mhurhangee/patent-ind-claim-en huggingface dataset:
A smart lug comprising: a lug body that includes a first attachment mechanism sized to both receive insertion of an attaching means and accommodate tightening of the inserted attaching means to affix the smart lug to a surface of another object, structure, or item of equipment, and a second attachment mechanism for connecting to a cable, the first attachment mechanism including a through hole in the lug body , the second attachment mechanism comprising a lug cut-out in the lug body and an attachment mechanism , the lug cut-out configured to receive insertion of the cable, the attachment mechanism being an attachment screw configured to be selectively tightened against the cable in the lug cut-out to affix the lug body to the inserted cable; wireless communication circuitry affixed to the lug body ; and one or more sensor components affixed to the lug body , coupled to the wireless communication circuitry , and configured to sense environmental parameters associated with the lug body or with the other object, structure, or item of equipment. a lug body that includes a first attachment mechanism sized to both receive insertion of an attaching means and accommodate tightening of the inserted attaching means to affix the smart lug to a surface of another object, structure, or item of equipment, and a second attachment mechanism for connecting to a cable, the first attachment mechanism including a through hole in the lug body , the second attachment mechanism comprising a lug cut-out in the lug body and an attachment mechanism , the lug cut-out configured to receive insertion of the cable, the attachment mechanism being an attachment screw configured to be selectively tightened against the cable in the lug cut-out to affix the lug body to the inserted cable; wireless communication circuitry affixed to the lug body ; and one or more sensor components affixed to the lug body , coupled to the wireless communication circuitry , and configured to sense environmental parameters associated with the lug body or with the other object, structure, or item of equipment.
A headlamp for a vehicle, the headlamp comprising a light-emitting module comprising a laser light source , a condenser lens , a microelectromechanical system, MEMS, scanner and a reflection unit , whereby the headlamp is characterized in that said a-condenser lens defines an optical axis through a center of the condenser lens and is configured to focus light incident on a rear surface of the condenser lens ; said laser light source is located behind the condenser lens and that-is configured to generate light toward the condenser lens ; said microelectromechanical system, MEMS, scanner is located in front of the condenser lens , is configured to reflect, toward the condenser lens , light generated by the laser light source , and is configured to scan light generated by the laser light source by moving horizontally and vertically; and said reflection unit is located behind the condenser lens and is configured to reflect, toward the condenser lens , light reflected by the MEMS scanner .
A display device comprising: a display panel ; a flat frame positioned in the rear of the display panel ; a backlight unit positioned between the display panel and the flat frame and providing light for the display panel , wherein the backlight unit includes a substrate and a light source mounted on the substrate , the substrate forming a strap elongated in a longitudinal direction of the substrate ; at least one coupling protrusion formed on the flat frame , wherein the coupling protrusion fixes the backlight unit to the flat frame ; and at least one inclined protrusion formed on the flat frame and positioned under one end of the substrate , the inclined protrusion having an inclined surface facing in the longitudinal direction of the substrate towards the light source and providing an inclination of the end of the substrate . a display panel ; a flat frame positioned in the rear of the display panel ; a backlight unit positioned between the display panel and the flat frame and providing light for the display panel , wherein the backlight unit includes a substrate and a light source mounted on the substrate , the substrate forming a strap elongated in a longitudinal direction of the substrate ; at least one coupling protrusion formed on the flat frame , wherein the coupling protrusion fixes the backlight unit to the flat frame ; and at least one inclined protrusion formed on the flat frame and positioned under one end of the substrate , the inclined protrusion having an inclined surface facing in the longitudinal direction of the substrate towards the light source and providing an inclination of the end of the substrate .
A diagnostic method for predicting resistance to androgen deprivation therapy (ADT) for a subject who has prostate cancer, the method comprising: (a) measuring the level of expression of a plurality of biomarker genes comprising SELE, PRKAG1, B3GALTL, CRYM, NAV2, GABRB3, CLEC9A, SLC35F2, GALM, FBXO43, TMEM133, ID2, KCNH8, EZH2, RLN1, CDH26, SOX14, MSMB, TXK, STMN1, OR51E2, DESI2, TFAP4, KIAA1210, LRRC18, PEX11A, CCDC151, MORN3, GLYATL1, EHHADH, LPGAT1, FAM134A, DNAJC12, TM2D2, RBPMS2, NUDT1, SEMA3C, CCL16, HJURP, NPR3, HEY2, SFTA3, C8orf4, PRTFDC1, HEPN1, ALDH2, LSM7, FAHD2A, TACC2, KLK12, NLRP13, MPP7, CFL1, KCNMB1, DLGAP1, SPRR1A, CROT, KIFC1, POLD4, CASP2, WHSC1, MPZL2, NAV1, RNF168, FOXM1, ZC3H11A, FAM3D, KCNK17, PLXNA2, SUOX, ANP32E, REST, NKX2.2, RBBP8, NSMCE4A, H19, ATP1A2, PLXNC1, NUP62, ACAA2, ADH1C, THYN1, COX7A2L and MAP1B in a biological sample obtained from a subject; and (b) calculating an ADT resistance signature (ARS) score based on the level of expression of the plurality of biomarkers, wherein a higher ARS score for the subject compared to reference value ranges for a control subject indicates that the subject is resistant to ADT. (a) measuring the level of expression of a plurality of biomarker genes comprising SELE, PRKAG1, B3GALTL, CRYM, NAV2, GABRB3, CLEC9A, SLC35F2, GALM, FBXO43, TMEM133, ID2, KCNH8, EZH2, RLN1, CDH26, SOX14, MSMB, TXK, STMN1, OR51E2, DESI2, TFAP4, KIAA1210, LRRC18, PEX11A, CCDC151, MORN3, GLYATL1, EHHADH, LPGAT1, FAM134A, DNAJC12, TM2D2, RBPMS2, NUDT1, SEMA3C, CCL16, HJURP, NPR3, HEY2, SFTA3, C8orf4, PRTFDC1, HEPN1, ALDH2, LSM7, FAHD2A, TACC2, KLK12, NLRP13, MPP7, CFL1, KCNMB1, DLGAP1, SPRR1A, CROT, KIFC1, POLD4, CASP2, WHSC1, MPZL2, NAV1, RNF168, FOXM1, ZC3H11A, FAM3D, KCNK17, PLXNA2, SUOX, ANP32E, REST, NKX2.2, RBBP8, NSMCE4A, H19, ATP1A2, PLXNC1, NUP62, ACAA2, ADH1C, THYN1, COX7A2L and MAP1B in a biological sample obtained from a subject; and (b) calculating an ADT resistance signature (ARS) score based on the level of expression of the plurality of biomarkers, wherein a higher ARS score for the subject compared to reference value ranges for a control subject indicates that the subject is resistant to ADT.
A method of disinfecting a designated area comprising: placing at least one emitter of energy in a room, said emitter configured to emit disinfecting energy in a form of a beam; measuring the distances from said emitter to objects surrounding said at least one emitter and optionally, when placing at least one emitter of energy in a room comprises placing a plurality of emitters of energy in a room, measuring distances from said emitter to other of said plurality of emitters; computing exposure times for said objects that are inversely proportional to said measured distances; rotating said beam in a circle until said objects have been exposed to said beam for a duration of at least said respective exposure times; and controlling a rate at which said beam rotates based on distances measured from said emitter to various objects to be disinfected in said room. placing at least one emitter of energy in a room, said emitter configured to emit disinfecting energy in a form of a beam; measuring the distances from said emitter to objects surrounding said at least one emitter and optionally, when placing at least one emitter of energy in a room comprises placing a plurality of emitters of energy in a room, measuring distances from said emitter to other of said plurality of emitters; computing exposure times for said objects that are inversely proportional to said measured distances; rotating said beam in a circle until said objects have been exposed to said beam for a duration of at least said respective exposure times; and controlling a rate at which said beam rotates based on distances measured from said emitter to various objects to be disinfected in said room.
A microwave oven comprising a microwave generator , a control unit that controls the microwave generator , a tray produced from a microwave permeable material and whereon foodstuffs to be dried are placed, and a cavity wherein the tray is placed, characterized by one or more than one conductive plate that is produced from a metal material, that is placed at the underside of the tray in the edge and/or corner regions of the tray where the density of the electromagnetic energy is low and that enables the microwaves to be directed to the said edge and/or corner regions of the tray .
A computer implemented method of handling a threshold value of an antenna performance parameter of an antenna of a telecommunication network , the antenna performance parameter being a parameter relating to an amount of mismatch between an antenna and a feed line connecting to it and the threshold value being configured to trigger an antenna performance parameter alarm, the method comprising, setting the threshold value of the antenna performance parameter of the antenna to an initial value; gradually changing the threshold value of the antenna performance parameter until the antenna performance parameter alarm is triggered to find out a triggering value of the threshold of the antenna performance parameter; and determining a second threshold value of the antenna performance parameter based on the triggering value of the threshold of the antenna performance parameter and a predefined margin; and taking the second threshold value of the antenna performance parameter into use for the antenna. setting the threshold value of the antenna performance parameter of the antenna to an initial value; gradually changing the threshold value of the antenna performance parameter until the antenna performance parameter alarm is triggered to find out a triggering value of the threshold of the antenna performance parameter; and determining a second threshold value of the antenna performance parameter based on the triggering value of the threshold of the antenna performance parameter and a predefined margin; and taking the second threshold value of the antenna performance parameter into use for the antenna.
A method of manufacturing a refrigerant distributor , the refrigerant distributor including - an inflow section made of aluminum, into which refrigerant enters from an inflow pipe , - a plurality of outflow pipes each of which is made of aluminum and each of which allows the entering refrigerant to flow out, and - a distributing section made of aluminum, the distributing section including a plurality of outflow sections each being connected to one of the plurality of outflow pipes , the method being characterised by comprising the following steps : - an applying step of applying flux that removes aluminum oxide to a surface of the plurality of outflow sections and the distributing section ; - an alloy disposing step of disposing a zinc-containing aluminum-silicon alloy on the surface to which the flux is applied; - a forming step of forming a sacrifice positive electrode layer on the surface by heating the disposed zinc-containing aluminum-silicon alloy ; - a brazing material disposing step of inserting the plurality of outflow pipes into the plurality of outflow sections , respectively, and disposing an aluminum-silicon alloy brazing material on the surface of the plurality of outflow sections ; and - a brazing step of brazing the plurality of outflow sections with the plurality of outflow pipes , respectively, by heating the disposed aluminum-silicon alloy brazing material . - an inflow section made of aluminum, into which refrigerant enters from an inflow pipe , - a plurality of outflow pipes each of which is made of aluminum and each of which allows the entering refrigerant to flow out, and - a distributing section made of aluminum, the distributing section including a plurality of outflow sections each being connected to one of the plurality of outflow pipes , - an applying step of applying flux that removes aluminum oxide to a surface of the plurality of outflow sections and the distributing section ; - an alloy disposing step of disposing a zinc-containing aluminum-silicon alloy on the surface to which the flux is applied; - a forming step of forming a sacrifice positive electrode layer on the surface by heating the disposed zinc-containing aluminum-silicon alloy ; - a brazing material disposing step of inserting the plurality of outflow pipes into the plurality of outflow sections , respectively, and disposing an aluminum-silicon alloy brazing material on the surface of the plurality of outflow sections ; and - a brazing step of brazing the plurality of outflow sections with the plurality of outflow pipes , respectively, by heating the disposed aluminum-silicon alloy brazing material .
An electrostatic surge prevention structure, wherein a flexible printed circuit board connected to a circuit board contained in an electronic device is provided at a position corresponding to a gap , between two members, appearing in the electronic device , the two members are constituted of a front casing and a display device , or of the front casing and a touch panel , characterized in that the flexible printed circuit board has two layers of conductor parts , surfaces of these conductor parts are covered with insulative coats , an exposed part through which one of the conductor parts is externally exposed is formed at a portion opposing the gap by peeling off the insulative coat , and the conductor part having the exposed part is grounded, the exposed part is formed in such a way that the insulative coat is peeled off into a strip shape in the width direction across the whole width of the flexible printed circuit board . a flexible printed circuit board connected to a circuit board contained in an electronic device is provided at a position corresponding to a gap , between two members, appearing in the electronic device , the two members are constituted of a front casing and a display device , or of the front casing and a touch panel , characterized in that the flexible printed circuit board has two layers of conductor parts , surfaces of these conductor parts are covered with insulative coats , an exposed part through which one of the conductor parts is externally exposed is formed at a portion opposing the gap by peeling off the insulative coat , and the conductor part having the exposed part is grounded, the exposed part is formed in such a way that the insulative coat is peeled off into a strip shape in the width direction across the whole width of the flexible printed circuit board .
A biosensor microarray comprising: (i) a solid support substrate surface; (ii) a solid support substrate containing nanowells other than the solid support substrate surface, wherein the solid support substrate containing nanowells has been overlaid by the solid support substrate surface to be in contact therewith to seal the nanowells; (iii) a plurality of capture moieties linked to the solid support substrate surface; (iv) a plurality of detector polypeptides or detector peptides specifically bound by the capture moieties, thereby forming a peptide or polypeptide monolayer, the plurality of detector polypeptides or detector peptides provided by an array of isolated in vitro translation reactions in the sealed nanowells; and (v) a plurality of sensors; wherein each sensor in the plurality of sensors is in direct contact or in proximity to a capture moiety in the plurality of capture moieties, and wherein the biosensor microarray is substantially free of in vitro translation contaminants as a result of having been washed to remove the in vitro translation contaminants that are non-specifically bound to the capture moieties. (i) a solid support substrate surface; (ii) a solid support substrate containing nanowells other than the solid support substrate surface, wherein the solid support substrate containing nanowells has been overlaid by the solid support substrate surface to be in contact therewith to seal the nanowells; (iii) a plurality of capture moieties linked to the solid support substrate surface; (iv) a plurality of detector polypeptides or detector peptides specifically bound by the capture moieties, thereby forming a peptide or polypeptide monolayer, the plurality of detector polypeptides or detector peptides provided by an array of isolated in vitro translation reactions in the sealed nanowells; and (v) a plurality of sensors;
An optical writing device comprising: two or more light sources ; a polyphase clock generator configured to generate a polyphase clock signal where a phase is shifted and made different from each other by a phase difference T/P, where T denotes a cycle and P denotes a number of phase; a pixel clock generator configured to measure a scanning speed of one of the two or more light sources and generate a pixel clock of a cycle corrected according to the measured scanning speed; a pulse data generation and output unit configured to generate pulse width data and shift data for the pixel clock generated by the pixel clock generator to output the generated pulse width data and the generated shift data for each one of the two or more light sources ; and a plurality of image pulse generation and output units , disposed for the two or more light sources in association with each other, configured to generate an image pulse, having a pulse width determined by the pulse width data, where a pulse timing is shifted according to the shift data, wherein the plurality of image pulse generation and output units are supplied with the pixel clock in common, characterized in that the pixel clock generator corrects a cycle of the pixel clock so as to be an integral multiple of the phase difference T/P, and the pulse width data and the shift data are set so as to be an integral multiple of the phase difference T/P. two or more light sources ; a polyphase clock generator configured to generate a polyphase clock signal where a phase is shifted and made different from each other by a phase difference T/P, where T denotes a cycle and P denotes a number of phase; a pixel clock generator configured to measure a scanning speed of one of the two or more light sources and generate a pixel clock of a cycle corrected according to the measured scanning speed; a pulse data generation and output unit configured to generate pulse width data and shift data for the pixel clock generated by the pixel clock generator to output the generated pulse width data and the generated shift data for each one of the two or more light sources ; and a plurality of image pulse generation and output units , disposed for the two or more light sources in association with each other, configured to generate an image pulse, having a pulse width determined by the pulse width data, where a pulse timing is shifted according to the shift data, wherein the plurality of image pulse generation and output units are supplied with the pixel clock in common, characterized in that the pixel clock generator corrects a cycle of the pixel clock so as to be an integral multiple of the phase difference T/P, and the pulse width data and the shift data are set so as to be an integral multiple of the phase difference T/P.
IL-17A binding polypeptide, comprising an IL-17A binding motif BM, which motif consists of an amino acid sequence selected from: i) EX 2 DX 4 AX 6 X 7 EIX 10 X 11 LPNL X 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and X 29 is D; wherein sequence i) corresponds to the sequence from position 8 to position 36 in a sequence selected from the group consisting of SEQ ID NO:1-1216; and ii) an amino acid sequence which has at least 89% identity to the sequence defined in i), provided that any IL-17A binding polypeptide comprising a BM as defined in ii) is capable of binding to IL-17A such that the K D value of the interaction is at most 1 x 10 -8 M. i) EX 2 DX 4 AX 6 X 7 EIX 10 X 11 LPNL X 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 X 29 whe rein, independently from each other, X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and X 29 is D; wherein sequence i) corresponds to the sequence from position 8 to position 36 in a sequence selected from the group consisting of SEQ ID NO:1-1216; and X 2 is A; X 4 is selected from D and Q; X 6 is A; X 7 is V; X 10 is A; X 11 is selected from A, D and S; X 16 is selected from N and T; X 17 is W; X 18 is selected from A and D; X 20 is W; X 21 is selected from F and Y; X 25 is selected from Q and S; X 26 is selected from K and S; X 28 is R; and ii) an amino acid sequence which has at least 89% identity to the sequence defined in i), provided that any IL-17A binding polypeptide comprising a BM as defined in ii) is capable of binding to IL-17A such that the K D value of the interaction is at most 1 x 10 -8 M.