mhurhangee/patent-ind-claim-en huggingface dataset:
A print construction comprising: (a) a printing substrate having an image-receiving surface; (b) a receptive layer, at least partially covering said image-receiving surface, and having a particle reception surface distally disposed to said image-receiving surface, said receptive layer optionally having a thickness of at least 1000 nanometer (nm); and (c) a plurality of individual particles adhered to said particle reception surface, and forming a monolayer thereon; wherein a number-averaged aspect ratio of said plurality of particles is defined by: ASPavg = Lavg / Havg wherein Lavg is a number-averaged maximum long dimension of said plurality of particles; wherein Havg is a number-averaged maximum thickness of said plurality of particles; and wherein said plurality of particles exhibit at least one of the following structural properties: (A) Lavg is at most 800 micrometers; (B) Havg is at least 20 nm and at most 1200 nm; (C) ASPavg is at least 20:1; wherein said monolayer has an optical surface coverage percentage of at least 20%, at least 50%, at least 60%, at least 70%, at least 80%, or at least 90%, and wherein an outer surface of said particles is hydrophobic." (a) a printing substrate having an image-receiving surface; (b) a receptive layer, at least partially covering said image-receiving surface, and having a particle reception surface distally disposed to said image-receiving surface, said receptive layer optionally having a thickness of at least 1000 nanometer (nm); and (c) a plurality of individual particles adhered to said particle reception surface, and forming a monolayer thereon; wherein a number-averaged aspect ratio of said plurality of particles is defined by: ASPavg = Lavg / Havg wherein Lavg is a number-averaged maximum long dimension of said plurality of particles; wherein Havg is a number-averaged maximum thickness of said plurality of particles; and wherein said plurality of particles exhibit at least one of the following structural properties: (A) Lavg is at most 800 micrometers; (B) Havg is at least 20 nm and at most 1200 nm; (C) ASPavg is at least 20:1; (A) Lavg is at most 800 micrometers; (B) Havg is at least 20 nm and at most 1200 nm; (C) ASPavg is at least 20:1; wherein said monolayer has an optical surface coverage percentage of at least 20%, at least 50%, at least 60%, at least 70%, at least 80%, or at least 90%, and wherein an outer surface of said particles is hydrophobic."
Device including two rails and two cross braces when assembled forming a mounting frame designed to be arranged between floor joists in a floor structure, where the mounting frame is set up to support a floor drain with an associated cassette, wherein the cassette is a rectangular disc with a mounting opening for the floor drain in a central part of the cassette, the rails are arranged in parallel and adapted to be attached with their respective ends to the sides of two adjacent joists facing each other in said floor structure, - the cross braces are arranged between and transversally to said rails and each one of them being displaceable along the rails, wherein the distance between the parallel rails and the distance between the cross braces during mounting of these are arranged to form said mounting frame being configured so that the outer edges of the cassette will rest on said rails and said cross braces when arranged on said formed mounting frame , - the long sides of the rails have a longitudinal upwards directed tongue , - the cross braces have an overhang along its ends, - the overhangs of the cross braces lie over the longitudinal upwards directed tongue of the connecting rail and can be displaced along the rail, - a longitudinal groove is formed between the longitudinal upwards directed tongue and the long side of the rail and where this groove has a geometrical profiled cross section, the device being characterized in that the overhang of the cross brace has a corresponding geometrical profiled cross section, wherein the overhang of the cross brace can be connected to and become inserted into the groove of the rail only from the end of the rail. - the cross braces are arranged between and transversally to said rails and each one of them being displaceable along the rails, wherein the distance between the parallel rails and the distance between the cross braces during mounting of these are arranged to form said mounting frame being configured so that the outer edges of the cassette will rest on said rails and said cross braces when arranged on said formed mounting frame , - the long sides of the rails have a longitudinal upwards directed tongue , - the cross braces have an overhang along its ends, - the overhangs of the cross braces lie over the longitudinal upwards directed tongue of the connecting rail and can be displaced along the rail, - a longitudinal groove is formed between the longitudinal upwards directed tongue and the long side of the rail and where this groove has a geometrical profiled cross section, the device being characterized in that the overhang of the cross brace has a corresponding geometrical profiled cross section, wherein the overhang of the cross brace can be connected to and become inserted into the groove of the rail only from the end of the rail.
A circuit interrupter comprising: a busbar ; a Rogowski coil disposed around the busbar and structured to sense current having a first frequency flowing through the busbar ; a test injector circuit structured to input a test signal to the Rogowski coil ; high pass or band pass filter circuitry structured to receive an output of the Rogowski coil ; and an electronic trip unit including a temperature measurement unit , characterised in that : the test signal has a second frequency, the output of the Rogowski coil includes a first component and a second component, the first component having the first frequency and being proportional to the current flowing through the busbar , the second component having the second frequency and being proportional to a temperature of the Rogowski coil , the high pass or band pass filter circuitry is structured to attenuate the first component of the output of the Rogowski coil , and the temperature measurement unit is structured to receive an output of the high pass or band pass filter circuitry and to estimate the temperature of the busbar based on the output of the high pass or band pass filter circuitry . a busbar ; a Rogowski coil disposed around the busbar and structured to sense current having a first frequency flowing through the busbar ; a test injector circuit structured to input a test signal to the Rogowski coil ; high pass or band pass filter circuitry structured to receive an output of the Rogowski coil ; and an electronic trip unit including a temperature measurement unit , the test signal has a second frequency, the output of the Rogowski coil includes a first component and a second component, the first component having the first frequency and being proportional to the current flowing through the busbar , the second component having the second frequency and being proportional to a temperature of the Rogowski coil , the high pass or band pass filter circuitry is structured to attenuate the first component of the output of the Rogowski coil , and the temperature measurement unit is structured to receive an output of the high pass or band pass filter circuitry and to estimate the temperature of the busbar based on the output of the high pass or band pass filter circuitry .
Crankcase for an internal combustion engine having at least one oil sump flange and a single-piece crankshaft, wherein at least one end side of the crankcase, at which, for example, the gear drive is arranged, has a machined face of the sealing surface facing towards the cover/gear case cover, which machined face is arranged at an angle of approximately 4° to the perpendicular with respect to the oil sump flange surface, characterized in that , on the side facing towards the gear case, approximately in the region of the leadthrough of the toothed gear to the camshaft , a lug-like material accumulation is arranged on the cylinder head gasket side , which is situated opposite the oil sump flange side of the crankcase.
Modified mussel adhesive protein fp-5, comprising at least one photocaged 3,4-dihydroxyphenylalanine derivative residue comprising a protecting group on at least one hydroxyl residue of its catechol moiety, wherein the photocaged 3,4-dihydroxyphenylalanine derivative residue replaces a naturally occurring tyrosine residue and wherein the protecting group can be cleaved from the 3,4-dihydroxyphenylalanine derivative residue by irradiation with UV light, wherein the modified mussel adhesive protein fp-5 comprises an amino acid sequence being at least 95 % identical to SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 15, SEQ ID NO: 16, SEQ ID NO: 17, SEQ ID NO: 18, or SEQ ID NO: 19.
A connector comprising: a first connector housing comprising a first wall , the first connector housing being attachable to a second connector housing such that the first wall opposes a second wall of the second connector housing , wherein the first connector housing comprises: a fitting chamber defined at least by the first wall , the fitting chamber allowing a counterpart connector housing to be fitted therein; and an engaging arm provided on the first wall , wherein the engaging arm is configured to engage an engaged arm provided on the second wall of the second connector housing when the first connector housing is completely attached to the second connector housing , characterized in that the engaging arm serves as an attachment state detection mechanism configured to detect an incomplete attachment state in which the first connector housing is incompletely attached to the second connector housing , wherein the engaging arm has elasticity so as to be bent toward an inside of the fitting chamber in the incomplete attachment state, and wherein the engaging arm in a bent state is configured to contact a distal end surface of the counterpart connector housing inserted into the fitting chamber and restrict insertion of the counterpart connector housing up to a fitting completion position. a first connector housing comprising a first wall , the first connector housing being attachable to a second connector housing such that the first wall opposes a second wall of the second connector housing , wherein the first connector housing comprises: a fitting chamber defined at least by the first wall , the fitting chamber allowing a counterpart connector housing to be fitted therein; and an engaging arm provided on the first wall , wherein a fitting chamber defined at least by the first wall , the fitting chamber allowing a counterpart connector housing to be fitted therein; and an engaging arm provided on the first wall , wherein the engaging arm is configured to engage an engaged arm provided on the second wall of the second connector housing when the first connector housing is completely attached to the second connector housing , characterized in that the engaging arm serves as an attachment state detection mechanism configured to detect an incomplete attachment state in which the first connector housing is incompletely attached to the second connector housing , wherein the engaging arm has elasticity so as to be bent toward an inside of the fitting chamber in the incomplete attachment state, and wherein the engaging arm in a bent state is configured to contact a distal end surface of the counterpart connector housing inserted into the fitting chamber and restrict insertion of the counterpart connector housing up to a fitting completion position.
A method for data transmission, comprising: receiving , by a first network device, a registration request message or a registration updating request message from a user equipment, UE; acquiring , by the first network device, UE context information and UE data from a second network device based on the registration request message or the registration updating request message; and sending , by the first network device, a registration response message to the UE, wherein the registration request message or the registration updating request message carries UE uplink data, and the method further comprises: extracting, by the first network device, the UE uplink data from the registration request message or the registration updating request message, and caching, by the first network device, the UE uplink data; and sending, by the first network device, the cached UE uplink data to a third network device after acquiring the UE context information. receiving , by a first network device, a registration request message or a registration updating request message from a user equipment, UE; acquiring , by the first network device, UE context information and UE data from a second network device based on the registration request message or the registration updating request message; and sending , by the first network device, a registration response message to the UE, wherein the registration request message or the registration updating request message carries UE uplink data, and the method further comprises: extracting, by the first network device, the UE uplink data from the registration request message or the registration updating request message, and caching, by the first network device, the UE uplink data; and sending, by the first network device, the cached UE uplink data to a third network device after acquiring the UE context information. extracting, by the first network device, the UE uplink data from the registration request message or the registration updating request message, and caching, by the first network device, the UE uplink data; and sending, by the first network device, the cached UE uplink data to a third network device after acquiring the UE context information.
A two putty settable bone hemostatic and adhesive composition, wherein: the first putty comprises 15-40 % of a polyfunctional isocyanate, tocopheryl acetate, 40-85 % of calcium phosphate particles, and 0.5-5 % of a polyol, based upon total weight of the first putty; and the second putty comprises 3-5 % of a polyfunctional isocyanate, 65-95 % of calcium phosphate particles, 3-15 % of at least one polyol, a fatty acid salt and tocopheryl acetate, based upon total weight of the second putty. the first putty comprises 15-40 % of a polyfunctional isocyanate, tocopheryl acetate, 40-85 % of calcium phosphate particles, and 0.5-5 % of a polyol, based upon total weight of the first putty; and the second putty comprises 3-5 % of a polyfunctional isocyanate, 65-95 % of calcium phosphate particles, 3-15 % of at least one polyol, a fatty acid salt and tocopheryl acetate, based upon total weight of the second putty.
A bottom bracket device comprising a bottom bracket shell surrounding a spindle axis (A) in a left-and-right direction to have left and right opened ends ; a first down tube connected to and extending forwardly from said bottom bracket shell ; a first seat tube connected to and extending upwardly from said bottom bracket shell , and having two side walls which are disposed between said left and right opened ends in the left-and-right direction, said side walls defining therebetween a receiving space which has a rear access opening that is opposite to said first down tube in a front-and-rear direction; and characterised in that a rear fork assembly having at least one front end portion which is inserted into said receiving space from said rear access opening and which is pivotably connected to said side walls of said first seat tube about a pivot axis (L) in the left-and-right direction, said rear fork assembly has two of said front end portions , said rear fork assembly including two rear fork rods each of which has at a front end thereof a respective one of said front end portions , said front end portions of said rear fork rods being inserted into said receiving space and being spaced apart from each other in the left-and-right direction; said first seat tube being connected to said first down tube at said bottom bracket shell . a bottom bracket shell surrounding a spindle axis (A) in a left-and-right direction to have left and right opened ends ; a first down tube connected to and extending forwardly from said bottom bracket shell ; a first seat tube connected to and extending upwardly from said bottom bracket shell , and having two side walls which are disposed between said left and right opened ends in the left-and-right direction, said side walls defining therebetween a receiving space which has a rear access opening that is opposite to said first down tube in a front-and-rear direction; and characterised in that a rear fork assembly having at least one front end portion which is inserted into said receiving space from said rear access opening and which is pivotably connected to said side walls of said first seat tube about a pivot axis (L) in the left-and-right direction, said rear fork assembly has two of said front end portions , said rear fork assembly including two rear fork rods each of which has at a front end thereof a respective one of said front end portions , said front end portions of said rear fork rods being inserted into said receiving space and being spaced apart from each other in the left-and-right direction; said first seat tube being connected to said first down tube at said bottom bracket shell .
A method of stepwise increasing the IT security of elements of a technological system, comprising: gathering data on each of a plurality of elements comprising a structure of the technological system by intercepting traffic between the plurality of elements using data exchange protocols, wherein the structure of the technological system comprises at least a plurality of interrelated control subjects of a multilevel control subsystem, an object of control, and a plurality of links between the plurality of elements, and wherein the data on the technological system comprises data describing a structure of one or more levels of the technological system, and the plurality of links between the plurality of elements at and across each level; identifying vulnerable elements of the technological system by one or more of: detecting suspicious actions on the vulnerable elements and statistical data relating to the elements; analyzing the vulnerable elements to generate a classification of severity of vulnerabilities of the vulnerable elements; identifying most vulnerable portions of the vulnerable elements as compared to other elements in the vulnerable elements; and operating the most vulnerable portions of the vulnerable elements in a protected environment. gathering data on each of a plurality of elements comprising a structure of the technological system by intercepting traffic between the plurality of elements using data exchange protocols, wherein the structure of the technological system comprises at least a plurality of interrelated control subjects of a multilevel control subsystem, an object of control, and a plurality of links between the plurality of elements, and wherein the data on the technological system comprises data describing a structure of one or more levels of the technological system, and the plurality of links between the plurality of elements at and across each level; identifying vulnerable elements of the technological system by one or more of: detecting suspicious actions on the vulnerable elements and statistical data relating to the elements; analyzing the vulnerable elements to generate a classification of severity of vulnerabilities of the vulnerable elements; identifying most vulnerable portions of the vulnerable elements as compared to other elements in the vulnerable elements; and operating the most vulnerable portions of the vulnerable elements in a protected environment.
Use of a powder comprising calcium nitrate as a setting accelerator in a tile adhesive blend, wherein at least 70 weight%, specifically at least 75 weight%, of the powder has a particle size of between 0.01 mm to 1 mm, specifically between 0.1 mm and 1 mm, and wherein the powder comprises at least 70 weight% calcium nitrate.
Mill , in particular pendulum mill or roller mill, having a longitudinal axis X and having a separator , wherein the mill has a mill housing having an inner space , in which there is located a milling chamber (B1) in which a milling device having at least one milling tool is arranged, wherein the separator is arranged above a milling device in a separation chamber (B3) and has a separation zone , and wherein there is provided at least one drop device , which connects the separation chamber (B3) to the milling chamber (B1), characterised in that there is arranged below the separator at least one distributor plate which has at least one drop opening on which the at least one drop device is arranged.
A system for electrochemically generating NAD(P)H 2 reducing equivalents comprising: a. an electrochemical cell comprising an anode contained in an anode chamber and a cathode contained in a cathode chamber; b. a first process stream containing NAD(P), passing through the cathode chamber and continuously in contact with the cathode from which electrons are transferred to the NAD(P) to produce a second process stream containing the reduced species 1,4-NAD(P)H 2 , 1,2-NAD(P)H 2 , 1,6-NAD(P)H 2 , and [NAD(P)] 2 , while optionally producing hydrogen; c. a substrate of an oxidoreductase or P450 enzyme, which, when contacted with the second process stream in the presence of the oxidoreductase or P450 enzyme, is transformed to a product while concomitantly consuming the 1,4-NAD(P)H 2 in the second process stream and producing a first recovered NAD(P) and a third process stream; and d. at least one of a renalase enzyme, a Mung Bean Phenol Oxidase enzyme and illumination at a wavelength of about 254 nm or exceeding about 320 nm, which, when contacted with the third process stream, convert at least one of the 1,2-NAD(P)H 2 , 1,6-NAD(P)H 2 , and [NAD(P)] 2 therein to a second and optionally a third recovered NAD(P). a. an electrochemical cell comprising an anode contained in an anode chamber and a cathode contained in a cathode chamber; b. a first process stream containing NAD(P), passing through the cathode chamber and continuously in contact with the cathode from which electrons are transferred to the NAD(P) to produce a second process stream containing the reduced species 1,4-NAD(P)H 2 , 1,2-NAD(P)H 2 , 1,6-NAD(P)H 2 , and [NAD(P)] 2 , while optionally producing hydrogen; c. a substrate of an oxidoreductase or P450 enzyme, which, when contacted with the second process stream in the presence of the oxidoreductase or P450 enzyme, is transformed to a product while concomitantly consuming the 1,4-NAD(P)H 2 in the second process stream and producing a first recovered NAD(P) and a third process stream; and d. at least one of a renalase enzyme, a Mung Bean Phenol Oxidase enzyme and illumination at a wavelength of about 254 nm or exceeding about 320 nm, which, when contacted with the third process stream, convert at least one of the 1,2-NAD(P)H 2 , 1,6-NAD(P)H 2 , and [NAD(P)] 2 therein to a second and optionally a third recovered NAD(P).