mhurhangee/patent-ind-claim-en huggingface dataset:
An antenna assembly and a window, the antenna assembly integrated with the window and comprising: an antenna array ; a film layer made of at least one insulating substance, spaced a predetermined first distance apart from the antenna array, and bonded to a surface of the window; an assistant installation structure having a first surface attached and fixed to the window and a second surface on which an antenna array seat is formed to which the antenna array is coupled; and a lens spaced a predetermined second distance from the antenna array and disposed between the antenna array and the film layer, wherein a seat for the lens is formed on the second surface of the assistant installation structure. an antenna array ; a film layer made of at least one insulating substance, spaced a predetermined first distance apart from the antenna array, and bonded to a surface of the window; an assistant installation structure having a first surface attached and fixed to the window and a second surface on which an antenna array seat is formed to which the antenna array is coupled; and a lens spaced a predetermined second distance from the antenna array and disposed between the antenna array and the film layer, wherein a seat for the lens is formed on the second surface of the assistant installation structure.
An igniter apparatus, comprising: an external frame that contains the first portion and second portion ; a chamber created by the external frame that allows the first portion and the second portion to be disposed therein; a button coupled to the first portion , wherein the button is accessible through a cutout of the frame ; a channel at least partially formed between the first and second portions, the channel having at least one opening configured to receive the tobacco-based product as it is inserted therein, the channel having an abrasive material coated on at least a portion of the channel, the abrasive material being configured to at least partially contact the tobacco-based product when the first and second portions are manually positioned a predetermined distance from one another; wherein, the frame substantially restrict the first portion and the second portion from moving in any direction other than directly towards or away from one another; further wherein, when no external forces are applied to the button, a gap is maintained between the first portion and the second portion ; wherein the gap is substantially maintained by an outward force applied to the first portion and the second portion by an upper leaf spring and a lower leaf spring . an external frame that contains the first portion and second portion ; a chamber created by the external frame that allows the first portion and the second portion to be disposed therein; a button coupled to the first portion , wherein the button is accessible through a cutout of the frame ; a channel at least partially formed between the first and second portions, the channel having at least one opening configured to receive the tobacco-based product as it is inserted therein, the channel having an abrasive material coated on at least a portion of the channel, the abrasive material being configured to at least partially contact the tobacco-based product when the first and second portions are manually positioned a predetermined distance from one another; wherein, the frame substantially restrict the first portion and the second portion from moving in any direction other than directly towards or away from one another; further wherein, when no external forces are applied to the button, a gap is maintained between the first portion and the second portion ; wherein the gap is substantially maintained by an outward force applied to the first portion and the second portion by an upper leaf spring and a lower leaf spring .
An oral care composition comprising an antioxidant, wherein the antioxidant is rutin in an amount of from 0.2 weight % to 0.8 weight % by total weight of the composition, and a surfactant system, wherein the surfactant system consists of sodium methyl cocoyl taurate in an amount of from 0.8 weight % to 1 weight % by total weight of the composition and optionally, a poloxamer in an amount of from 0.4 weight % to 1.2 weight % by total weight of the composition, and the composition does not comprise any surfactants other than those of the surfactant system.
A method of operating a server to provide a single sign on service for multiple service providers, the server comprising a memory storing an attempt table , the method comprising: in response to receiving a first password for a user account, forwarding the first password to an authentication device ; determining that the first password is not valid for the user account; storing data representative of the first password in association with the user account in the attempt table; in response to receiving a second password for the user account, determining whether the second password matches the first password; and when the second password does not match the first password, forwarding the second password to the authentication device. in response to receiving a first password for a user account, forwarding the first password to an authentication device ; determining that the first password is not valid for the user account; storing data representative of the first password in association with the user account in the attempt table; in response to receiving a second password for the user account, determining whether the second password matches the first password; and when the second password does not match the first password, forwarding the second password to the authentication device.
A method of encapsulating point cloud data in encapsulating containers, the method comprising writing point cloud data in at least one of said encapsulating containers, characterized in that the method further comprises for at least one spatial region of a spatial sensing coverage of a sensing device: - writing a first data on a presence of a sensing reliability score in one of said encapsulating containers; and - if the first data indicates that a sensing reliability score is present in one encapsulating container, writing said sensing reliability score in one of said encapsulating containers; the sensing reliability score being a value belonging to a range of values indicating a degree of sensing reliability of a spatial region, wherein the point cloud data is sensed by the sensing device and belongs to the spatial region of the spatial sensing coverage of the sensing device. - writing a first data on a presence of a sensing reliability score in one of said encapsulating containers; and - if the first data indicates that a sensing reliability score is present in one encapsulating container, writing said sensing reliability score in one of said encapsulating containers;
Goethite having i) an aspect ratio AR of lower than 1.5, preferably lower than 1.3, most preferably lower than 1.2, in particular lower than 1.1, determined according to the described method ii) a CIELAB L* value of 58 to 59 iii) a CIELAB b*-value of 43 to 47 iv) and a delta b* < 0.6, preferably < 0.5, determined after milling according to the described method. i) an aspect ratio AR of lower than 1.5, preferably lower than 1.3, most preferably lower than 1.2, in particular lower than 1.1, determined according to the described method ii) a CIELAB L* value of 58 to 59 iii) a CIELAB b*-value of 43 to 47 iv) and a delta b* < 0.6, preferably < 0.5, determined after milling according to the described method.
Method for producing flat, fiber-reinforced semi-finished products for fiber-plastics composite components, in which continuous fibers (2, 2', 2", 2"', 2"") are deposited in at least two layers one on top of the other during a continuous transport of these layers by means of a layer transport mechanism in a transport direction, wherein the fiber orientation in a first layer of the at least two layers differs from the fiber orientation in at least one further layer of the at least two layers during the transport of the at least two layers , wherein the continuous fibers (2, 2', 2", 2"', 2"") of the at least two layers are deposited without lateral support of the continuous fibers (2, 2', 2", 2"', 2"") in a semi-finished product contour shape which has at least two laying devices (7, 7', 7", 7"', 7"") and is independent of the width of a transport belt used and/or the width of the layer transport mechanism, but does not extend beyond the width of the transport belt and/or the width of the layer transport mechanism and are cut to length so as to correspond to the relevant width of the semi-finished product contour shape after being deposited at least partially on one of the layers during the transport of the relevant layer and at least one continuous reinforcing fiber forming a reinforcing piece is laid in at least one region of the semi-finished product contour shape on the layers .
An automatic analyser comprising: a specimen dispensing mechanism that includes a specimen nozzle dispensing a specimen to be analyzed in a specimen chamber to a reaction chamber by suctioning and ejecting the specimen; and a control unit that controls the specimen dispensing mechanism so as to perform a specimen suctioning process of inserting the specimen nozzle into the specimen chamber and suctioning the specimen in the specimen chamber, a liquid suctioning process of suctioning a liquid by the specimen nozzle after the specimen suctioning process, and an ejection process of ejecting the liquid and a portion of the specimen in this order from the specimen nozzle to the empty reaction chamber, wherein the liquid is a liquid having a lower viscosity than the specimen, and the control unit controls the specimen dispensing mechanism so as to perform an air suctioning process of suctioning air by the specimen nozzle after the liquid suctioning process, characterized in that the control unit controls the ejection process so that the air, the liquid, and the portion of the specimen are ejected in this order from the specimen nozzle in the ejection process. a specimen dispensing mechanism that includes a specimen nozzle dispensing a specimen to be analyzed in a specimen chamber to a reaction chamber by suctioning and ejecting the specimen; and a control unit that controls the specimen dispensing mechanism so as to perform a specimen suctioning process of inserting the specimen nozzle into the specimen chamber and suctioning the specimen in the specimen chamber, a liquid suctioning process of suctioning a liquid by the specimen nozzle after the specimen suctioning process, and an ejection process of ejecting the liquid and a portion of the specimen in this order from the specimen nozzle to the empty reaction chamber, wherein the liquid is a liquid having a lower viscosity than the specimen, and the control unit controls the specimen dispensing mechanism so as to perform an air suctioning process of suctioning air by the specimen nozzle after the liquid suctioning process, characterized in that the control unit controls the ejection process so that the air, the liquid, and the portion of the specimen are ejected in this order from the specimen nozzle in the ejection process.
A method for forming an improved sealed joint between at least first and second formed or shaped ceramic silicon carbide (SiC) structures, the method comprising: a) providing at least first and second shaped SiC ceramic structures comprising silicon carbide, the first and second joined ceramic structures being joined together by a joint therebetween, the joint comprising one or more of silicon and a silicon alloy, the joint including an exposed portion; b) converting at least a portion of the one or more of silicon and a silicon alloy of the joint to silicon nitride by heating the at least first and second ceramic structures and the joint to a temperature within the range of 1300 to 1450°C in an inert atmosphere, then switching from an inert to a reactive atmosphere, wherein the reactive atmosphere comprises nitrogen or nitrogen and hydrogen. a) providing at least first and second shaped SiC ceramic structures comprising silicon carbide, the first and second joined ceramic structures being joined together by a joint therebetween, the joint comprising one or more of silicon and a silicon alloy, the joint including an exposed portion; b) converting at least a portion of the one or more of silicon and a silicon alloy of the joint to silicon nitride by heating the at least first and second ceramic structures and the joint to a temperature within the range of 1300 to 1450°C in an inert atmosphere, then switching from an inert to a reactive atmosphere,
Door leaf , comprising : - a leaf frame formed from hollow profiled struts ; - a substantially circumferential reinforcing profile received in a reinforcing chamber of the leaf frame , and - a filler element received in the leaf frame ; wherein at least one profile strut of the leaf frame comprises a further reinforcing chamber , in which a reinforcing profile is received, the profile strut of the hollow profiles of the leaf frame comprising between the reinforcing chamber and the further reinforcing chamber at least one receiving chamber for receiving functional elements , characterized in that at least one functional element , which is configured as a lock box , is received in the receiving chamber , and the lock box rests on the webs , adjoining the receiving chamber , of the reinforcing chamber and the further reinforcing chamber . - a leaf frame formed from hollow profiled struts ; - a substantially circumferential reinforcing profile received in a reinforcing chamber of the leaf frame , and - a filler element received in the leaf frame ; wherein at least one profile strut of the leaf frame comprises a further reinforcing chamber , in which a reinforcing profile is received, the profile strut of the hollow profiles of the leaf frame comprising between the reinforcing chamber and the further reinforcing chamber at least one receiving chamber for receiving functional elements , characterized in that at least one functional element , which is configured as a lock box , is received in the receiving chamber , and the lock box rests on the webs , adjoining the receiving chamber , of the reinforcing chamber and the further reinforcing chamber .
A steel sheet comprising, as a composition, by mass%: C: 0.0003% to 0.0100%; Si: 0.005% to 1.500%; Mn: 0.010% to 3.000%; Al: 0.005% to 1.000%; P: 0.100% or less; S: 0.0200% or less; N: 0.0150% or less; O: 0.0100% or less; V: 0% to 0.50%; Cr: 0% to 1.00%; Ni: 0% to 1.00%; Cu: 0% to 1.00%; Mo: 0% to 1.00%; W: 0% to 1.00%; B: 0% to 0.0100%; Sn: 0% to 1.00%; Sb: 0% to 0.20%; one or two or more selected from the group consisting of Ca, Ce, Mg, Zr, La, and REM: 0% to 0.0100% in total; one or two selected from the group consisting of Ti: 0.010% to 0.100% and Nb: 0.005% to 0.060%; and a remainder consisting of Fe and impurities, wherein Expression 1 is satisfied, a microstructure at a 1/4 thickness position from a surface in a sheet thickness direction includes, by vol%, ferrite: 95% or more and a remainder of the microstructure: 5% or less, has a proportion of unrecrystallized ferrite in the ferrite of 5% or less, and a half width w and an X-ray wavelength λ at a peak of plane of the ferrite satisfy Expression 2, 0.80 ≤ Ti / 48 − N / 14 + Nb / 93 / C / 12 ≤ 5.00 w × λ ≥ 0.20 wherein each of Ti, N, Nb, and C in Expression 1 represents a content by mass% of the element, and when the element is not included, 0 is substituted as the content of the element and wherein the microstructure, and the half width w and X-ray wavelength λ at a peak of plane of the ferrite, are measured as described in the description. C: 0.0003% to 0.0100%; Si: 0.005% to 1.500%; Mn: 0.010% to 3.000%; Al: 0.005% to 1.000%; P: 0.100% or less; S: 0.0200% or less; N: 0.0150% or less; O: 0.0100% or less; V: 0% to 0.50%; Cr: 0% to 1.00%; Ni: 0% to 1.00%; Cu: 0% to 1.00%; Mo: 0% to 1.00%; W: 0% to 1.00%; B: 0% to 0.0100%; Sn: 0% to 1.00%; Sb: 0% to 0.20%; one or two or more selected from the group consisting of Ca, Ce, Mg, Zr, La, and REM: 0% to 0.0100% in total; one or two selected from the group consisting of Ti: 0.010% to 0.100% and Nb: 0.005% to 0.060%; and a remainder consisting of Fe and impurities, wherein Expression 1 is satisfied, a microstructure at a 1/4 thickness position from a surface in a sheet thickness direction includes, by vol%, ferrite: 95% or more and a remainder of the microstructure: 5% or less, has a proportion of unrecrystallized ferrite in the ferrite of 5% or less, and a half width w and an X-ray wavelength λ at a peak of plane of the ferrite satisfy Expression 2, 0.80 ≤ Ti / 48 − N / 14 + Nb / 93 / C / 12 ≤ 5.00 w × λ ≥ 0.20 wherein each of Ti, N, Nb, and C in Expression 1 represents a content by mass% of the element, and when the element is not included, 0 is substituted as the content of the element and wherein the microstructure, and the half width w and X-ray wavelength λ at a peak of plane of the ferrite, are measured as described in the description.
A pillar structure for a biochip, which forms a biochip for analyzing a sample cell, together with a well plate that receives a culture solution, comprising: a substrate which has a plate-shaped structure; and pillar members , each of which has one side detachably coupled to the substrate and the other side on which the sample cell is disposed, wherein the disposed sample cell on the pillar members is measured by a microscope through the pillar portion through which light penetrates, characterized in that each of the pillar members includes a coupling portion to be coupled to the substrate , the coupling portions are fitted with multiple fitting portions arranged on the substrate at predetermined intervals and each of the fitting portions on the substrate includes four fitting protrusions arranged at intervals around an outer circumferential surface of the coupling portion so that a range of the coupling portion , which is exposed to light, is prevented from being reduced after the pillar members are coupled to the substrate . a substrate which has a plate-shaped structure; and pillar members , each of which has one side detachably coupled to the substrate and the other side on which the sample cell is disposed, wherein the disposed sample cell on the pillar members is measured by a microscope through the pillar portion through which light penetrates, characterized in that each of the pillar members includes a coupling portion to be coupled to the substrate , the coupling portions are fitted with multiple fitting portions arranged on the substrate at predetermined intervals and each of the fitting portions on the substrate includes four fitting protrusions arranged at intervals around an outer circumferential surface of the coupling portion so that a range of the coupling portion , which is exposed to light, is prevented from being reduced after the pillar members are coupled to the substrate .
A method of seismic exploration above a region of the subsurface of the earth containing structural or stratigraphic features conducive to the presence, migration, or accumulation of hydrocarbons, wherein a marine seismic array is towed, by a vessel, proximate to the region of the subsurface of the earth, said marine seismic array comprising a plurality of marine seismic sources organized into two or more subarrays, each of said subarrays having one or more of said marine seismic sources associated therewith, the method comprising: (a) towing said marine seismic array to a location proximate to the region of the subsurface of the earth; (b) determining a distance of each of said subarrays to said vessel; (c) while said vessel is moving, sequentially activating each of said subarrays in turn according to its said determined distance from said vessel beginning with a most distant one of said plurality of subarrays; (d) recording seismic data while said each of said subarrays is activated; (e) reconstructing a plurality of seismic traces from said recorded seismic data; and (f) using said plurality of seismic traces to image at least a portion of the subsurface of the earth; the method being characterized in that step (e) comprises: separating individual activations of each of said plurality of subarrays by solving: d = Am , where m is said plurality of seismic traces, d is said recorded seismic data, and A is a set of Popcorn signatures, wherein said Popcorn signatures are the composite signatures that are formed when the marine seismic sources in a set are activated according to step (c); and creating post-acquisition arrays from the individual activations, wherein the post-acquisition arrays have lengths that are based on a length of at least one inline spacing of the seismic sources and the vessel speed. (a) towing said marine seismic array to a location proximate to the region of the subsurface of the earth; (b) determining a distance of each of said subarrays to said vessel; (c) while said vessel is moving, sequentially activating each of said subarrays in turn according to its said determined distance from said vessel beginning with a most distant one of said plurality of subarrays; (d) recording seismic data while said each of said subarrays is activated; (e) reconstructing a plurality of seismic traces from said recorded seismic data; and (f) using said plurality of seismic traces to image at least a portion of the subsurface of the earth; separating individual activations of each of said plurality of subarrays by solving: d = Am , where m is said plurality of seismic traces, d is said recorded seismic data, and A is a set of Popcorn signatures, wherein said Popcorn signatures are the composite signatures that are formed when the marine seismic sources in a set are activated according to step (c); and creating post-acquisition arrays from the individual activations, wherein the post-acquisition arrays have lengths that are based on a length of at least one inline spacing of the seismic sources and the vessel speed.