mode fiber is spliced into the plurality of single-mode fibers , the plurality of single-mode fibers are connected to a first side of the array of evanescently coupled waveguides , wherein each single-mode fiber is connected to a different waveguide , at the second side of the array the means to detect light are present to detect the light leaving the waveguides , wherein the number of waveguides is higher than the number of single-mode fibers and wherein the means to detect light are detectors, whereby each detector is assigned to a related waveguide and one detector for each waveguide is provided.
A structure comprising: multiple photonic crystals nested together, each photonic crystal comprising a dielectric layer , the dielectric layer comprising therein light-emitting nanostructure materials , wherein a first set of light-emitting nanostructure materials is positioned at a first depth level of the dielectric layer , and a second set of light-emitting nanostructure materials is positioned at a second depth level of the dielectric layer that is distinct from the first depth level , wherein the emission wavelengths differ between the first and second sets of light-emitting nanostructure materials . multiple photonic crystals nested together, each photonic crystal comprising a dielectric layer , the dielectric layer comprising therein light-emitting nanostructure materials , wherein a first set of light-emitting nanostructure materials is positioned at a first depth level of the dielectric layer , and a second set of light-emitting nanostructure materials is positioned at a second depth level of the dielectric layer that is distinct from the first depth level , wherein the emission wavelengths differ between the first and second sets of light-emitting nanostructure materials .
A microwave heating apparatus comprising: a heating furnace in which a microwave irradiator is attached to a furnace main body; a running passage formed inside the heating furnace which is configured to pass a fiber member (F) which is the object to be heated; a first tubular member which is made of a first microwave heat-generating material absorbing microwave energy and generating heat in the heating furnace ; and a second tubular member which is made of a second microwave heat-generating material absorbing microwave energy and generating heat in the first tubular member and has the running passage formed at its center portion, wherein the microwave heating apparatus is configured to heat and calcine a fiber member (F) while running the fiber member (F) in the running passage of the second tubular member , wherein the microwave heating apparatus is characterized in that the furnace main body has microwave permeability, and the first tubular member is rotatably disposed around the running passage. a heating furnace in which a microwave irradiator is attached to a furnace main body; a running passage formed inside the heating furnace which is configured to pass a fiber member (F) which is the object to be heated; a first tubular member which is made of a first microwave heat-generating material absorbing microwave energy and generating heat in the heating furnace ; and a second tubular member which is made of a second microwave heat-generating material absorbing microwave energy and generating heat in the first tubular member and has the running passage formed at its center portion, wherein the microwave heating apparatus is configured to heat and calcine a fiber member (F) while running the fiber member (F) in the running passage of the second tubular member , wherein the microwave heating apparatus is characterized in that the furnace main body has microwave permeability, and the first tubular member is rotatably disposed around the running passage.
An apparatus comprising: a band adapted to be worn on a head of a person; a strip adjustably coupled to the band ; a set of electrodes (133a- n ) coupled to the strip adapted to gather a set of signals from the head; and a magnetic fastener adapted to couple the strip to the band , the magnetic fastener including: a first housing slidably coupled to the band ; a first magnetic element coupled to the first housing ; a second housing coupled to the strip ; and a second magnetic element coupled to the second housing , the second magnetic element being adapted to magnetically couple to the first magnetic element . a band adapted to be worn on a head of a person; a strip adjustably coupled to the band ; a set of electrodes (133a- n ) coupled to the strip adapted to gather a set of signals from the head; and a magnetic fastener adapted to couple the strip to the band , the magnetic fastener including: a first housing slidably coupled to the band ; a first magnetic element coupled to the first housing ; a second housing coupled to the strip ; and a second magnetic element coupled to the second housing , the second magnetic element being adapted to magnetically couple to the first magnetic element . a first housing slidably coupled to the band ; a first magnetic element coupled to the first housing ; a second housing coupled to the strip ; and a second magnetic element coupled to the second housing , the second magnetic element being adapted to magnetically couple to the first magnetic element .
A thermoplastic polymer capable of forming an optically anisotropic melt phase (hereinafter, referred to as a thermoplastic liquid crystal polymer), the thermoplastic liquid crystal polymer comprising repeating units represented by the following formulae (I), (II), (III) and (IV), wherein a molar ratio of a total amount of the repeating units represented by formulae (I) and (II) to a total amount of all the repeating units in the thermoplastic liquid crystal polymer is 50 to 90 mol%, and a molar ratio of the repeating unit represented by formula (III) to the repeating unit represented by formula (IV) is the former/the latter = 23/77 to 77/23. -O-Ar 1 -O- (III) -O-Ar 2 -O- (IV), wherein Ar 1 and Ar 2 represent divalent aromatic groups that are different from each other. wherein a molar ratio of a total amount of the repeating units represented by formulae (I) and (II) to a total amount of all the repeating units in the thermoplastic liquid crystal polymer is 50 to 90 mol%, and a molar ratio of the repeating unit represented by formula (III) to the repeating unit represented by formula (IV) is the former/the latter = 23/77 to 77/23. -O-Ar 1 -O- (III) -O-Ar 2 -O- (IV), wherein Ar 1 and Ar 2 represent divalent aromatic groups that are different from each other.
Hopper for feeding predefined doses of beans, comprising a container for beans provided with a lower aperture with which there is associated a closing base plate provided with a passage aperture and disposed rotatable with respect to said container in order to selectively open and close an outlet aperture of a dosing device disposed inside said container , wherein said dosing device comprises a lower plate provided with said outlet aperture which, in an open position, aligns with said passage aperture , an upper plate provided with an inlet aperture and a transporter member disposed between said upper plate and said lower plate and comprising at least two rotatable blades (36; 136), which define at least two sectors with said plates , said two sectors having a pre-defined volume and being suitable to each contain a defined dose of beans, said transporter member being able to be driven in order to rotate said sectors with respect to an axis of rotation (X) so as to selectively take one of them in correspondence with said outlet aperture .
A personal service unit pod assembly configured to be positioned in the interior of an aircraft, the personal service unit pod assembly comprising: a personal service unit pod that includes: a housing that includes a lens assembly and defines a pod interior , at least a first reading light positioned within the pod interior and configured to shine light below the bottom of the housing , cabin lighting positioned in the housing and configured to shine light through the lens assembly and above the housing, and a light halo secured within the pod interior , wherein the cabin lighting is seated on the light halo ; and a panel positioned directly above and affixed to the personal service unit pod , wherein the panel includes connectors that are configured to secure the personal service unit pod assembly to a component within the aircraft. a personal service unit pod that includes: a housing that includes a lens assembly and defines a pod interior , at least a first reading light positioned within the pod interior and configured to shine light below the bottom of the housing , cabin lighting positioned in the housing and configured to shine light through the lens assembly and above the housing, and a light halo secured within the pod interior , wherein the cabin lighting is seated on the light halo ; and a housing that includes a lens assembly and defines a pod interior , at least a first reading light positioned within the pod interior and configured to shine light below the bottom of the housing , cabin lighting positioned in the housing and configured to shine light through the lens assembly and above the housing, and a light halo secured within the pod interior , wherein the cabin lighting is seated on the light halo ; and a panel positioned directly above and affixed to the personal service unit pod , wherein the panel includes connectors that are configured to secure the personal service unit pod assembly to a component within the aircraft.
Composite particles for an all-solid-state secondary battery electrode comprising an electrode active material, a binder, and an inorganic solid electrolyte, wherein the inorganic solid electrolyte is distributed more in an outer part of the composite particle than in an inner part, wherein the "inner part" of a composite particle is a region for which the distance in a radial direction of the composite particle from the center of the composite particle is not more than half of the distance in the radial direction from the center of the composite particle to the circumferential surface of the composite particle, and the "outer part" is a part positioned further outward than the inner part in the radial direction, wherein the distribution of the inorganic solid electrolyte in the composite particle is determined as described in the description, and wherein the composite particles for an all-solid-state secondary battery electrode have a volume-average particle diameter of not less than 5 μm and not more than 90 μm, and wherein the volume-average particle diameter is determined as described in the description, wherein the degree of uneven distribution of the inorganic solid electrolyte in the composite particles for an all-solid-state secondary battery electrode is 0.01 or more and is less than 0.95, wherein the "degree of uneven distribution of the inorganic solid electrolyte" indicates, in a cross-section of a composite particle, a ratio (S1/S2) of an average value S1 of the amount of the inorganic solid electrolyte contained per unit area in the inner part relative to an average value S2 of the amount of the inorganic solid electrolyte contained per unit area in the cross-section, wherein the average value of the amount of the inorganic solid electrolyte contained per unit area in a specific region is determined as defined in the description. the inorganic solid electrolyte is distributed more in an outer part of the composite particle than in an inner part, wherein the "inner part" of a composite particle is a region for which the distance in a radial direction of the composite particle from the center of the composite particle is not more than half of the distance in the radial direction from the center of the composite particle to the circumferential surface of the composite particle, and the "outer part" is a part positioned further outward than the inner part in the radial direction, wherein the distribution of the inorganic solid electrolyte in the composite particle is determined as described in the description, and wherein the composite particles for an all-solid-state secondary battery electrode have a volume-average particle diameter of not less than 5 μm and not more than 90 μm, and wherein the volume-average particle diameter is determined as described in the description, wherein the degree of uneven distribution of the inorganic solid electrolyte in the composite particles for an all-solid-state secondary battery electrode is 0.01 or more and is less than 0.95,
A thrust bearing , comprising: a thrust runner having a circular plate shape, the thrust runner adapted to be coupled to a shaft of a turbo compressor, which rotatably supports an impeller and through which the shaft passes; a bump foil assembly provided with a bearing plate placed respectively at both sides of a plate surface of the thrust runner , a plurality of bump foils mounted onto the bearing plate , and a top foil placed between the bump foil and the thrust runner and configured to cover the bump foil , and a bearing housing supporting the thrust bearing , the bearing housing is mounted onto a surface opposite to a surface of the bearing plate , onto which the bump foil is provided; and wherein the thrust runner has a shape that is deformed by a force applied to the thrust runner when the shaft rotates, and is deformed into a shape in which the thrust runner becomes farther away from the foil assembly as the thrust runner becomes farther away from the shaft , at least one of the bearing plate , the bump foil , and the top foil includes a structure that follows a change in shape of the thrust runner , and the bearing housing has a shape with gradually increasing thickness from a portion where a deformation amount of the thrust runner that is deformed when the shaft rotates is relatively small towards a portion where a deformation amount of the thrust runner is relatively large. a thrust runner having a circular plate shape, the thrust runner adapted to be coupled to a shaft of a turbo compressor, which rotatably supports an impeller and through which the shaft passes; a bump foil assembly provided with a bearing plate placed respectively at both sides of a plate surface of the thrust runner , a plurality of bump foils mounted onto the bearing plate , and a top foil placed between the bump foil and the thrust runner and configured to cover the bump foil , and a bearing housing supporting the thrust bearing , the bearing housing is mounted onto a surface opposite to a surface of the bearing plate , onto which the bump foil is provided; and wherein the thrust runner has a shape that is deformed by a force applied to the thrust runner when the shaft rotates, and is deformed into a shape in which the thrust runner becomes farther away from the foil assembly as the thrust runner becomes farther away from the shaft , at least one of the bearing plate , the bump foil , and the top foil includes a structure that follows a change in shape of the thrust runner , and the bearing housing has a shape with gradually increasing thickness from a portion where a deformation amount of the thrust runner that is deformed when the shaft rotates is relatively small towards a portion where a deformation amount of the thrust runner is relatively large.
A system configured to determine a list of products in response to a client request received from a client device during a request/response session, said client request comprising one or more request parameters, said system comprising a product estimator configured to determine a list of main products, said list of main products comprising one or more main products matching said client request, the system further comprising an auxiliary product estimator configured to determine, in response to the client request, an occurrence frequency and an auxiliary product value information, for each auxiliary product set in a list of auxiliary product sets comprising at least one auxiliary product set, from a tree data structure representing historical data related to sets of auxiliary products, said tree data structure comprising nodes, the system being configured to further output a list of candidate auxiliary products for each main product determined in response to the client request using the occurrence frequency and the auxiliary product information value determined for each auxiliary product set, wherein the system further comprises a auxiliary product learning engine configured to collect learning meta data during an predefined learning period, the system further comprising a tree manager for managing the tree data structure using the collected learning-metadata, wherein the tree data structure comprises a root node and a plurality of levels, each level of the tree data structure corresponding to a parameter derived from one or more request parameters, each node of a given level of the tree data structure comprising a node value representing a value of the parameter corresponding to said level, said value being assigned to the request parameter in said one or more previous request/response sessions over said time period, the last level of each branch of the tree comprising leaf nodes, each leaf node corresponding to a given auxiliary product set.
A tracking system for tracking the position and/or orientation of an object in an environment (E), the tracking system including: a) a body attachable to the object , the body having a camera array including a plurality of spaced apart cameras each having a field of view with a central axis, with the central axis of adjacent spaced apart cameras being divergently spaced by a predetermined fixed angle; b) a plurality of spaced apart targets , at least some of said targets viewable by the at least one camera of the camera array , wherein the fields of view of adjacent cameras are at least partially overlapping so that at least some cameras can each view one or more common targets ; and, c) one or more electronic processing devices configured to: i) determine target position data indicative of the relative spatial position of the targets ; ii) receive image data indicative of an image from the at least one camera, said image including at least some of the targets ; iii) process the image data to: identify one or more targets in the image; determine pixel array coordinates corresponding to a position of the one or more targets in the image; iv) use the processed image data to determine the position and/or orientation of the object by triangulation; and, d) characterised in that the object is a robotic arm. a) a body attachable to the object , the body having a camera array including a plurality of spaced apart cameras each having a field of view with a central axis, with the central axis of adjacent spaced apart cameras being divergently spaced by a predetermined fixed angle; b) a plurality of spaced apart targets , at least some of said targets viewable by the at least one camera of the camera array , wherein the fields of view of adjacent cameras are at least partially overlapping so that at least some cameras can each view one or more common targets ; and, c) one or more electronic processing devices configured to: i) determine target position data indicative of the relative spatial position of the targets ; ii) receive image data indicative of an image from the at least one camera, said image including at least some of the targets ; iii) process the image data to: identify one or more targets in the image; determine pixel array coordinates corresponding to a position of the one or more targets in the image; iv) use the processed image data to determine the position and/or orientation of the object by triangulation; and, i) determine target position data indicative of the relative spatial position of the targets ; ii) receive image data indicative of an image from the at least one camera, said image including at least some of the targets ; iii) process the image data to: identify one or more targets in the image; determine pixel array coordinates corresponding to a position of the one or more targets in the image; identify one or more targets in the image; determine pixel array coordinates corresponding to a position of the one or more targets in the image; iv) use the processed image data to determine the position and/or orientation of the object by triangulation; and, d) characterised in that the object is a robotic arm.