mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a ligand, the process comprising contacting an alcohol selected from the group consisting of 3-((2-bromobenzyl)oxy)propan-l-ol or 2-((2-bromobenzyl)oxy)ethanol and bromocresol in a reaction medium under reaction conditions in the presence of triphenylphosphine and diisopropylazodicarboxylate to make a bridging reactant; and contacting a first reactant with the bridging reactant in a polar aprotic reaction medium under reaction conditions, thereby forming the ligand; wherein: (a) when the first reactant is 2-((tetrahydro-2H-pyran-2-yl)oxy)-[1,1'-biphenyl]-3-yl lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2-(3-((2'-hydroxy-[1,1':3',1"-terphenyl]-2-yl)methoxy)propoxy)-5-methyl-[1,1':3',1"-terphenyl]-2'-ol (Ligand AP); or wherein (b) when the first reactant is 2',5,5'-trimethyl-2-((methoxymethoxy)-[1,1'-biphenyl]-3-yl lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2-(3-((2'-hydroxy-2",5',5"-trimethyl-[1,1':3',1"-terphenyl]-2-yl)methoxy)propoxy)-2",5,5',5"-tetramethyl-[1,1':3',1"-terphenyl]-2'-ol (Ligand BP); or wherein (c) when the first reactant is 2-(methoxymethoxy)-5-methyl-3-(2-methylnaphthalen-1-yl)phenyl) lithium, the bridging reactant is 2-bromo-1-(3-((2-bromobenzyl)oxy)propoxy)-4-methylbenzene, and the ligand is 2'-(3-((2'-hydroxy-5'-methyl-3'-(2-methylnaphthalen-l-yl)-[1,1'-biphenyl]-2-yl)methoxy)propoxy)-5,5'-dimethyl-3-(2-methylnaphthalen-l-yl)-[1,1'-biphenyl]-2-ol (Ligand CP).
A device (800; 900; 1400; 1500; 1600) comprising: a layer (810; 910;1410;1510;1610) comprising a light emissive area (822, 824; 922, 924; 1526, 1528, 1530; 1626, 1628, 1630) and a light non-emissive area (826; 926; 1532, 1534; 1632, 1634); and a light-extracting feature disposed over the light non-emissive area (826; 926; 1532, 1534; 1632, 1634), wherein the layer (810; 910;1410;1510;1610) comprises a substrate layer (812; 912; 1512; 1612); and wherein the light-extracting feature comprises dents disposed over the light non-emissive area (826; 926; 1532, 1534; 1632, 1634) in the layer (810; 910;1410;1510;1610), characterized in that: the dents have varying depth and a fixed spacing between adjacent dents , or the dents have a fixed depth and varying spacing between adjacent dents . a layer (810; 910;1410;1510;1610) comprising a light emissive area (822, 824; 922, 924; 1526, 1528, 1530; 1626, 1628, 1630) and a light non-emissive area (826; 926; 1532, 1534; 1632, 1634); and a light-extracting feature disposed over the light non-emissive area (826; 926; 1532, 1534; 1632, 1634), wherein the layer (810; 910;1410;1510;1610) comprises a substrate layer (812; 912; 1512; 1612); and wherein the light-extracting feature comprises dents disposed over the light non-emissive area (826; 926; 1532, 1534; 1632, 1634) in the layer (810; 910;1410;1510;1610), characterized in that: the dents have varying depth and a fixed spacing between adjacent dents , or the dents have a fixed depth and varying spacing between adjacent dents .
A controller for thermal management of an aftertreatment system that comprises a heater and an aftertreatment component downstream of the heater , the aftertreatment system being coupled to an engine that generates an exhaust gas, the controller configured to: determine an estimated warm-up time for warming up the aftertreatment component to a target temperature via the heater ; and activate the heater ; characterized in that the controller is further configured to: divide the estimated warm-up time into a plurality of long time windows; determine a target temperature change rate within each long time window; divide at least one long time window of the plurality of long time windows into a plurality of short time windows; determine a target energy change rate within each short time window for achieving the target temperature change rate over the at least one long time window; determine an additional power needed from the engine for powering the heater based on a target energy of the aftertreatment component within each short time window; and transmit a signal to the engine to request the additional power needed from the engine . determine an estimated warm-up time for warming up the aftertreatment component to a target temperature via the heater ; and activate the heater ; characterized in that the controller is further configured to: divide the estimated warm-up time into a plurality of long time windows; determine a target temperature change rate within each long time window; divide at least one long time window of the plurality of long time windows into a plurality of short time windows; determine a target energy change rate within each short time window for achieving the target temperature change rate over the at least one long time window; determine an additional power needed from the engine for powering the heater based on a target energy of the aftertreatment component within each short time window; and transmit a signal to the engine to request the additional power needed from the engine . divide the estimated warm-up time into a plurality of long time windows; determine a target temperature change rate within each long time window; divide at least one long time window of the plurality of long time windows into a plurality of short time windows; determine a target energy change rate within each short time window for achieving the target temperature change rate over the at least one long time window; determine an additional power needed from the engine for powering the heater based on a target energy of the aftertreatment component within each short time window; and transmit a signal to the engine to request the additional power needed from the engine .
A composition for producing an article comprising: from about 50 to about 70 wt. % of a block copolymer; from about 15 to about 25 wt. % of at least one homopolymer or copolymer of butene; and from about 12 to about 24 wt. % of at least one polyolefin homopolymer or polyolefin copolymer; characterized in that said block copolymer has hydrogenated low-vinyl polybutadiene end blocks with a specific gravity > 0.85 g/cc, and has a controlled distribution midblock of polyalkenyl arene/hydrogenated diene and wherein said composition total wt. equals 100 wt. %. from about 50 to about 70 wt. % of a block copolymer; from about 15 to about 25 wt. % of at least one homopolymer or copolymer of butene; and from about 12 to about 24 wt. % of at least one polyolefin homopolymer or polyolefin copolymer; characterized in that said block copolymer has hydrogenated low-vinyl polybutadiene end blocks with a specific gravity > 0.85 g/cc, and has a controlled distribution midblock of polyalkenyl arene/hydrogenated diene and wherein said composition total wt. equals 100 wt. %.
An adhesive comprising at least one propylene-ethylene copolymer and at least one polyolefin, wherein said at least one propylene- ethylene copolymer comprises a polydispersity in the range of 3 to 25; a crystallinity of less than 30 percent as measured using DSC according to ASTM E 794-85, and a number average molecular weight (Mn) of less than 20,000 as determined by gel permeation chromatograph.
A combination of an electrically- and thermally-conductive interface gasket with a pair of objects , the gasket comprising: a planar electrically-conductive flexible base having a series of openings therein; and a multitude of electrically-conductive fingers emerging out of the base ; wherein the fingers are located on peripheries of the openings ; wherein separation between adjacent fingers is one-third or less of a width of individual fingers ; wherein the base and fingers are configured to make contact with and conform to surfaces of respective ones of the objects on opposite respective sides of the gasket ; wherein the base and/or the fingers are configured to deform to conform to the surfaces of the objects ; wherein at least one of the objects includes cavities for radiative transmission of electromagnetic energy through openings in the base . a planar electrically-conductive flexible base having a series of openings therein; and a multitude of electrically-conductive fingers emerging out of the base ; wherein the fingers are located on peripheries of the openings ; wherein separation between adjacent fingers is one-third or less of a width of individual fingers ; wherein the base and fingers are configured to make contact with and conform to surfaces of respective ones of the objects on opposite respective sides of the gasket ; wherein the base and/or the fingers are configured to deform to conform to the surfaces of the objects ; wherein at least one of the objects includes cavities for radiative transmission of electromagnetic energy through openings in the base .
A tire , comprising: a first surface ; a second surface ; and a tire body contained between the first surface and the second surface ; wherein the tire body comprises a cavity having a cavity major width (D1) in at least one of an axial direction and a circumferential direction, wherein a channel extends between the cavity and the first surface , wherein the channel has a channel major width (D2) in at least one of the axial direction and the circumferential direction, and wherein the cavity major width (D1) is greater than the channel major width (D2), characterized by a fastener including a fastener portion and a protrusion oriented adjacent to the fastener portion (212, 312, 412, 5 12, 612, 712, 812, 912); wherein the fastener portion is configured to at least one of removably attach to a device and permanently attach to a device , wherein the fastener portion extends through an aperture in the device , and wherein the protrusion is engaged within the cavity . a first surface ; a second surface ; and a tire body contained between the first surface and the second surface ; wherein the tire body comprises a cavity having a cavity major width (D1) in at least one of an axial direction and a circumferential direction, wherein a channel extends between the cavity and the first surface , wherein the channel has a channel major width (D2) in at least one of the axial direction and the circumferential direction, and wherein the cavity major width (D1) is greater than the channel major width (D2), characterized by a fastener including a fastener portion and a protrusion oriented adjacent to the fastener portion (212, 312, 412, 5 12, 612, 712, 812, 912); wherein the fastener portion is configured to at least one of removably attach to a device and permanently attach to a device , wherein the fastener portion extends through an aperture in the device , and wherein the protrusion is engaged within the cavity .
A power transmission device provided on a ground, the device comprising: a power transmission coil configured to supply electric power via a wireless connection to a power reception coil mounted on a vehicle; a cover covering at least a top surface of the power transmission coil in an axial direction; a foreign-matter detection coil provided between the power transmission coil and the cover ; and an elevating mechanism configured to move the power transmission coil and the foreign-matter detection coil up and down with respect to the ground while keeping a constant gap between the power transmission coil and the foreign-matter detection coil , characterized in that the foreign-matter detection coil is separated from the cover with a predetermined distance in the axial direction before detecting foreign matter, and the elevating mechanism is configured to move up the foreign-matter detection coil so as to lead a distance between the foreign-matter detection coil and the cover to be shorter than the predetermined distance when the foreign-matter detection coil detects the foreign matter. a power transmission coil configured to supply electric power via a wireless connection to a power reception coil mounted on a vehicle; a cover covering at least a top surface of the power transmission coil in an axial direction; a foreign-matter detection coil provided between the power transmission coil and the cover ; and an elevating mechanism configured to move the power transmission coil and the foreign-matter detection coil up and down with respect to the ground while keeping a constant gap between the power transmission coil and the foreign-matter detection coil , characterized in that the foreign-matter detection coil is separated from the cover with a predetermined distance in the axial direction before detecting foreign matter, and the elevating mechanism is configured to move up the foreign-matter detection coil so as to lead a distance between the foreign-matter detection coil and the cover to be shorter than the predetermined distance when the foreign-matter detection coil detects the foreign matter.
A two-component polyurethane adhesive composition comprising a polyol component and an isocyanate component, wherein the polyol component comprises at least one polyester polyol obtained from a reaction mixture comprising, based on the total weight of the reaction mixture, based on the total weight of the reaction mixture, from 1% to 25% by weight of at least one cycloaliphatic polyol, from 1% to 40% by weight of at least one heterocyclic polyol, from 1% to 40% by weight of at least one linear or branched aliphatic polyol, and from 30% to 70% by weight of at least one polyfunctional carboxylic acid, and the isocyanate component comprises at least one alkoxysilane functionalized isocyanate compound having no epoxide group, at least one aromatic isocyanate-functionalized compound, and at least one aliphatic or alicyclic isocyanate-functionalized compound. the polyol component comprises at least one polyester polyol obtained from a reaction mixture comprising, based on the total weight of the reaction mixture, based on the total weight of the reaction mixture, from 1% to 25% by weight of at least one cycloaliphatic polyol, from 1% to 40% by weight of at least one heterocyclic polyol, from 1% to 40% by weight of at least one linear or branched aliphatic polyol, and from 30% to 70% by weight of at least one polyfunctional carboxylic acid, and the isocyanate component comprises at least one alkoxysilane functionalized isocyanate compound having no epoxide group, at least one aromatic isocyanate-functionalized compound, and at least one aliphatic or alicyclic isocyanate-functionalized compound.
A compound having the Formula: wherein, R1 is selected from hydrogen or C1 to C6 alkyl; and R2 is C1 to C6 alkyl.
A catheter comprising: a catheter shaft having a proximal end portion and a distal end portion; an irrigation element positioned relative to the catheter shaft to direct irrigation fluid distal to the distal end portion of the catheter shaft; and an ablation electrode including a distal region and a proximal region, the proximal region coupled to the distal end portion of the catheter shaft, and the distal region including struts coupled to one another to define collectively a plurality of cells , wherein each cell is bounded by at least four of the struts, the struts are coupled to one another to define a closed shape along the distal region enveloping the irrigation element, characterised in that the struts are in electrical communication with one another to form a single electrical conductor. a catheter shaft having a proximal end portion and a distal end portion; an irrigation element positioned relative to the catheter shaft to direct irrigation fluid distal to the distal end portion of the catheter shaft; and an ablation electrode including a distal region and a proximal region, the proximal region coupled to the distal end portion of the catheter shaft, and the distal region including struts coupled to one another to define collectively a plurality of cells , wherein each cell is bounded by at least four of the struts, the struts are coupled to one another to define a closed shape along the distal region enveloping the irrigation element, characterised in that the struts are in electrical communication with one another to form a single electrical conductor.
A method for controlling the lengths of length adjustable elements of a Yagi antenna, comprising the following steps: entering proposed element lengths of the Yagi antenna into an antenna modeling software program configured to generate antenna characteristics (step 184); modeling the Yagi antenna by means of the antenna modeling software and plotting the antenna characteristics of the modeled Yagi antenna (step 186); determining if the antenna characteristics of the modeled Yagi antenna are acceptable for a user (step 188); altering one or more proposed element lengths of the Yagi antenna in the antenna modeling software if the antenna characteristics of the modeled Yagi antenna are not acceptable (step 200) and determining if the antenna characteristics of the modeled Yagi antenna are now acceptable for a user (step 188); downloading the element lengths of the modeled Yagi antenna from the antenna modeling software to an antenna controller after determining that the antenna characteristics of the modeled Yagi antenna are acceptable (step 190), and configuring the element lengths of the Yagi antenna from the antenna controller (step 192). entering proposed element lengths of the Yagi antenna into an antenna modeling software program configured to generate antenna characteristics (step 184); modeling the Yagi antenna by means of the antenna modeling software and plotting the antenna characteristics of the modeled Yagi antenna (step 186); determining if the antenna characteristics of the modeled Yagi antenna are acceptable for a user (step 188); altering one or more proposed element lengths of the Yagi antenna in the antenna modeling software if the antenna characteristics of the modeled Yagi antenna are not acceptable (step 200) and determining if the antenna characteristics of the modeled Yagi antenna are now acceptable for a user (step 188); downloading the element lengths of the modeled Yagi antenna from the antenna modeling software to an antenna controller after determining that the antenna characteristics of the modeled Yagi antenna are acceptable (step 190), and configuring the element lengths of the Yagi antenna from the antenna controller (step 192).
A data transmission method, wherein the method comprises: obtaining (S103), by a coordinating device, transmission parameter information, wherein the transmission parameter information indicates a parameter that needs to be used by a target device to send to-be-transmitted data to a network side device; determining, by the coordinating device, an initial transmission moment of the to-be-transmitted data by adding a time offset value to a moment when the transmission parameter information is obtained, receiving (S102), by the coordinating device, the to-be-transmitted data sent by the target device; and when the initial transmission moment of the to-be-transmitted data arrives, sending (S 104), by the coordinating device, the received to-be-transmitted data to the network side device based on the transmission parameter information, wherein the obtaining, by a coordinating device, transmission parameter information comprises: listening, by the coordinating device, to control information sent by the network side device to the target device, parsing the control information and determining that the parsed control information meets a format of the transmission parameter information to obtain the parsed control information as the transmission parameter information; or receiving, by the coordinating device, the transmission parameter information sent by the target device. obtaining (S103), by a coordinating device, transmission parameter information, wherein the transmission parameter information indicates a parameter that needs to be used by a target device to send to-be-transmitted data to a network side device; determining, by the coordinating device, an initial transmission moment of the to-be-transmitted data by adding a time offset value to a moment when the transmission parameter information is obtained, receiving (S102), by the coordinating device, the to-be-transmitted data sent by the target device; and when the initial transmission moment of the to-be-transmitted data arrives, sending (S 104), by the coordinating device, the received to-be-transmitted data to the network side device based on the transmission parameter information, wherein the obtaining, by a coordinating device, transmission parameter information comprises: listening, by the coordinating device, to control information sent by the network side device to the target device, parsing the control information and determining that the parsed control information meets a format of the transmission parameter information to obtain the parsed control information as the transmission parameter information; or receiving, by the coordinating device, the transmission parameter information sent by the target device. listening, by the coordinating device, to control information sent by the network side device to the target device, parsing the control information and determining that the parsed control information meets a format of the transmission parameter information to obtain the parsed control information as the transmission parameter information; or receiving, by the coordinating device, the transmission parameter information sent by the target device.
Starting device for an internal combustion engine, with a starter pinion which is movable between an out-of-function position and an engagement position with a gear rim of the internal combustion engine , with a starter motor whose drive movement can be transmitted to the starter pinion via a transmission , with damping elements which support a transmission component of the transmission , characterized in that the damping elements are arranged directly on both axial end faces of the transmission component and support the transmission component at least in the circumferential direction on axially adjacent components.
Ejectable and buoyant combined rescue beacon and flight recorder device for an aircraft , comprising a foam or honeycomb-type stiffening structure forming a chassis , said chassis being provided with at least one outer lateral face provided with a solar panel , said device being designed to be positioned in a recess created in a wing element of the aircraft , and being formed as an element of an aerodynamic panel on both faces of said wing element , the mass/volume ratio of the device granting it its buoyancy.
Method for transmission, from at least one emitter antenna (EA), of a source signal comprising a plurality of binary sequences (SEQn), to all or part of n receiver antennas (RA), n being an integer greater than or equal to 2, said method implementing, before a step of emitting one of said binary sequences (SEQ) of said source signal, a prefiltering of focusing said binary sequence (SEQ) towards one target antenna out of said n receiver antennas (RA), said associated focusing prefiltering begin chosen according to a value of said first binary sequence, said method being characterised in that it further comprises at least one step of transmission suitable for transmitting a first piece of binary information by using the simultaneous absence of focusing towards each of the n receiver antennas (RA), during a predetermined integer k of symbol times.
A medical device comprising: a body having an exterior surface; and a coating disposed on the exterior surface of the body, the coating comprising a therapeutic agent-containing nanoparticle, wherein the nanoparticle comprises a brush-arm star polymer. a body having an exterior surface; and a coating disposed on the exterior surface of the body, the coating comprising a therapeutic agent-containing nanoparticle, wherein the nanoparticle comprises a brush-arm star polymer.