mhurhangee/patent-ind-claim-en huggingface dataset:
A method of inspecting a joint assembly , said joint assembly comprising: a first component comprising a first bond surface ; a second component comprising a second bond surface configured to couple to said first bond surface ; and a layer of adhesive positioned between said first and second bond surfaces such that a first bond line is defined between said layer and said first bond surface , and such that a second bond line is defined between said layer and said second bond surface , wherein said layer of adhesive comprises a plurality of contrast particles that are adapted to diffuse across at least one of said first and second bond lines when a predetermined amount of heat and pressure is applied to said first and second components , said method comprising: evaluating the joint assembly via a non-destructive inspection technique; obtaining an image of the joint assembly ; and verifying bond formation between components in the joint assembly based on a location of contrast particles in the image, by verifying that said plurality of contrast particles have diffused across said at least one of said first and second bond lines . a first component comprising a first bond surface ; a second component comprising a second bond surface configured to couple to said first bond surface ; and a layer of adhesive positioned between said first and second bond surfaces such that a first bond line is defined between said layer and said first bond surface , and such that a second bond line is defined between said layer and said second bond surface , wherein said layer of adhesive comprises a plurality of contrast particles that are adapted to diffuse across at least one of said first and second bond lines when a predetermined amount of heat and pressure is applied to said first and second components , said method comprising: evaluating the joint assembly via a non-destructive inspection technique; obtaining an image of the joint assembly ; and verifying bond formation between components in the joint assembly based on a location of contrast particles in the image, by verifying that said plurality of contrast particles have diffused across said at least one of said first and second bond lines . evaluating the joint assembly via a non-destructive inspection technique; obtaining an image of the joint assembly ; and verifying bond formation between components in the joint assembly based on a location of contrast particles in the image, by verifying that said plurality of contrast particles have diffused across said at least one of said first and second bond lines .
A method comprising: receiving, by a wireless device, radio resource control, RRC, messages comprising configuration parameters comprising: a first physical downlink shared channel, PDSCH, time domain allocation list associated with a first downlink control information, DCI, format for scheduling a PDSCH in a slot; and a second PDSCH time domain allocation list associated with a second DCI format for scheduling multiple PDSCHs in multiple slots; receiving a first DCI with the second DCI format indicating a first entry of the second PDSCH time domain allocation list; and receiving transport blocks, TBs, in first slots and via PDSCH resources, determined based on the first entry, wherein each of the TBs is associated with a respective hybrid automatic repeat request process. receiving, by a wireless device, radio resource control, RRC, messages comprising configuration parameters comprising: a first physical downlink shared channel, PDSCH, time domain allocation list associated with a first downlink control information, DCI, format for scheduling a PDSCH in a slot; and a second PDSCH time domain allocation list associated with a second DCI format for scheduling multiple PDSCHs in multiple slots; a first physical downlink shared channel, PDSCH, time domain allocation list associated with a first downlink control information, DCI, format for scheduling a PDSCH in a slot; and a second PDSCH time domain allocation list associated with a second DCI format for scheduling multiple PDSCHs in multiple slots; receiving a first DCI with the second DCI format indicating a first entry of the second PDSCH time domain allocation list; and receiving transport blocks, TBs, in first slots and via PDSCH resources, determined based on the first entry, wherein each of the TBs is associated with a respective hybrid automatic repeat request process.
A retrofit LED light panel for use with a ceiling mounted light fixture, comprising: a border frame that substantially approximates a size and shape of an opening of a light fixture housing of the light fixture; an open channel disposed on a backside of the border frame generally about a perimeter thereof; and an anchor assembly and a retainer assembly attached to the backside of the border frame , characterized in that the anchor assembly is slidingly disposed in the open channel ; wherein the anchor assembly is configured to attach to the light fixture housing proximate to the opening thereof and maintain at least part of the retrofit LED light panel within a predetermined anchor distance from the light fixture housing; and the retainer assembly is slidingly disposed in the open channel , wherein the retainer assembly is configured to selectively retain the retrofit LED light panel within the opening of the light fixture housing. a border frame that substantially approximates a size and shape of an opening of a light fixture housing of the light fixture; an open channel disposed on a backside of the border frame generally about a perimeter thereof; and an anchor assembly and a retainer assembly attached to the backside of the border frame , characterized in that the anchor assembly is slidingly disposed in the open channel ; wherein the anchor assembly is configured to attach to the light fixture housing proximate to the opening thereof and maintain at least part of the retrofit LED light panel within a predetermined anchor distance from the light fixture housing; and the retainer assembly is slidingly disposed in the open channel , wherein the retainer assembly is configured to selectively retain the retrofit LED light panel within the opening of the light fixture housing.
A compound represented by the following general formula : wherein in the general formula , Ar 1 represents an unsubstituted aryl group, Ar 2 and Ar 3 are the same as each other and represent an aryl group substituted with a group represented by the following general formula : wherein in the general formula , R 1 to R 8 each independently represent a hydrogen atom or a substituent; Z represents O, S, R 9 -N, (R 10 ) (R 11 ) C, or (R 12 ) (R 13 ) Si; and R 9 to R 13 each independently represent a hydrogen atom or a substituent, provided that R 1 and R 2 , R 2 and R 3 , R 3 and R 4 , R 5 and R 6 , R 6 and R 7 , and R 7 and R 8 each may be bonded to each other to form a cyclic structure.
A connection between a rim portion and a face portion of a composite vehicle wheel , the rim portion comprising a first set of fibres and a face portion of the composite wheel comprising a second set of fibres , characterised in that the connection comprises a transition zone in which the first set of fibres and the second set of fibres are arranged in a layered structure, wherein each layer of the layer structure includes a first section including an arrangement of the first set of fibres , and a first connection end , and a second section including an arrangement of the second set of fibres , and a second connection end , the first connection end being arranged adjacent to or abutting the second connection end forming a layer joint , the layer joint of each adjoining layer being spaced apart in a stepped configuration.
An optical fiber cable comprising: - a plurality of optical fibers and - at least one tubular jacketing element surrounding the plurality of optical fibers , wherein the jacketing element comprises a jacketing material containing at least the following ingredients mixed with one another: - a first ingredient (A) being a thermoplastic polymer , - a second ingredient (B) being an intumescent material capable of releasing gas, under the influence of heat, for generating a foam, and - a third ingredient (C) being a stiffening agent capable of decomposing, under the influence of heat, with formation of a glass and/or of a ceramic material for stiffening the foam, characterized in that the content of stiffening agent in the jacketing material is between 1% and 10% by weight and in that the stiffening agent is an organo-silicon-compound containing silicon or the stiffening agent is an organo-phosphorous compound for forming a phosphorus-containing glass and/or ceramic when decomposing. - a plurality of optical fibers and - at least one tubular jacketing element surrounding the plurality of optical fibers , wherein the jacketing element comprises a jacketing material containing at least the following ingredients mixed with one another: - a first ingredient (A) being a thermoplastic polymer , - a second ingredient (B) being an intumescent material capable of releasing gas, under the influence of heat, for generating a foam, and - a third ingredient (C) being a stiffening agent capable of decomposing, under the influence of heat, with formation of a glass and/or of a ceramic material for stiffening the foam, characterized in that the content of stiffening agent in the jacketing material is between 1% and 10% by weight and in that the stiffening agent is an organo-silicon-compound containing silicon or the stiffening agent is an organo-phosphorous compound for forming a phosphorus-containing glass and/or ceramic when decomposing.
A working light for working machines, the working light comprising - at least one light source - an optical vertical axis y and a horizontal axis x wherein the optical axis y and the horizontal axis x intersect each perpendicularly - at least one primary reflector element further comprising a lower edge , a first focus above the horizontal axis x and a second focus below the horizontal axis x - at least one secondary reflector element further comprising a secondary focus , wherein - the at least one light source is located on the first focus of the at least one primary reflector element - the at least one secondary reflector element is placed so that its secondary focus is located on the same point with the second focus of the at least one primary reflector element below the horizontal axis x - the at least one primary reflector element is arranged to reflect light beams emitting from the at least one light source via the second focus to the at least one secondary reflector element , characterized in that - the lower edge of the at least one primary reflector element is arranged to prevent the light beams emitting from the at least one light source to reach an area above the horizontal axis x , and - at least one secondary reflector element is arranged to form a horizontally spreading light distribution for the light beams so that the most of the light beams remain below the horizontal axis x . - at least one light source - an optical vertical axis y and a horizontal axis x wherein the optical axis y and the horizontal axis x intersect each perpendicularly - at least one primary reflector element further comprising a lower edge , a first focus above the horizontal axis x and a second focus below the horizontal axis x - at least one secondary reflector element further comprising a secondary focus , wherein - the at least one light source is located on the first focus of the at least one primary reflector element - the at least one secondary reflector element is placed so that its secondary focus is located on the same point with the second focus of the at least one primary reflector element below the horizontal axis x - the at least one primary reflector element is arranged to reflect light beams emitting from the at least one light source via the second focus to the at least one secondary reflector element , characterized in that - the lower edge of the at least one primary reflector element is arranged to prevent the light beams emitting from the at least one light source to reach an area above the horizontal axis x , and - at least one secondary reflector element is arranged to form a horizontally spreading light distribution for the light beams so that the most of the light beams remain below the horizontal axis x .
A substance detection method comprising: sensing for liquid in a chamber of a substance detection device , the substance detection device comprising a detection structure disposed within the chamber ; when liquid is sensed in the chamber , sensing again for liquid in the chamber ; when no liquid is sensed in the chamber , initiating a substance detection process so as to identify a substance of interest that was carried into the chamber with the liquid. sensing for liquid in a chamber of a substance detection device , the substance detection device comprising a detection structure disposed within the chamber ; when liquid is sensed in the chamber , sensing again for liquid in the chamber ; when no liquid is sensed in the chamber , initiating a substance detection process so as to identify a substance of interest that was carried into the chamber with the liquid.
Splitter unit for use in a lighting system , characterized in that the splitter unit has an input-side terminal for connection to a DALI bus and at least two output-side terminals , wherein the splitter unit is designed to assign DALI commands received via the input-side terminal to the output-side terminals depending upon the address information assigned to the received DALI command, and to output the corresponding DALI command as a broadcast command via the corresponding output-side terminal , wherein the splitter unit is designed to respectively assign a DALI address to each output-side terminal .
A magnetic torque coupler , comprising an outer rotor and an inner rotor , the outer rotor including one or more outer magnets , the inner rotor including one or more inner magnets , each outer magnet having inner and outer radial faces that are concentric with each other, each inner magnet having inner and outer radial faces that are concentric with each other, each outer magnet including sintered grains that have magnetic easy directions that are patterned to focus magnetic flux toward a central region of a corresponding inner magnet , each inner magnet including sintered grains that have magnetic easy directions that are patterned to focus magnetic flux toward a central region of a corresponding outer magnet , and the outer rotor magnetically coupling to the inner rotor to transfer torque about a central axis (L4) of the outer rotor and the inner rotor . the outer rotor including one or more outer magnets , the inner rotor including one or more inner magnets , each outer magnet having inner and outer radial faces that are concentric with each other, each inner magnet having inner and outer radial faces that are concentric with each other, each outer magnet including sintered grains that have magnetic easy directions that are patterned to focus magnetic flux toward a central region of a corresponding inner magnet , each inner magnet including sintered grains that have magnetic easy directions that are patterned to focus magnetic flux toward a central region of a corresponding outer magnet , and the outer rotor magnetically coupling to the inner rotor to transfer torque about a central axis (L4) of the outer rotor and the inner rotor .
A method for dynamic encryption and signing, the method being applied to a terminal and comprising: generating a series of keys and a series of signatures from native data; selecting , during session connection, a first key index which is predetermined and a first signature index which is random; locating a first key and a first signature from the series of keys and the series of signatures according to the first key index and the first signature index; signing session request data with the first signature, and encrypting the session request data with the first key and sending the encrypted session request data to a server; and receiving , from the server, session response data signed with a second signature which corresponds to a randomly selected signature index and encrypted with a second key which corresponds to a randomly selected key index, after decryption and signature verification by the server over the session request data succeed. generating a series of keys and a series of signatures from native data; selecting , during session connection, a first key index which is predetermined and a first signature index which is random; locating a first key and a first signature from the series of keys and the series of signatures according to the first key index and the first signature index; signing session request data with the first signature, and encrypting the session request data with the first key and sending the encrypted session request data to a server; and receiving , from the server, session response data signed with a second signature which corresponds to a randomly selected signature index and encrypted with a second key which corresponds to a randomly selected key index, after decryption and signature verification by the server over the session request data succeed.
Fuel system (1, 1a, 1.1) for installation in a hydrogen-powered vehicle and for one or more hydrogen pressure tanks designed for a high pressure level of at least 200 bar, comprising a connection for an input line , a connection for an output line and at least the following internal components: a pressure reducer , a gas filter , a shut-off valve , a vent valve , an overpressure safety valve and a pressure sensor ; wherein the pressure reducer is designed such that it can reduce the pressure of the hydrogen from the high pressure level from the pressure tank to a medium pressure level of between 3 bar and 30 bar by way of the pressure reducer being designed as a two-stage pressure reducer, wherein the first stage reduces the pressure from the pressure tank to an intermediate level of between 40 and 80 bar and the second stage further reduces the pressure to the medium pressure level, and wherein the internal components and gas lines, which connect these internal components to each other, are arranged in an integral and self-supporting unit (2, 2a, 2.1). a pressure reducer , a gas filter , a shut-off valve , a vent valve , an overpressure safety valve and a pressure sensor ; wherein the pressure reducer is designed such that it can reduce the pressure of the hydrogen from the high pressure level from the pressure tank to a medium pressure level of between 3 bar and 30 bar by way of the pressure reducer being designed as a two-stage pressure reducer, wherein the first stage reduces the pressure from the pressure tank to an intermediate level of between 40 and 80 bar and the second stage further reduces the pressure to the medium pressure level, and wherein the internal components and gas lines, which connect these internal components to each other, are arranged in an integral and self-supporting unit (2, 2a, 2.1).
A shaving unit for a shaving apparatus , the shaving unit comprising: - a housing ; - at least one cutting unit accommodated and supported by the housing and comprising an external cutting member having a plurality of hair-entry openings and an internal cutting member which is rotatable relative to the external cutting member about a cutting member axis (A1, A2); - a main input spindle which is rotatable about a main axis (AM) and which is coupled to each cutting unit to rotationally drive the internal cutting member thereof; and - an adjustment system configured to adjust at least one operational parameter of the shaving unit ; characterized in that the adjustment system comprises: - an adjustment input drive member which is arranged to be rotational about an adjustment member axis (D1, D2) and drivable by the main input spindle ; - a unidirectional rotational coupling member arranged to provide a coupled condition of the main input spindle relative to the adjustment input drive member , when the main input spindle rotates in a first direction about the main axis (AM), such that the adjustment input drive member is driven by the main input spindle , and to provide a decoupled condition of the main input spindle relative to the adjustment input drive member , when the main input spindle rotates in a second direction about the main axis (AM) opposite to the first direction, such that the main input spindle is prevented from driving the adjustment input drive member . - a housing ; - at least one cutting unit accommodated and supported by the housing and comprising an external cutting member having a plurality of hair-entry openings and an internal cutting member which is rotatable relative to the external cutting member about a cutting member axis (A1, A2); - a main input spindle which is rotatable about a main axis (AM) and which is coupled to each cutting unit to rotationally drive the internal cutting member thereof; and - an adjustment system configured to adjust at least one operational parameter of the shaving unit ; - an adjustment input drive member which is arranged to be rotational about an adjustment member axis (D1, D2) and drivable by the main input spindle ; - a unidirectional rotational coupling member arranged to provide a coupled condition of the main input spindle relative to the adjustment input drive member , when the main input spindle rotates in a first direction about the main axis (AM), such that the adjustment input drive member is driven by the main input spindle , and to provide a decoupled condition of the main input spindle relative to the adjustment input drive member , when the main input spindle rotates in a second direction about the main axis (AM) opposite to the first direction, such that the main input spindle is prevented from driving the adjustment input drive member .