187 results about "Random array" patented technology

A method of identifying nucleic acid samples comprising: providing a mircoarray including a substrate coated with a composition including a population of micro-spheres dispersed in a fluid containing a gelling agent or a precursor to a gelling agent and immobilized at random positions on the substrate, at least one sub-population of said population micro-spheres containing an optical barcode generated from at least one colorant associated with the micro-spheres and including a nucleic acid probe sequence; contacting said array with a target nucleic acid sequence; and detecting the color barcode of said sub-population of micro-spheres due to the interaction of said probe nucleic acid sequence and said target nucleic acid sequence.

The invention relates to methods and devices for analyzing single molecules, i.e. nucleic acids. Such single molecules may be derived from natural samples, such as cells, tissues, soil, air and water without separating or enriching individual components. In certain aspects of the invention, the methods and devices are useful in performing nucleic acid sequence analysis by probe hybridization.

The present invention discloses structures and manufacturing processes of an ACF of improved resolution and reliability of electrical connection using a non-random array of microcavities of predetermined configuration, shape and dimension. The manufacturing process includes the steps of (i) fluidic filling of conductive particles onto a substrate or carrier web comprising a predetermined array of microcavities, or (ii) selective metallization of the array followed by filling the array with a filler material and a second selective metallization on the filled microcavity array. The thus prepared filled conductive microcavity array is then over-coated or laminated with an adhesive film.

The invention is directed to a method of sequencing low-complexity amplicons randomly arrayed at high density on a surface. Methods of the invention include preparing amplicons for sequencing by a sets of primers that ensure initial signals front different amplicons on the surface will be evenly distributed among the different nucleotides being added in a sequencing by synthesis operation.

Structures and manufacturing processes of an ACF array using a non-random array of microcavities of predetermined configuration, shape and dimension. The manufacturing process includes fluidic filling of conductive particles onto a substrate or carrier web comprising a predetermined array of microcavities, or selective metallization of the array followed by filling the array with a filler material and a second selective metallization on the filled microcavity array. The thus prepared filled conductive microcavity array is then over-coated or laminated with an adhesive film. Cavities in the array, and particles filling the cavities, can have a unimodal, bimodal, or multimodal distribution.

The invention discloses a binocular visible light camera and thermal infrared camera-based target identification method. The method comprises the steps of calibrating internal and external parametersof two cameras of a binocular visible light camera through a position relationship between an image collected by the binocular visible light camera and a pseudo-random array stereoscopic target in a world coordinate system, and obtaining a rotation and translation matrix position relationship, between world coordinate systems, of the two cameras; according to an image collected by a thermal infrared camera, calibrating internal and external parameters of the thermal infrared camera; calibrating a position relationship between the binocular visible light camera and the thermal infrared camera;performing binocular stereoscopic visual matching on the images collected by the two cameras of the binocular visible light camera by adopting a sift feature detection algorithm, and calculating a visible light binocular three-dimensional point cloud according to a matching result; performing information fusion on temperature information of the thermal infrared camera and the three-dimensional point cloud of the binocular visible light camera; and inputting an information fusion result to a trained deep neural network for performing target identification.

The invention discloses a true random number generation method and generator. The generation method comprises the following steps of: generating multiple paths of output signals by using a plurality of independent high-frequency oscillating rings; selecting a sampling clock signal from the multiple paths of output signals, and respectively sampling the other paths of output signals; and carrying out exclusive-OR operation on the obtained sampling results so as to obtain a true random array. In the true random number generation method disclosed by the embodiment of the invention, true random numbers are obtained by way of generating multiple paths of output signals by using a plurality of independent high-frequency oscillating rings, selecting a sampling clock signal from the output signals, and then sampling the other output signals, therefore, the randomness of the random number is increased; and because hundreds of sets of oscillators in the prior art are not required to be used, the system structure and complexity are simplified, and the method is easy to implement.

In order to detect problematic drives in random arrays of independent disks, the system measures the latency of executing command sets which are broadcast to all disks in the data storage system and the results are compared to identify which disks take substantially longer to complete the requests. Disks that take longer to complete requests are likely to be problematic and are candidates for further examination and replacement. The disks in each tier group are compared to determine if any disk in that group exhibits problems. Also, counters for each tier group are compared to determine if the problem is with the disk or with the channel of the tier group. The latency of each disk in the tier group is saved in a table to provide a histogram of the latency of the disks in the tier group. Histograms of the disks in a single tier group are compared to determine if a specific disk is problematic. Histograms of each tier group are compared to determine if a specific disk is problematic or all the disks on the same channel exhibit problems.

A vertically integrated optical phased array has an array of a plurality of vertical cavity surface emitting lasers disposed in an aperiodic arrangement thereof, the plurality of vertical cavity surface emitting lasers having light emitting ports disposed parallel to one another. An array of a plurality of vertical cavity phase modulators disposed in the same aperiodic arrangement as the array of the plurality of vertical cavity surface emitting lasers, with individual modulators of said array of a plurality of vertical cavity phase modulators each being disposed in optical alignment with an injection port of a corresponding one of said plurality of vertical cavity surface emitting lasers. An array of a plurality of laser ports, fed by a master laser, are disposed in the same aperiodic arrangement as the array of the plurality of vertical cavity surface emitting lasers, the master laser providing, in use, injection beamlets, each injection beamlet, in use, injection locking a corresponding one of said plurality of vertical cavity surface emitting lasers via a corresponding one of said plurality of vertical cavity phase modulators.

A secret reconstruction method comprises: receiving (k+α) pairs out of n pairs (r_i, f_i) each composed of a random number r_i and a share f_i where α is a natural number (steps B1-B5); determining if a (k−1) degree polynomial g(x) is reconstructed that satisfies f_i=g(r_i) for all received pairs (steps B5 and B6); and outputting g(0) as the secret if the polynomial is reconstructed and otherwise outputting a signal indicating that at least one of the received pairs is forged (steps B7 and B8).

An anisotropic conductive film (ACF) comprising: (a) an adhesive layer having a substantially uniform thickness; and (b) a plurality of conductive particles individually adhered to the adhesive layer, wherein the conductive particles include a first non-random array of particle sites partially embedded at a first depth within the adhesive layer and a second fixed non-random array or dispersion of conductive particles partially embedded at a second depth or a dispersion of conductive particles fully embedded within the adhesive layer, wherein the first depth and the second depth are distinctly different. The ACF may be supplied as a sheet, a continuous film or as a roll and the multi-tier morphology may be present throughout the length of the product or in select areas.

The invention discloses an encryption method and device, equipment and a medium. The encryption method is carried out on each character in a to-be-encrypted plaintext. The encryption method comprisesthe steps of generating an encryption key corresponding to a to-be-encrypted character according to a random seed value of the to-be-encrypted character and an initial key of the to-be-encrypted plaintext; generating a random array according to the random seed value and the encryption key; and replacing the to-be-encrypted character by a character in the random array according to an index number of the character in the random array. According to the embodiments of the invention, byte lengths of a ciphertext and the plaintext are consistent, constraint of a data format is not broken, and when different plaintexts are encrypted, the generated ciphertexts are different, so a data operation error resulting from the same ciphertexts is avoided, and data accuracy is ensured.

A method for making an element containing an array of microspheres on a support, the method comprising the steps of: coating a support with a coating composition to form a receiving layer with a modifiable elastic modulus; coating on the receiving layer a dispersion of microspheres in a carrier fluid; modifying the modulus to allow the microspheres to partially submerge into the intermediate layer; removing the fluid medium from the suspension of microspheres; and fixing the microspheres on the receiving layer so that the element can withstand wet processing.

An element containing an array of microspheres on a support is described, and a method of making the element, wherein the method includes coating a support with a coating composition to form a receiving layer with a modifiable elastic modulus; coating on the receiving layer a dispersion of microspheres in a fluid suspension; modifying the modulus of the receiving layer to allow the microspheres to partially submerge into the receiving layer; removing the fluid suspension from the receiving layer; and fixing the microspheres in the receiving layer so that the element can withstand wet processing.

An ACF comprising a substrate, a layer of an adhesive on the surface of the substrate, the adhesive optionally having conductive particles dispersed therein, at least one tier of conductive particles arranged in a non-random array, the tier being formed by transfer of conductive particles from a carrier belt having a stitching line to the surface of the adhesive layer wherein the portion of the tier corresponding to the stitching line is free of conductive particles, and the adhesive layer being overcoated with a second tier of conductive particles arranged in a non-random array at least in the area of the first tier corresponding to the stitching line. The tiers may be at the same or different depths within the adhesive layer. More than two tiers of conductive particles may be present in the ACF.

The invention belongs to the filed of image matching of coding structured light active visual sense in machine visual sense, in particular to a feather point matching method based on the colored false random coding projection. The invention is based on a false random coding principle, and designs a novel colored coding projection template by using a point and line combined method. The method comprises the following concrete steps: 1. generating a false random sequence from a0, a1 to an by a feedback network n-displacement bit register specified by a primitive polynomial h(x)=xm+hm-1xm-1+...+h1x+h0; 2. filling the false random sequence from a0, a1 to an into a matrix with the size of n=n1*n2 for generating a false random array b; and 3. using the generated array values as the discrete feather points, connecting the feather points by a feather line, and establishing a coding template. The invention introduces a morphological algorithm, and provides the extraction algorithm of the relevant feather points. In the decoding process, the invention provides the thought of mutual verification of adjacent windows, can realize the automatic extraction and matching of the feature points, and can perfectly solve the problem of shadow generation during the projection of the structural light on the surface of the complicated three-dimensional scenes and the problem of mistake feather point matching caused by that parts of coding patterns are covered because the shooting angles of a video camera are different.

The invention discloses an estimation method for the arriving direction of a monostatic MIMO radar based on random array manifolds. The method mainly solves the problems that an existing technology is only suitable for linear arrays and large in calculated quantity. The method comprises the steps that 1) the guide vector quantity of the monostatic MIMO radar is written according to the array manifolds; 2) manifold spreading is carried out on the guide vector quantity of the MIMO radar to obtain the Vandermonde guide vector quantity, guide vector quantity transfer is conducted by means of a spatial smoothing thought, and a transfer matrix from the MIMO guide vector quantity to the guide vector quantity after transfer is evaluated; 3) a receiving array and a transmitted waveform are utilized to carry out matched filtering to form an autocorrelation matrix; 4) characteristic decomposition is conducted on the autocorrelation matrix to obtain an eigenvalue and an eigenvector, and the eigenvector is selected to form a noise subspace; 5) the noise subspace is used for forming a space zero spectral function, and a polynomial rooting method is adopted to obtain an azimuth angle. The method can achieve quick estimation on the arriving direction of the monostatic MIMO radar based on the random array manifolds, is small in operation quantity, and can be used for target locating and radar tracking.