mhurhangee/ep-ind-claims huggingface dataset:
A sound absorption plate with a unit structure, comprising an ultramicropore sound absorption front plate, a side plate and a sound absorption back plate, edge parts of the ultramicropore sound absorption front plate being connected to the sound absorption back plate through the side plate, thereby forming a sound absorption resonant cavity, characterized in that the material of the ultramicropore sound absorption front plate is a metal material carrying nano microspheres, and a pore size of the nano microspheres in the ultramicropore sound absorption front plate is 100-1000 nm. ultramicropore sound absorption front plate, a side plate and a sound absorption back plate, edge parts of the ultramicropore sound absorption front plate being connected to the sound absorption back plate through the side plate, thereby forming a sound absorption resonant cavity, characterized in that the material of the ultramicropore sound absorption front plate is a metal material carrying nano microspheres, and a pore size of the nano microspheres in the ultramicropore sound absorption front plate is 100-1000 nm.
An electronic device, comprising: an image sensor including a plurality of pixels; an auto focus, AF, processing unit configured to perform calculation for performing auto focus based on a phase difference; a memory; and at least one processor configured to deliver data obtained by the image sensor to the AF processing unit or the memory, wherein each pixel included in the plurality of pixels includes a plurality of photo diodes and a microlens configured to cover the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with first AF data of photo diodes arranged in a first direction among the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with second AF data of photo diodes arranged in a second direction among the plurality of photo diodes by rotating or reordering the second AF data to have a data structure in the first direction, and wherein the AF processing unit performs first phase auto focus, PAF, calculation based on the first AF data and performs second PAF calculation based on the second AF data. an image sensor including a plurality of pixels; an auto focus, AF, processing unit configured to perform calculation for performing auto focus based on a phase difference; a memory; and at least one processor configured to deliver data obtained by the image sensor to the AF processing unit or the memory, wherein each pixel included in the plurality of pixels includes a plurality of photo diodes and a microlens configured to cover the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with first AF data of photo diodes arranged in a first direction among the plurality of photo diodes, wherein the at least one processor is configured to provide the AF processing unit with second AF data of photo diodes arranged in a second direction among the plurality of photo diodes by rotating or reordering the second AF data to have a data structure in the first direction, and wherein the AF processing unit performs first phase auto focus, PAF, calculation based on the first AF data and performs second PAF calculation based on the second AF data.
A method for bearer configuration, characterized by comprising: receiving, by a first node, a first request message from a second node, the first request message carrying first indication information, and the first indication information being used for determining, by the first node, whether to configure a default bearer, wherein the first node and the second node are a secondary node and a master node in a dual connectivity network respectively, wherein the first indication information is indicative of: whether the first node is to configure a mapping relationship between each data flow at the first node and a bearer; wherein the first indication information being used for determining, by the first node, whether to configure a default bearer comprises: if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer. receiving, by a first node, a first request message from a second node, the first request message carrying first indication information, and the first indication information being used for determining, by the first node, whether to configure a default bearer, wherein the first node and the second node are a secondary node and a master node in a dual connectivity network respectively, wherein the first indication information is indicative of: whether the first node is to configure a mapping relationship between each data flow at the first node and a bearer; wherein the first indication information being used for determining, by the first node, whether to configure a default bearer comprises: if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer. if the first indication information indicates that the first node is to configure a mapping relationship between each data flow at the first node and a bearer, the first node is not to configure the default bearer; and if the first indication information indicates that the first node is not to configure a mapping relationship between each data flow at the first node and a bearer, the first node determines whether to configure the default bearer.
A method for optimizing a metrology target design, comprising: a) receiving inputs including information relating to the metrology target design, information relating to a substrate on which the target is to be formed, information relating to a process used to form the metrology target, or information relating to a metrology system to be used to measure the metrology target; b) modeling acquisition of a metrology signal by the metrology system using the inputs to generate one or more optical characteristics of the metrology target; wherein b) includes modeling the acquisition of the metrology signal with a mathematical formula having a finite number of coefficients, and increasing a weight applied to a metrology contribution from one or more values of metrology characteristics for which a magnitude of higher coefficients are negligible and/or diminishing a weight of a metrology contribution from one or more values of metrology characteristics for which the magnitude of the higher coefficients are not negligible; c) applying a metrology algorithm to the one or more optical characteristics to determine a predicted accuracy and precision of one or more measurements made with the metrology system using the metrology target on the substrate; d) modifying at least a portion of the information relating to the metrology target design; d') repeating b), c) and d) to optimize the accuracy and precision of the one or more measurements; and e) displaying or storing information representing the metrology target design after the accuracy and precision are optimized. a) receiving inputs including information relating to the metrology target design, information relating to a substrate on which the target is to be formed, information relating to a process used to form the metrology target, or information relating to a metrology system to be used to measure the metrology target; b) modeling acquisition of a metrology signal by the metrology system using the inputs to generate one or more optical characteristics of the metrology target; wherein b) includes modeling the acquisition of the metrology signal with a mathematical formula having a finite number of coefficients, and increasing a weight applied to a metrology contribution from one or more values of metrology characteristics for which a magnitude of higher coefficients are negligible and/or diminishing a weight of a metrology contribution from one or more values of metrology characteristics for which the magnitude of the higher coefficients are not negligible; c) applying a metrology algorithm to the one or more optical characteristics to determine a predicted accuracy and precision of one or more measurements made with the metrology system using the metrology target on the substrate; d) modifying at least a portion of the information relating to the metrology target design; d') repeating b), c) and d) to optimize the accuracy and precision of the one or more measurements; and e) displaying or storing information representing the metrology target design after the accuracy and precision are optimized.
A seal for a bearing arrangement for sealing an interior space between at least two parts (4, 5) of the bearing arrangement rotatable relatively to each other, in which the interior space contains a lubricant, wherein the seal comprises a seal part which is shaped for conveying the lubricant with a direction component pointing into the interior space, characterized in that the seal comprises a seal body connected to the seal part, wherein the seal part comprises an edge with a lubricant-guiding edge profile, which is a periodically repeated pattern, wherein the edge of the seal part protrudes the seal body into the interior space.
Device (1; 101; 201) for controlled supply of a medical gas, comprising a main body (2; 102; 202) which has, defined therein, at least one flow supply path extending between an inlet (3; 103; 203) and an outlet (4; 104; 204); and a threaded fitting (40; 140; 240) for connection to a user appliance; said threaded fitting (40; 140; 240) communicating with the flow supply path and having at least one first threaded connector (41; 141; 241) defining the outlet (4; 104; 204) of said path, said device (1; 101; 201) further comprising means (5; 105; 205) for fastening the threaded fitting (40; 140; 240) to the main body (2; 102; 202), which can be released from the outside of the main body (2; 102; 202) so as to allow removal of said threaded fitting (40; 140; 240); wherein said threaded fitting (40; 140; 240) has the first threaded connector (41; 141; 241) at one of its ends and a second threaded connector (42; 142; 242) at the opposite end; said threaded fitting (40; 140; 240) being able to be alternately positioned in two operating configurations where the threaded fitting (40' 140; 240) has respectively the first threaded connector (41; 141; 241) or the second threaded connector (42; 142; 242) directed downstream so as to define the outlet (4; 104; 204) of the flow supply path, release of said fastening means (5; 105; 205) allowing the operating configuration of said threaded fitting (40; 140; 240) to be modified; characterized in that said first threaded connector (41; 141; 241) and second threaded connector (42; 142; 242) comply with two different standards, namely have different diameter sizes and/or thread parameters.
A windscreen apparatus comprising: at least one windscreen; and a controller configured to calculate position of objects within a field of view of the at least one windscreen; wherein light transmission properties of the at least one windscreen is selectively controllable by the controller to cause changes in light transmissivity of the at least one windscreen based on the calculated position of the objects within the field of view, and wherein light transmission properties of the at least one windscreen is selectively controllable by the controller to cause rendering of textual or graphic information on the at least one windscreen based on the calculated position. at least one windscreen; and a controller configured to calculate position of objects within a field of view of the at least one windscreen; wherein light transmission properties of the at least one windscreen is selectively controllable by the controller to cause changes in light transmissivity of the at least one windscreen based on the calculated position of the objects within the field of view, and wherein light transmission properties of the at least one windscreen is selectively controllable by the controller to cause rendering of textual or graphic information on the at least one windscreen based on the calculated position.
Additive manufacturing apparatus comprising: a controller to: receive object data relating to an object to be generated; define print data for additive manufacture of the object by ejection of a print agent on build material in a pattern corresponding to selective fusing of the build material, and a print agent distributor to eject a print agent on build material based on the print data, characterized in that the print data is defined based on the object data so that the pattern defines a shield feature embedded within the object to inhibit fusing of build material corresponding to the shield feature relative build material corresponding to an adjacent portion of the object. receive object data relating to an object to be generated; define print data for additive manufacture of the object by ejection of a print agent on build material in a pattern corresponding to selective fusing of the build material, and a print agent distributor to eject a print agent on build material based on the print data, characterized in that the print data is defined based on the object data so that the pattern defines a shield feature embedded within the object to inhibit fusing of build material corresponding to the shield feature relative build material corresponding to an adjacent portion of the object.
A dental composite comprising a polymerizable resin base and 10% by volume to 80% by volume filler comprising a ground structural filler, a prepolymerized filler, and a nanofiller, wherein the structural filler comprises between 10% by volume and 70% by volume of the composite and consists of particles that have been ground to a mean particle size between 0.05 μm and 0.50 μm, wherein the ground structural filler contains less than 50% by volume of particles above 0.5 μm in diameter, wherein the prepolymerized filler comprises at least 1% by volume of the composite and consists of an inorganic portion and a polymerized organic resin portion, and wherein the nanofiller comprises at least 0.01% by volume of the composite, the nanofiller comprising discrete, non-aggregated particles of mean particle size less than 100 nm.
Harvesting appliance, in particular an agricultural or industrial baler, preferably a press for forming round cylindrical pressed bales or a wrapping device for wrapping a pressed bale with an enveloping material, for example of the net or film type, having at least one roller (38, 86, 94) for supporting a pressed bale, and at least one weighing device (54a, 54b, 54c) for detecting the weight force of a pressed bale on the roller (38, 86, 94), having at least one weighing means, wherein the weighing means is integrated into a bearing device of the roller (38, 86, 94), characterized in that the weighing means is received at one end in a rotationally fixed manner in a supporting flange connected to a frame (14, 30) of the harvesting appliance.
A substrate coated with a coating, the coating comprising: a first region having a first thickness, wherein the first region is outermost and comprises Mn x O y, MnCr 2 O 4, or combinations thereof, wherein x and y are integers between 1 and 7; and a second region underlying the first region, the second region having a second thickness and the second region comprises X 6 W 6 (Si z, C 1-z), wherein X is Ni or a mixture of Ni and one or more transition metals and z ranges from 0 to 1, and wherein the second region has an overall composition comprising Ni in a range of 10-45 wt%, Mn in a range of 1.5-12 wt%, Fe in a range of 2-10 wt%, Si and/or C in a range of 5-10 wt%, W in a range of 35-80 wt%, and Cr in a range of 0.5-5 wt%, and optionally Nb in a range of 0-2 wt%, and Ti in a range of 0-2 wt%. a first region having a first thickness, wherein the first region is outermost and comprises Mn x O y, MnCr 2 O 4, or combinations thereof, wherein x and y are integers between 1 and 7; and a second region underlying the first region, the second region having a second thickness and the second region comprises X 6 W 6 (Si z, C 1-z), wherein X is Ni or a mixture of Ni and one or more transition metals and z ranges from 0 to 1, and wherein the second region has an overall composition comprising Ni in a range of 10-45 wt%, Mn in a range of 1.5-12 wt%, Fe in a range of 2-10 wt%, Si and/or C in a range of 5-10 wt%, W in a range of 35-80 wt%, and Cr in a range of 0.5-5 wt%, and optionally Nb in a range of 0-2 wt%, and Ti in a range of 0-2 wt%.
A method for producing wood composite materials, including the steps: - preparing a thermosetting resin by reacting a polycondensation-capable phenolic compound and/or an aminoplast-forming agent with 5-hydroxymethylfurfural to form polycondensation products under conditions leading to the formation of polycondensation products, - bringing the resin into contact with lignocellulose material, and - curing the resin to form the wood composite material, characterized in that the 5-hydroxymethylfurfural comprises at least one HMF oligomer. - preparing a thermosetting resin by reacting a polycondensation-capable phenolic compound and/or an aminoplast-forming agent with 5-hydroxymethylfurfural to form polycondensation products under conditions leading to the formation of polycondensation products, - bringing the resin into contact with lignocellulose material, and - curing the resin to form the wood composite material,
A multiple layer glass panel interlayer, comprising a polymer sheet comprising poly(vinyl butyral) having a residual poly(vinyl alcohol) content, by weight, of 5% to 50%, a phosphate ester plasticizer, and an epoxide stabilizer agent.
An air conditioning indoor unit having a body inside of which is disposed a filter cleaning device that actuates a filter placed on an upwind side of an indoor heat exchanger and removes dirt and dust adhered to the filter, the filter being formed in a loop shape, and characterized in that the filter cleaning device has a support frame that forms a predetermined revolving orbit for the filter and supports the filter at least from inside, a second support frame that holds the support frame, in a state where the support frame is supporting the filter, such that the support frame may be freely attached thereto and detached therefrom and wherein the second support frame includes guide grooves (251a, 252a,252b, 253a), and a drive mechanism that causes the filter to revolve along the support frame, and wherein first and second guide portions (243e, 244e) of the support frame are inserted into the guide grooves in the second support frame while causing the support frame to curve.
A puzzle apparatus comprising: a two-dimensional planar section comprising a plurality of planar pieces; a three-dimensional section comprising a plurality of three-dimensional pieces, each three-dimensional piece having a front face; couplings for coupling individual three-dimensional pieces together; and fasteners for coupling the two-dimensional planar section to the three-dimensional section; wherein each of the three-dimensional pieces comprises one or more foldable flaps; and wherein foldable flaps of adjacent three-dimensional pieces are folded back away from the front faces of the adjacent three-dimensional pieces and coupled together in face to face contact using one or more couplings behind the front faces of the adjacent three-dimensional pieces; and wherein the fasteners attach backs of two-dimensional pieces to backs of adjacent three-dimensional pieces. a two-dimensional planar section comprising a plurality of planar pieces; a three-dimensional section comprising a plurality of three-dimensional pieces, each three-dimensional piece having a front face; couplings for coupling individual three-dimensional pieces together; and fasteners for coupling the two-dimensional planar section to the three-dimensional section; wherein each of the three-dimensional pieces comprises one or more foldable flaps; and wherein foldable flaps of adjacent three-dimensional pieces are folded back away from the front faces of the adjacent three-dimensional pieces and coupled together in face to face contact using one or more couplings behind the front faces of the adjacent three-dimensional pieces; and wherein the fasteners attach backs of two-dimensional pieces to backs of adjacent three-dimensional pieces.
Profiled section system comprising at least two profiled elements (100, 100') with a guide device and at least one connecting device for connecting two profiled elements, whereby - the profiled elements (100, 100') have retaining grooves (101a, 101b) which run in the longitudinal direction and which receive the connecting device in a longitudinally movable manner and are open at the end face in order to insert the connecting device, and - the connecting device has a longitudinal piece with two longitudinal edges (3, 4), running substantially parallel, which are insertable in a slidable way into opposite, parallel running, retaining grooves (101a, 101b) of a profile element (100, 100') and which has a rotatable fixing element (2, 2') at opposite ends of the longitudinal piece in each case for fixing to a profiled element (100; 100'), and whereby the fixing elements (2, 2') are provided at opposite ends of the longitudinal piece in such a way that they are to be rotated in opposite directions from an insertion position (18, 18') into a fixing position (8, 8'), characterized in that - the fixing elements (2, 2') are rotatably borne on the longitudinal piece relative to the longitudinal piece, whereby the fixing element comprises an engagement piece which lies in a plane with the longitudinal edges (3, 4) of the longitudinal piece of the connecting device and which is rotated in an insertion position (18, 18') out of engagement with the profile element and in a fixing position (8, 8') in engagement with the profile element in this plane. - the profiled elements (100, 100') have retaining grooves (101a, 101b) which run in the longitudinal direction and which receive the connecting device in a longitudinally movable manner and are open at the end face in order to insert the connecting device, and - the connecting device has a longitudinal piece with two longitudinal edges (3, 4), running substantially parallel, which are insertable in a slidable way into opposite, parallel running, retaining grooves (101a, 101b) of a profile element (100, 100') and which has a rotatable fixing element (2, 2') at opposite ends of the longitudinal piece in each case for fixing to a profiled element (100; 100'), and whereby the fixing elements (2, 2') are provided at opposite ends of the longitudinal piece in such a way that they are to be rotated in opposite directions from an insertion position (18, 18') into a fixing position (8, 8'), - the fixing elements (2, 2') are rotatably borne on the longitudinal piece relative to the longitudinal piece, whereby the fixing element comprises an engagement piece which lies in a plane with the longitudinal edges (3, 4) of the longitudinal piece of the connecting device and which is rotated in an insertion position (18, 18') out of engagement with the profile element and in a fixing position (8, 8') in engagement with the profile element in this plane.