mhurhangee/patent-ind-claim-en huggingface dataset:
A lens combination , configured for accommodation at least a first light source and a second light source , wherein, the lens combination comprises: a first lens , including a first light incident surface , a first light emergent surface and a first accommodation space located on a side of the first light incident surface and configured for accommodating the first light source ; the first light incident surface and the first light emergent surface being of a curved surface shape; and a second lens , including a second light incident surface , a second light emergent surface , and a second accommodation space located on a side of the second light incident surface and configured for accommodating the second light source ; the second light incident surface and the second light emergent surface being of a curved surface shape; wherein, an emergent light obtained after an incident light emitted by a first light source passes through the first light incident surface and the first light emergent surface coincides with an emergent light obtained after an incident light emitted by the second light source passes through the second light incident surface and the second light emergent surface , characterized in that on the first light emergent surface and/or the first light incident surface of the first lens , a plurality of flanges parallel to each other are provided on an outer surface of the first light emergent surface or an inner surface of the first light incident surface , and are arranged at intervals in an extending direction of the lens . a first lens , including a first light incident surface , a first light emergent surface and a first accommodation space located on a side of the first light incident surface and configured for accommodating the first light source ; the first light incident surface and the first light emergent surface being of a curved surface shape; and a second lens , including a second light incident surface , a second light emergent surface , and a second accommodation space located on a side of the second light incident surface and configured for accommodating the second light source ; the second light incident surface and the second light emergent surface being of a curved surface shape; wherein, an emergent light obtained after an incident light emitted by a first light source passes through the first light incident surface and the first light emergent surface coincides with an emergent light obtained after an incident light emitted by the second light source passes through the second light incident surface and the second light emergent surface , characterized in that on the first light emergent surface and/or the first light incident surface of the first lens , a plurality of flanges parallel to each other are provided on an outer surface of the first light emergent surface or an inner surface of the first light incident surface , and are arranged at intervals in an extending direction of the lens .
A method of making a polybenzimidazole comprising: reacting, in a solution, an organic compound having at least 4 amino groups with an organic aldehyde bis(bisulfite) adduct, the reactants comprise at least 10% or up to 40% by weight of the solution, further comprising the step of extruding the polybenzimidazole to a fiber or a film from the solution.
[Dust-proof cover element arranged to close a projection opening provided in the dashboard of a vehicle and crossed by the source light beam carrying information (F) projected by the projection module from a head-up display device to a partially reflective return element , said cover element comprising a transparent support as well as an optical coating affixed to one faces of said support ; said optical coating comprising a metallic layer with plasmonic properties , provided with an array of sub-wavelength nanoperforations , and configured to allow the extraordinary transmission of one or more restricted bands of lengths waves of the visible spectrum centered on the wavelength(s) of the light beam (F) projected by said projection module , characterized in that said optical coating comprises a layer of transparent magneto-optical material interposed between said support and said metal layer and interacting with the latter to make said extraordinary non-reciprocal transmission so that the said wavelength(s) of the light beam (F) projected by said module of projection are transmitted only in the direction (S 1 ) going from this projection module towards said return element , and so that the other visible wavelengths of said restricted band(s) are transmitted only in the opposite direction (S 2 ) going from the return element to the projection module .
A node device operation method, applied to a first node device, wherein the node device operation method comprises: receiving, by the first node device, voting requests from a plurality of second node devices , a quantity of the plurality of second node devices being greater than half of a quantity of node devices in a system, wherein voting requests are generated based on cycle length information, last log indexes, and node device identifiers of the plurality of second node devices; when the first node device operates in a leader state, obtaining the cycle length information and the latest log indexes from the voting requests from the plurality of second node devices wherein the cycle length information is an operation cycle number at which the second node device which sends the voting request is currently located, and the latest log index is an index of a log newly stored by the second node device which sends the voting request; and switching a work status of the first node device from the leader state to a follower state or a candidate state when all the cycle length information in the voting requests from the plurality of second node devices is greater than cycle length information of the first node device and all the latest log indexes in the voting requests from the plurality of second node devices are not less than a latest log index of the first node device. receiving, by the first node device, voting requests from a plurality of second node devices , a quantity of the plurality of second node devices being greater than half of a quantity of node devices in a system, wherein voting requests are generated based on cycle length information, last log indexes, and node device identifiers of the plurality of second node devices; when the first node device operates in a leader state, obtaining the cycle length information and the latest log indexes from the voting requests from the plurality of second node devices wherein the cycle length information is an operation cycle number at which the second node device which sends the voting request is currently located, and the latest log index is an index of a log newly stored by the second node device which sends the voting request; and switching a work status of the first node device from the leader state to a follower state or a candidate state when all the cycle length information in the voting requests from the plurality of second node devices is greater than cycle length information of the first node device and all the latest log indexes in the voting requests from the plurality of second node devices are not less than a latest log index of the first node device.
A method of manufacturing a series of objects, the method comprising: providing a layer of a manufacturing medium; binding portions of the layer of the medium together at at least edge regions of the layer to form a support portion; lowering the support portion while gripping the support portion by the edge regions of the layer; providing a further layer of the medium supported by the support portion; selectively binding portions of the further layer of the medium to form at least an object portion, and selectively binding portions of the further layer to form additional support portions connected to the support portion such that the object portion is surrounded by the additional support portions within the layer, thus forming a surrounding structure, characterised in that : different portions of the manufacturing medium are bound with different binding strengths such that the surrounding structure is formed of portions having a different binding strength as compared to the object. providing a layer of a manufacturing medium; binding portions of the layer of the medium together at at least edge regions of the layer to form a support portion; lowering the support portion while gripping the support portion by the edge regions of the layer; providing a further layer of the medium supported by the support portion; selectively binding portions of the further layer of the medium to form at least an object portion, and selectively binding portions of the further layer to form additional support portions connected to the support portion such that the object portion is surrounded by the additional support portions within the layer, thus forming a surrounding structure, characterised in that : different portions of the manufacturing medium are bound with different binding strengths such that the surrounding structure is formed of portions having a different binding strength as compared to the object.
An apparatus comprising: a transceiver arranged to receive a sidelink, "SL", grant from a radio access network node, the SL grant for a SL data transmission using SL resources, the SL grant having a first hybrid automatic repeat request, "HARQ", process identified by a first HARQ process identifier; and a processor arranged to select a second HARQ process identified by a second HARQ process identifier for the SL data transmission using the SL resources, said selection occurring in response to the SL grant indicating an initial SL data transmission, wherein the second HARQ process is selected independently from the first HARQ process; the transceiver further arranged to transmit SL control information, "SCI", containing the second HARQ process identifier, and to transmit the SL data transmission using the SL resources. a transceiver arranged to receive a sidelink, "SL", grant from a radio access network node, the SL grant for a SL data transmission using SL resources, the SL grant having a first hybrid automatic repeat request, "HARQ", process identified by a first HARQ process identifier; and a processor arranged to select a second HARQ process identified by a second HARQ process identifier for the SL data transmission using the SL resources, said selection occurring in response to the SL grant indicating an initial SL data transmission, wherein the second HARQ process is selected independently from the first HARQ process; the transceiver further arranged to transmit SL control information, "SCI", containing the second HARQ process identifier, and to transmit the SL data transmission using the SL resources.
A control stick, comprising: a control portion , a first electrical contact portion and a second electrical contact portion , wherein the control portion has a plurality of first moving contact points , and the first electrical contact portion comprises a control board and a plurality of first static contact points corresponding to the first moving contact points respectively, and a gap exists between the first moving contact point and the respective first static contact point ; the plurality of first static contact points is electrically coupled to the control board , and when the control portion swings in a direction towards one of the first moving contact points (11, the first moving contact point is contacted and conducted with the first static contact point ; and the bottom of the control portion is penetrated through the first electrical contact portion and has a second moving contact point , and the second electrical contact portion comprises a second static contact point corresponding to the second moving contact point , and a gap exists between the second moving contact point and the second static contact point , and when the control portion is pressed, the second moving contact point is contacted and conducted with the second static contact point , wherein the control portion comprises an upper control module and a lower control module , and the plurality of first moving contact points is disposed at the upper control module , and the second moving contact point is disposed at the lower control module ; and when the upper control module swings in a direction towards one of the first moving contact points , the first moving contact point is contacted with the first static contact point ; and when the upper control module is pressed, the upper control module presses at the lower control module , so that the second moving contact point is contacted with the second static contact point , characterized in that the upper control module comprises a knob control stick , a shaft , a housing , a ring-shaped elastic member and a plurality of contact plates , and the first moving contact points are disposed at the bottom of the contact plate and a chute is disposed at the top of the shaft , and the knob control stick is slidably coupled to an inner sidewall of the chute ; an arc portion is disposed at the bottom of the shaft , and the housing has an arc chamber for receiving the arc portion ; and the arc portion has a cavity therein, and the chute is communicated with the cavity , and an opening is formed at the bottom of the arc portion and provided for passing the knob control stick ; when the knob control stick is pressed, the knob control stick passes through the opening presses at the lower control module ; the housing has a plurality of yield slots formed around the periphery of the arc chamber , and the bottom of the contact plate is pivotally coupled to the inner sidewall of the yield slot ; the top of the arc chamber has a ring-shaped slot extending outwardly, and the ring-shaped elastic member is received into the ring-shaped slot , and the ring-shaped elastic member presses at the top of the contact plate .
A method for obtaining an antimicrobial aqueous formulation containing quaternary ammonium organosilane hydrolysate having the structure A(CH 3 ) 2 N + (CH 2 ) 3 Si(OZ) 3-n (OH) n , wherein "A" is a saturated or unsaturated aliphatic chain having 12 to 18 carbons, "n" is an integer ranging from 0 to 2, "Z" is one or more alkyl groups selected from methyl and ethyl, or one or more oligosilsesquioxane or polysilsesquioxane; characterized by the steps of: (a) quaternization of a tertiary amine group of a starting material by alkylation through a reaction with a halosilane, such that the conversion rate of the starting material is in the range of 55% to 65%; (b) quaternizing at least 90% of the part of the starting material that has not been converted into antimicrobial organosilane, by adding a supplementary reactant into the reaction medium, wherein the starting material has the structure A(CH 3 ) 2 N, wherein "A" is a saturated or unsaturated aliphatic chain having 12 to 18 carbons; and wherein one or more supplementary reactants are selected from benzyl chloride, benzyl bromide, benzyl iodide, vinyl benzyl chloride, vinyl benzyl bromide, vinyl benzyl iodide, epichlorohydrine, epibromohydrin, epiiodohydrin, chloroethanoic acid, bromoethanoic acid, iodoethanoic acid, and sultones; and wherein step (a) and step (b) are realized in a single reaction medium. (a) quaternization of a tertiary amine group of a starting material by alkylation through a reaction with a halosilane, such that the conversion rate of the starting material is in the range of 55% to 65%; (b) quaternizing at least 90% of the part of the starting material that has not been converted into antimicrobial organosilane, by adding a supplementary reactant into the reaction medium, wherein the starting material has the structure A(CH 3 ) 2 N, wherein "A" is a saturated or unsaturated aliphatic chain having 12 to 18 carbons; and wherein one or more supplementary reactants are selected from benzyl chloride, benzyl bromide, benzyl iodide, vinyl benzyl chloride, vinyl benzyl bromide, vinyl benzyl iodide, epichlorohydrine, epibromohydrin, epiiodohydrin, chloroethanoic acid, bromoethanoic acid, iodoethanoic acid, and sultones; and wherein step (a) and step (b) are realized in a single reaction medium.
A grain cleaning system for a combine harvester comprising a frame , a chaffer sieve operable to convey harvested crop material in a generally rearward direction to a first discharge edge , a lower sieve arranged below the chaffer sieve to catch material falling through the chaffer sieve and being operable to convey caught crop material in a generally rearward direction to a second discharge edge located forwardly and below the first discharge edge, a first chute disposed under the lower sieve to catch grain falling therefrom and being inclined to direct the caught grain to a clean grain trough, a second chute disposed under the first chute and configured to direct tailings to a tailings collection trough, and a multi-configurable plate mounted to the frame and positioned under a rear portion of the chaffer sieve, wherein the plate is moveable between a first operating position in which the plate is configured to guide material incident thereon to the second chute, and a second operating position in which the plate is configured to guide material incident thereon to the first chute; and wherein the plate is pivotally mounted to the frame at a first pivot axis (p) and the plate is pivotable between the first and second operating positions around the first pivot axis; characterised in that : the plate is pivotable into a third position in which a front edge of the plate is raised beyond the second operating position so as to present an access opening to the lower sieve for inspection.
An elevator door interlock , comprising: a latch situated for pivotal movement about a pivot axis between a door locking position and a released position; at least one coupling bumper situated for movement with the latch between the door locking and released positions, the coupling bumper is selectively moved relative to the pivot axis into an alignment position where the at least one coupling bumper is positioned to cooperate with a door coupler ; at least one stationary support situated to contact the at least one coupling bumper when the latch is in the released position where the at least one stationary support bears a load associated with moving an associated door ; a first base , wherein the at least one coupling bumper is supported on the first base ; and the first base is selectively movable relative to the pivot axis ; and a second base , wherein the at least one stationary support is supported on the second base ; characterized in that the second base is selectively pivotally moveable about the pivot axis . a latch situated for pivotal movement about a pivot axis between a door locking position and a released position; at least one coupling bumper situated for movement with the latch between the door locking and released positions, the coupling bumper is selectively moved relative to the pivot axis into an alignment position where the at least one coupling bumper is positioned to cooperate with a door coupler ; at least one stationary support situated to contact the at least one coupling bumper when the latch is in the released position where the at least one stationary support bears a load associated with moving an associated door ; a first base , wherein the at least one coupling bumper is supported on the first base ; and the first base is selectively movable relative to the pivot axis ; and a second base , wherein the at least one stationary support is supported on the second base ; characterized in that the second base is selectively pivotally moveable about the pivot axis .
A bone anchoring device comprising: a receiving part for coupling a rod to a bone anchoring element , the receiving part comprising a first end , a second end , a central axis (C) extending between the first end and the second end , a recess at the first end for receiving a rod , and a head receiving portion at the second end for accommodating a head of a bone anchoring element , the head receiving portion being at least partially flexible; a pressure member configured to exert pressure on an inserted head ; and a clamping ring configured to be arranged around the head receiving portion , wherein a translation of the clamping ring towards the first end provides a force that causes the head receiving portion to be compressed; characterized in that the pressure member comprises a portion encompassing a portion of the head such that when the head receiving portion is compressed with the clamping ring the pressure member exerts pressure onto the head . a receiving part for coupling a rod to a bone anchoring element , the receiving part comprising a first end , a second end , a central axis (C) extending between the first end and the second end , a recess at the first end for receiving a rod , and a head receiving portion at the second end for accommodating a head of a bone anchoring element , the head receiving portion being at least partially flexible; a pressure member configured to exert pressure on an inserted head ; and a clamping ring configured to be arranged around the head receiving portion , wherein a translation of the clamping ring towards the first end provides a force that causes the head receiving portion to be compressed;
A low-resistance connection body for a high-temperature superconducting wire, in which a high-temperature superconducting bulk body and a high-temperature superconducting wire including a high-temperature superconducting layer are connected to each other, wherein a melting point of the high-temperature superconducting layer is higher than a melting point of the high-temperature superconducting bulk body; the high-temperature superconducting layer and the high-temperature superconducting bulk body are in contact at a connection site of the high-temperature superconducting wire and the high-temperature superconducting bulk body; and a surface of the high-temperature superconducting bulk body that is in contact with the high-temperature superconducting layer is crystallized into single crystal, and other portions of the high-temperature superconducting bulk body is crystallized into polycrystal due to crystal growth.
Ship propeller with a nozzle of the ship propeller which is rotatable about a rotational axis (A), having a nozzle casing , extending along the rotational axis (A) and enclosing the ship propeller , having an inner and outer surface which together form a flow profile and having at least one sacrificial anode arranged on the outer surface of the nozzle casing , characterised in that in the rear region , viewed in a throughflow direction (S) of the nozzle , of said nozzle the outer surface of the nozzle casing has at least one receptacle which is indented with respect to the flow profile, which is in the form of an annular circumferential step in the outer surface of the nozzle casing , and a plurality of correspondingly formed sacrificial anodes are set into the step encircling in annular manner and substantially filling in the receptacle .