mhurhangee/patent-ind-claim-en huggingface dataset:
Luminaire, comprising - a luminaire rear wall for mounting to a wall or ceiling , - a printed circuit board , fitted with a plurality of light-emitting diodes as light-emitting means, and - a spacer which is fixedly mounted to the luminaire rear wall and to which the printed circuit board is releasably attached, with a free space being formed between the printed circuit board and the luminaire rear wall , wherein a ballast of the light-emitting means is arranged in a separate housing in the free space between the printed circuit board and the luminaire rear wall , characterized in that - the printed circuit board has a connecting cable , which is connected to a connecting clamp , to which a supply cable is able to be clamped, wherein the whole connecting cable or a majority thereof and the connecting clamp are arranged in the free space , - wherein the spacer and the printed circuit board are fastened to one another by way of a releasable snap-fit connection, - wherein the spacer has a latching hook and the printed circuit board has a cutout , and the latching hook is releasably hooked in the cutout , - wherein the spacer has a cylindrical main body , which is fixedly connected to the luminaire rear wall by way of a first end side , - wherein the ballast, in particular the housing thereof, is embodied in the form of the spacer . - a luminaire rear wall for mounting to a wall or ceiling , - a printed circuit board , fitted with a plurality of light-emitting diodes as light-emitting means, and - a spacer which is fixedly mounted to the luminaire rear wall and to which the printed circuit board is releasably attached, with a free space being formed between the printed circuit board and the luminaire rear wall , wherein a ballast of the light-emitting means is arranged in a separate housing in the free space between the printed circuit board and the luminaire rear wall , characterized in that - the printed circuit board has a connecting cable , which is connected to a connecting clamp , to which a supply cable is able to be clamped, wherein the whole connecting cable or a majority thereof and the connecting clamp are arranged in the free space , - wherein the spacer and the printed circuit board are fastened to one another by way of a releasable snap-fit connection, - wherein the spacer has a latching hook and the printed circuit board has a cutout , and the latching hook is releasably hooked in the cutout , - wherein the spacer has a cylindrical main body , which is fixedly connected to the luminaire rear wall by way of a first end side , - wherein the ballast, in particular the housing thereof, is embodied in the form of the spacer .
Method of determining a size of an implant to be implanted into a valve in an organ, the method comprising: - generating, by a computer, a three-dimensional, 3-D, model of the organ from scanned images of the organ; - defining a 3-D valve annulus of the valve; - fitting, by the computer, a first plane through the 3-D valve annulus: - measuring, by the computer, a distance between a first location of a relevant anatomical structure of the organ in the 3-D model and a second location of the relevant anatomical structure in the 3-D model; - defining an average diameter of at least one cross section of the 3-D model around the valve annulus comprising; - slicing the 3-D model above and below the first plane to obtain two or more parallel cross-sections; - capturing, by the computer, a contour of lumen through each cross-section: - extracting, by the computer, an average measurement for each cross-section: - determining, by the computer, the size of the implant to be implanted based on the measured distance and the average diameter. - generating, by a computer, a three-dimensional, 3-D, model of the organ from scanned images of the organ; - defining a 3-D valve annulus of the valve; - fitting, by the computer, a first plane through the 3-D valve annulus: - measuring, by the computer, a distance between a first location of a relevant anatomical structure of the organ in the 3-D model and a second location of the relevant anatomical structure in the 3-D model; - defining an average diameter of at least one cross section of the 3-D model around the valve annulus comprising; - slicing the 3-D model above and below the first plane to obtain two or more parallel cross-sections; - capturing, by the computer, a contour of lumen through each cross-section: - extracting, by the computer, an average measurement for each cross-section: - slicing the 3-D model above and below the first plane to obtain two or more parallel cross-sections; - capturing, by the computer, a contour of lumen through each cross-section: - extracting, by the computer, an average measurement for each cross-section: - determining, by the computer, the size of the implant to be implanted based on the measured distance and the average diameter.
A longitudinal separating and welding device for separating and welding an upper paper web and a lower paper web , wherein the longitudinal separating and welding device comprises at least a first pair of circulating endless elements (134, 136; 144, 146) which draw in the first and second paper webs between them and guide them in a paper web plane , wherein the longitudinal separating and welding device comprises a welding device , wherein the welding device has a heatable welding wheel for welding the paper webs and a pressing assembly for supporting the paper webs against the welding wheel , wherein the pressing assembly comprises at least one pressing wheel , in particular exactly two pressing wheels, wherein the welding wheel is adjustable between a working position, in which the pressing assembly is in contact with the welding wheel , and a rest position, in which the welding wheel is spaced from the pressing assembly , and wherein the welding device comprises at least one pre-tensioning element which biases the welding wheel into the rest position, wherein the overlapping paper webs are in contact with the welding wheel in a contact area in the working position, wherein exactly two pressing wheels are provided for supporting the paper webs against the welding wheel , wherein the two pressing wheels are spaced apart from each other in the transport direction (T) and are arranged on a first side of the overlapping paper webs with respect to the paper web plane , which opposes a second side of the overlapping paper webs on which the welding wheel is arranged, wherein the contact area is located between the two pressing wheels , and wherein the contact area is configured such that the overlapping paper webs at least partially wrap around the welding wheel along an outer circumference.
Device for automating the assembly of at least two parts with a gripping device comprising a plurality of gripping units for gripping the parts at gripping points, with the gripping units being moveable relative to each other and all together, each gripping unit comprising a pair of 2 fingers for gripping one part and an arm for moving said pair of 2 fingers , and the fingers of each pair being moveable, characterized in that the parts are mirror parts of automotive mirrors, are each provided with at least one standard gripping point and comprise an electrical module and a flexible circuit board , a control unit cooperates with the gripping device , wherein the control unit is configured to control the gripping units for gripping the parts at the standard gripping points and assembling the parts by controlling the gripping device and to control each pair of fingers for gripping a branch of a flexible circuit board having a plurality of branches to insert terminals (41-46) or wire harnesses carried by the branches into electrical modules , and the gripping units are designed to be moved in different directions during the assembling. the gripping units being moveable relative to each other and all together, each gripping unit comprising a pair of 2 fingers for gripping one part and an arm for moving said pair of 2 fingers , and the fingers of each pair being moveable, characterized in that the parts are mirror parts of automotive mirrors, are each provided with at least one standard gripping point and comprise an electrical module and a flexible circuit board , a control unit cooperates with the gripping device , wherein the control unit is configured to control the gripping units for gripping the parts at the standard gripping points and assembling the parts by controlling the gripping device and to control each pair of fingers for gripping a branch of a flexible circuit board having a plurality of branches to insert terminals (41-46) or wire harnesses carried by the branches into electrical modules , and the gripping units are designed to be moved in different directions during the assembling.
Multilayer body arrangement for the prevention of glass substrate deformation, comprising: - a multilayer body having a glass substrate , a functional coating , which is applied on one side of the glass substrate , an auxiliary layer , which is areally connected to the side of the glass substrate facing away from the functional coating , wherein the functional coating includes precursor layers for conversion into a semiconductor layer of a thin-film solar cell, - two emitter arrays with a process level lying therebetween, in which the multilayer body is disposed, with a radiated power P tot in the wavelength range from 250 nm to 4000 nm incident on the glass substrate for heat-treating the functional coating , wherein the auxiliary layer has an absorbed radiated power P 20 from 10% to 60% of the incident radiated power P tot . - a multilayer body having a glass substrate , a functional coating , which is applied on one side of the glass substrate , an auxiliary layer , which is areally connected to the side of the glass substrate facing away from the functional coating , wherein the functional coating includes precursor layers for conversion into a semiconductor layer of a thin-film solar cell, - two emitter arrays with a process level lying therebetween, in which the multilayer body is disposed, with a radiated power P tot in the wavelength range from 250 nm to 4000 nm incident on the glass substrate for heat-treating the functional coating ,
A heat-conductive resin composition comprising an inorganic filler component and a resin component, wherein the inorganic filler component comprises a first inorganic filler and a second inorganic filler, a particle size distribution of the inorganic filler component has a first maximum point caused by the first inorganic filler and a second maximum point caused by the second inorganic filler, a particle diameter at the first maximum point is 15 pm or more, a particle diameter at the second maximum point is 30% or more and 2/3 or less of the particle diameter at the first maximum point, an integrated amount of frequency between a peak start and a peak end in a peak having the first maximum point is 70% or more, an integrated amount of frequency between a peak start and a peak end in a peak having the second maximum point is 25% or more, and the first inorganic filler is formed by agglomerating hexagonal boron nitride primary particles and has a crushing strength of 6 MPa or more. the inorganic filler component comprises a first inorganic filler and a second inorganic filler, a particle size distribution of the inorganic filler component has a first maximum point caused by the first inorganic filler and a second maximum point caused by the second inorganic filler, a particle diameter at the first maximum point is 15 pm or more, a particle diameter at the second maximum point is 30% or more and 2/3 or less of the particle diameter at the first maximum point, an integrated amount of frequency between a peak start and a peak end in a peak having the first maximum point is 70% or more, an integrated amount of frequency between a peak start and a peak end in a peak having the second maximum point is 25% or more, and the first inorganic filler is formed by agglomerating hexagonal boron nitride primary particles and has a crushing strength of 6 MPa or more.
A compound of the Formula I; wherein R is selected from the group consisting of a C 4 to C 28 linear or branched alkyl, linear or branched C 4 to C 28 alkenyl and a linear or branched C 4 to C 28 alkynyl group; or a pharmaceutically acceptable salt thereof.
A method, comprising: obtaining a surgical instrument having: a handle assembly ; a power assembly ; a shaft assembly comprising an end effector ; and a data storage protocol, wherein a surgical function has been performed with the surgical instrument and data has been recorded during the performance of the surgical function, and wherein the data includes data relating to conditions within the surgical instrument; storing data on the surgical instrument in accordance with the data storage protocol; and entering a key into the surgical instrument to override the data storage protocol. obtaining a surgical instrument having: a handle assembly ; a power assembly ; a shaft assembly comprising an end effector ; and a data storage protocol, wherein a surgical function has been performed with the surgical instrument and data has been recorded during the performance of the surgical function, and wherein the data includes data relating to conditions within the surgical instrument; a handle assembly ; a power assembly ; a shaft assembly comprising an end effector ; and a data storage protocol, wherein a surgical function has been performed with the surgical instrument and data has been recorded during the performance of the surgical function, and wherein the data includes data relating to conditions within the surgical instrument; storing data on the surgical instrument in accordance with the data storage protocol; and entering a key into the surgical instrument to override the data storage protocol.
A fuel filter comprising: A mesh filter screen including a first hollow member ; and a heating element disposed within the first hollow member ; characterised by further comprising: a coating formed of a thermally conductive, electrically insulating ceramic in a hydrodynamic filtering pattern surrounding the mesh filter screen but having a different shape than a shape of the hollow member , wherein the hydrodynamic filtering pattern includes a plurality of bellmouth apertures . A mesh filter screen including a first hollow member ; and a heating element disposed within the first hollow member ; characterised by further comprising: a coating formed of a thermally conductive, electrically insulating ceramic in a hydrodynamic filtering pattern surrounding the mesh filter screen but having a different shape than a shape of the hollow member , wherein the hydrodynamic filtering pattern includes a plurality of bellmouth apertures .
A flow channel member comprising: a plurality of discharge elements that discharge liquid; a plurality of first discrete flow channels , each allocated for each one of the discharge elements ; a plurality of second discrete flow channels , each allocated for each one of the discharge elements ; a first common flow channel extending from one side (D1a) to another side (D1b) in a first direction (D1) and connected commonly to the plurality of first discrete flow channels ; a first opening that connects the first common flow channel and an outside; wherein the first opening is located on the one side (D1a) of the first common flow channel in the first direction (D1), , characterized by comprising a second common flow channel extending from the one side (D1a) to the other side (D1b) in the first direction (D1) and connected commonly to the plurality of second discrete flow channels ; and a second opening that connects the second common flow channel and the outside, wherein the second opening is located on the one side (D1a) of the second common flow channel in the first direction (D1), the flow channel member further comprises a plurality of the first common flow channels , each including the first opening , and a plurality of the second common flow channels , each including the second opening , and wherein the first openings and the second openings are alternately disposed in a second direction (D2) crossing the first direction (D1). a plurality of discharge elements that discharge liquid; a plurality of first discrete flow channels , each allocated for each one of the discharge elements ; a plurality of second discrete flow channels , each allocated for each one of the discharge elements ; a first common flow channel extending from one side (D1a) to another side (D1b) in a first direction (D1) and connected commonly to the plurality of first discrete flow channels ; a first opening that connects the first common flow channel and an outside; wherein the first opening is located on the one side (D1a) of the first common flow channel in the first direction (D1), , characterized by comprising a second common flow channel extending from the one side (D1a) to the other side (D1b) in the first direction (D1) and connected commonly to the plurality of second discrete flow channels ; and a second opening that connects the second common flow channel and the outside, wherein the second opening is located on the one side (D1a) of the second common flow channel in the first direction (D1), the flow channel member further comprises a plurality of the first common flow channels , each including the first opening , and a plurality of the second common flow channels , each including the second opening , and wherein the first openings and the second openings are alternately disposed in a second direction (D2) crossing the first direction (D1).
Multi-slot interface for a battery-operated electrical device or a battery charger for the electrical and mechanical coupling of at least one battery pack , wherein the multislot interface is designed in such a way that either a first battery pack with a higher first voltage, for example a battery pack with a voltage of 36V, or at least two second battery packs with a lower second voltage, for example two battery packs with a voltage of 18V, can be coupled via the multislot interface , in order to supply the drive unit with electrical voltage or in order to be able to be charged by the battery charger, the multislot interface having at least three battery holders for mechanically coupling the battery packs , which are arranged in such a way that a coupled battery pack of a first or second voltage blocks the simultaneous mechanical coupling of a battery pack of a respective other voltage, characterised in that a blocking element is provided between two adjacent battery holders , which is mounted so as to be displaceable or rotatable relative to the battery holders and, depending on its position or orientation, is capable of projecting laterally into at least one of the adjacent battery holders . wherein the multislot interface is designed in such a way that either a first battery pack with a higher first voltage, for example a battery pack with a voltage of 36V, or at least two second battery packs with a lower second voltage, for example two battery packs with a voltage of 18V, can be coupled via the multislot interface , in order to supply the drive unit with electrical voltage or in order to be able to be charged by the battery charger, the multislot interface having at least three battery holders for mechanically coupling the battery packs , which are arranged in such a way that a coupled battery pack of a first or second voltage blocks the simultaneous mechanical coupling of a battery pack of a respective other voltage, characterised in that a blocking element is provided between two adjacent battery holders , which is mounted so as to be displaceable or rotatable relative to the battery holders and, depending on its position or orientation, is capable of projecting laterally into at least one of the adjacent battery holders .
An active encasement for a mattress or foundation comprising: a rectangular top panel defining an exterior surface and an interior surface; a rectangular bottom panel including an exterior surface and an interior surface , said interior surface of said bottom panel is formed as a slick surface; wherein the exterior surface of the bottom panel is formed with an integrally formed inflatable volume ; and wherein said exterior surface is formed at least partially from non-slick material ; four side panels , one or more of the four side panels includes a first zipper defining an upper side panel portion and a lower side panel portion to be zippered together; and wherein the active encasement further comprises: an adjustable air valve for varying the air pressure inside the inflatable volume , characterized in that the adjustable air valve is a second zipper . a rectangular top panel defining an exterior surface and an interior surface; a rectangular bottom panel including an exterior surface and an interior surface , said interior surface of said bottom panel is formed as a slick surface; wherein the exterior surface of the bottom panel is formed with an integrally formed inflatable volume ; and wherein said exterior surface is formed at least partially from non-slick material ; four side panels , one or more of the four side panels includes a first zipper defining an upper side panel portion and a lower side panel portion to be zippered together; and wherein the active encasement further comprises: an adjustable air valve for varying the air pressure inside the inflatable volume , characterized in that the adjustable air valve is a second zipper .
A non-natural immunoglobulin (Ig) binding protein comprising one or more non-natural Ig-binding domains, wherein at least one non-natural Ig-binding domain comprises the amino acid sequence X 1 X 2 X 3 X 4 X 5 X e X 7 X 8 QQX 11 AFYEILHLPX 21 LTEX 25 QRX 28 AFIQSLKDDPSX 40 SX 42 X 43 X 44 LX 46 EAX 49 KLX 52 X 53 X 54 QAPX 58 (SEQ ID NO: 38), wherein X 1 is N, V, P, or A; X 2 is D or A; X 3 is A, S, or N; X 4 is K or Q; X 5 is H or F; X 6 is D, S, or A; X 7 is E or K; X 8 is D, E or A; X 11 is S or N; X 21 is N, S, or D; X 25 is D or E; X 28 is N, S, or A; X 40 is V, T, or Q; X 42 is K or A; X 43 is E or S; X 44 is V, L, or I; X 46 is G or A; X 49 is K or Q; X 52 is N, S, or D; X 53 is D or E; X 54 is S or A; and X 58 is K or P; wherein the dissociation constant K D of said non-natural Ig-binding protein to human IgG1 is 1 μM or less, preferably 100 nM or less, and wherein said non-natural Ig-binding protein is stable under alkaline conditions. X 1 is N, V, P, or A; X 2 is D or A; X 3 is A, S, or N; X 4 is K or Q; X 5 is H or F; X 6 is D, S, or A; X 7 is E or K; X 8 is D, E or A; X 11 is S or N; X 21 is N, S, or D; X 25 is D or E; X 28 is N, S, or A; X 40 is V, T, or Q; X 42 is K or A; X 43 is E or S; X 44 is V, L, or I; X 46 is G or A; X 49 is K or Q; X 52 is N, S, or D; X 53 is D or E; X 54 is S or A; and X 58 is K or P;
A silicon-nanographite aerogel for use as an anode in a battery, such as a lithium ion battery, comprising a matrix of nanographite flakes consisting of a mixture of graphene, multilayer graphene and graphite nanoplatelets, and silicon nanoparticles having a diameter between 1 nm and 100 nm, whereby the aerogel has a three-dimensional structure with pores between the flakes, whereby the specific surface area accommodates a volume expansion of the silicon nanoparticles of at least 400% during lithiation, and wherein the surfaces of the nanographite flakes are for 10 to 90% covered with nanoparticles of silicon.