17 results about "Microdot" patented technology

The invention discloses a high-throughput electrochemical detection platform based on an ultra-infiltration micro-droplet array, a preparation method of the high-throughput electrochemical detection platform and application of the high-throughput electrochemical detection platform in AD marker detection, and belongs to the technical field of intersection of analytical chemistry, biosensing and material science. The method comprises the following steps: cleaning and drying a substrate, and immersing the surface of the substrate in a fluorosilane solution to form a super-hydrophobic layer by adopting a dip-coating method; after covering with a mask plate, etching with O2 plasma so as to form a hydrophilic microdot matrix; respectively printing an Ag / AgCl reference electrode, a gold working electrode and a carbon counter electrode on the hydrophilic microdots; electrode wires are printed layer by layer, a reference electrode wire, a working electrode wire and a counter electrode wire are sequentially printed in the area outside the hydrophilic microdot matrix from bottom to top in a spin-coating PDMS layer separation mode after each layer of electrode wire is printed, and PDMS is spin-coated above the counter electrode wire for packaging after printing is completed; and on each gold working electrode, respectively modifying capture antibodies of A beta 42, A beta 40, P-tau181 and P-tau217 proteins through a sample application instrument, so as to obtain the detection kit.

The invention discloses a compensation method for compound eye dodging of a photoetching machine illumination system in the technical field of photoetching machine illumination dodging. The compensation method comprises the following steps: measuring initial illuminance distribution on a wafer surface of a photoetching machine; according to expected wafer surface illuminance distribution, combining the initial illuminance distribution, and calculating transmittance distribution of each small grid area on the dodging compensating mirror to be manufactured through a pre-compensation model; according to the transmittance distribution, determining corresponding micro-point density distribution in each small grid area; the dodging compensating mirror is manufactured based on the micro-point density distribution, so that each small grid area has corresponding micro-point distribution; and the manufactured dodging compensating mirror is installed on the incident plane of a second fly's-eye lens of the illumination system, and the alignment mark on the dodging compensating mirror is made to be aligned with the boundary of the fly's-eye lens. According to the invention, the dodging compensation mirror is designed and placed on the incident plane of the second fly's-eye lens of the photoetching machine, and the installation process is simplified by using the cross alignment mark, so that efficient and convenient dodging compensation is realized.

A method for operating a check authentication system using a smart pen is disclosed. The method comprising: printing a uniquely identifiable micro dot pattern on a check paper, and storing a check image corresponding to the check paper in a server; recognizing the micro dot pattern using a smart pen; transmitting recognition information regarding the recognized micro dot pattern to the server; extracting and loading the stored check image, using the transmitted recognition information; generating check input information based on sensing information collected by the smart pen, while the check information is written on the check paper via the smart pen; transmitting the generated check input information to the server; entering the transmitted check input information on the loaded check image; transmitting the check image including the check input information to a recipient terminal; determining whether an agreement action is entered for the transmitted check image; and requesting a bank server to debit an account of a check issuer by an amount included in the check input information, when the agreement action is entered.

The invention discloses a legal service whole-process supervision and control method and system, and relates to the technical field of legal service process supervision and control, and the method comprises the steps: generating a task number based on acceptance information; generating a printing job voucher at the authorized printing end and binding a task number; collecting a sealed file image and segmenting the file image to obtain a mask; aligning the mask with the archiving scanning piece, and respectively performing micro-point decoding inside and outside the mask to obtain a decoding result; comparing the decoding result with the printing job voucher, and judging to obtain a judgment result; and generating and sending a delivery file according to the judgment result, and storing the task number, the printing job voucher, the decoding result and the judgment result into an evidence library. According to the method, the whole legal service process is supervised and controlled through a deterministic rule of micro-point existence and equipment identity equivalence.

The invention discloses a full 3D printing integrated multi-size wafer lamination manufacturing method and structure, and the method comprises the steps: S1, PVDF patterning: preparing a PVDF solution, and directly writing the PVDF solution on the surface of a selected silicon wafer through a piezoelectric ink-jet 3D printer to form a PVDF pattern; s2, conducting metal slurry patterning: preparing conducting metal slurry, forming a conducting metal slurry pattern by adopting piezoelectric ink jet and aerosol jet dual-mode 3D printing, covering a part of the PVDF pattern, exposing a PVDF functional area and forming a conducting circuit; and S3, performing OC protection layer patterning: performing direct writing on the OC layer by adopting a non-contact micro-dot glue valve to realize OC protection layer patterning, and covering a lower conductive metal slurry pattern and a PVDF pattern. According to the preparation method and the structure, 3D printing additive manufacturing and a high-precision slit coating technology are integrated on a 4-12-inch wafer, a square piece and the like, and three layers of materials including PVDF, conductive metal slurry and an OC protection adhesive layer are obtained through the graphical lamination preparation method and the structure.

The invention provides a micro-point coding method, an optical lens and an authenticity verification method. The invention relates to the technical field of anti-counterfeiting. According to the method, a product anti-counterfeiting code is determined as a number sequence, each number is mapped into a point coding pattern composed of 1-4 micro-points, the micro-points are located in a virtual 2 * 2 four-quadrant grid, and a 0-9 number rule is defined according to the sum of quadrant numbers. The code is engraved on the surface of the optical lens, and the identification point pattern is decoded and compared with the database during verification. According to the scheme, high-density and low-cost invisible anti-counterfeiting is realized, more than 8-bit codes can be engraved in a 3mm * 3mm area, and the product authentication reliability is effectively improved.

This application relates to the field of anti-copying and anti-counterfeiting technology, and discloses an anti-copying and anti-counterfeiting method and system based on scanning discrete defects. The method includes: acquiring the character to be embedded, generating a character mask and establishing a mask grayscale layer; then constructing latent image units and background units, applying phase shift to discrete micro-dots within the background units, and mapping the character's internal region, character edge region, and background region to different unit states; then completing the character arrangement according to a sinusoidal trajectory to generate an initial anti-counterfeiting pattern; subsequently, performing scanning link simulation on the initial anti-counterfeiting pattern to identify vulnerable units, and performing directional correction through phase shift adjustment, local ink volume reverse compensation, and bridging pixel insertion, outputting the corrected anti-counterfeiting pattern. This invention can improve the development stability of the anti-counterfeiting pattern under scanning and copying conditions, while also considering the continuity and concealment of the original document's background.

The utility model relates to the technical field of temperature sensors, in particular to a microarray protection structure of a wireless passive temperature sensor. The embodiment of the utility model provides a micro-dot matrix protection structure of a wireless passive temperature sensor. The micro-dot matrix protection structure comprises a base and a cover body, the base is in a cylinder shape with one open end and one closed end, the cover body is a cylinder with two open ends, the cover body is inserted into the base and connected with the base, a partition plate perpendicular to the axis of the cover body is arranged in the middle of the cover body, the inner diameter of the cover body is matched with the outer diameter of the temperature-sensitive element, and the partition plate, the inner wall of the cover body and the closed end of the base form a space for containing the temperature-sensitive element. The partition plate is provided with a hollow antenna window which is used for transmitting electromagnetic waves; the base and the cover plate are of a micro-lattice structure, the micro-lattice structure comprises a plurality of three-dimensional structures which are arranged repeatedly, and each three-dimensional structure is composed of a plurality of rod bodies. According to the scheme, the wireless passive temperature sensor can be stably protected in a high-temperature and high-disturbance environment.

The invention relates to the technical field of commodity anti-counterfeiting and authentication, in particular to a micro-point two-dimensional code and commodity anti-counterfeiting system and method based on the GS1 standard. The system comprises a physical characteristic acquisition unit, a characteristic value stabilization unit, a digital identity generation unit, a dynamic encryption signature unit and a coupling identification coding unit. The system further comprises a multi-mode reading unit, a data decoupling unit, a real-time feature processing unit and an encryption signature verification judgment unit, the system is used for dynamically encrypting and signing a standard GS1 digital identity by acquiring a physical fingerprint (PUF) of a commodity and converting the PUF into a feature abstract and auxiliary data, and coupling and coding the PUF into a micro-point two-dimensional code; the core of the method is that during verification, a PUF abstract read in real time is utilized to decrypt and verify a signature, and a unique binding relationship between a GS1 identity and a physical entity is judged; according to the invention, the deep encryption binding of the digital identity and the physical entity is realized, and the high-fidelity physical clone attack can be effectively resisted.

The application provides a micro-dot array dispensing mechanism and a dispensing device. The micro-dot array dispensing mechanism comprises a base (1) and a dispensing assembly fixed on the base. The dispensing assembly comprises a plurality of flexible dispensing needles (3). Each flexible dispensing needle comprises a needle (31), a capillary hose (32) and a luer connector (33). One end of the capillary hose is connected to the needle, and the other end of the capillary hose is connected to one end of the luer connector. The other end of the luer connector is provided with a feeding cylinder (4). The feeding cylinder is fixed on the base at intervals. The application can realize automatic identification, calibration and correction of a printing starting position, and can be used for complex three-dimensional structures and small scenes with multiple lines. The array multi-head and multiple materials can be printed at the same time, and the efficiency is significantly improved. The process is simple, the qualified rate is high, the cost is low, and the material utilization rate is high.

The application discloses a temperature measurement and tracing method and system based on micro-point codes and a novel copper-aluminum transition clamp, relates to the field of temperature measurement and tracing, acquires decoding information of micro-point codes on the end face of the clamp, acquires surface measured temperature values returned by an RFID temperature measurement chip, generates a segmented geometric description set, constructs a segmented convection heat exchange envelope surface, calculates segmented convection heat dissipation power in combination with a pneumatic wake shielding effect, integrates to obtain internal equivalent heating power, constructs an adaptive layer-by-layer thermal resistance recursive chain, recursively propagates the internal equivalent heating power to an internal V-shaped groove interface layer by layer, obtains an interface core temperature, and judges a clamp health state according to an air cooling distortion variable; and the interface core temperature, the air cooling distortion variable and the clamp health state are stored in a tracing database in association, so that the air cooling masking effect caused by the spatial dislocation of the temperature measurement point and the heating point in a strong wind environment is solved.

The invention discloses a preparation method and application of a microstructure electrode of a photoetching template, and belongs to the field of environment-friendly materials.The preparation method comprises the following steps that a conductive substrate is spin-coated with negative photoresist, a microdot array shielding mask is used for covering the conductive substrate, exposure and photocuring are conducted on the conductive substrate through ultraviolet light to manufacture a microstructure, and then the microstructure is obtained; cleaning the redundant colloid part by using a developing solution to obtain a photoetching substrate; modifying the surface of the photoetching substrate twice by using a plasma etching method; and protecting the surface by using a protective agent, and carbonizing to finally obtain a photoetching template microstructure electrode. The photoetching template microstructure electrode prepared by the invention has good electrochemical performance, and can detect heavy metal ions in water with high sensitivity.

This invention relates to the field of digital identification technology for power equipment, and discloses a noise-resistant temperature-measuring laser micro-dot code decoding method and system for curved copper and aluminum fittings. The method includes: constructing an observation coordinate system and performing polarization analysis to obtain a set of polarization features; using a wave-particle duality adjustment factor to perform energy decoupling to obtain a wave-like energy distribution field; applying a phase angle distribution set to perform directional spatial filtering to generate a texture feature map and extracting quality assessment parameters; using an AI image-locking model to lock the geometric feature set based on the quality assessment parameters, and using an AI polymer image-locking model to refine the segmentation to obtain a set of candidate code points; reconstructing a micro-dot logic array based on the local radius of curvature; constructing a topological error-correction map and performing feature compensation to obtain a full-dimensional array, and outputting a logic verification pass identifier. This invention solves the problems of high reflectivity semantic aliasing and manifold distortion, and achieves reliable reading and closed-loop identity verification of micro-dot codes in harsh industrial environments.

The utility model discloses graded traceability carton surface paper which comprises a base material pattern layer, a plain code non-contact printing layer and a secret code non-contact printing layer, and a first microdot code and a two-dimensional code are printed on the plain code non-contact printing layer; a second microdot code is printed on the secret code non-contact printing factory; and a legal character area is printed on the base material pattern layer. According to the utility model, the microdot code and the two-dimensional code are combined for tagging, so that the two-dimensional code can be utilized to complete the association of each group of packages and guarantee the reading rate of the microdot code, and the technical characteristics of the microdot code can be utilized to enable the microdot code to be printed on a legal character area on the surface paper of the carton to be printed, so that the damage resistance of the traceability code is improved; and the product traceability effectiveness of graded traceability of the carton surface paper is improved.

The present invention relates to a biomaterial collection system (100) comprising an array of angular, biocompatible microdots (14), the microdots (14) being made of a biocompatible material, comprising an identification code (15) delimiting at least one slot (18) adapted for collecting biomaterial (100), said microdots (14) being intended to be applied to an individual without penetrating the skin. Abstract figure: Figure 1

The present invention relates to a non-lethal marking projectile (1) comprising a casing (10) consisting of two continuously connected portions defining an inner chamber; a filling matrix (13) for the inner chamber of the casing (10); a plurality of micro-dots (14) comprising an identification code; microcapsules containing an olfactory agent; the plurality of micro-dots (14) and the microcapsules being distributed within the matrix (13) and the chamber of the casing (10); said projectile (1) being configured to mark a target upon which it is projected, by means of the plurality of micro-dots (14) and the microcapsules. Abstract figure: Figure 1

A highlight microdot mask element includes: at least one imaged region having at least one imaged block and being optically transmissive; at least one opaque island formed by at least one non-imaged block, wherein an arrangement of the plurality of imaged regions and the at least one opaque island defines the highlight microdot print surface pattern; and an opaque void region surrounds the highlight microdot pattern. A flexographic plate highlight microdot printhead includes: at least one elevated region, each elevated region having at least one elevated block forming a print surface; at least one internal recess formed by at least one recessed block, wherein an arrangement of the plurality of elevated regions and the at least one recess define a the highlight microdot print surface pattern of a highlight microdot structure; and an recess void region surrounding the highlight microdot structure.