25 results about "Cell pattern" patented technology

The present invention is directed to a 3D printed mold for creating three dimensional pulp products from a fibrous pulp slurry. Transverse filaments are integrated into an infill structure with an open-cell pattern. The transverse filaments form channels through the interior matrix of the mold. The open cell infill pattern and channels allow for the movement of vacuumed materials through the interior matrix of the 3D printed mold when vacuum pressure is applied. The product surface of the mold comprises an array of beads formed from the over-extrusion of melted material at the ends of the transverse filaments. The beaded array narrows the opening of the channels created by the transverse filaments, preventing the fibers from entering the matrix of the mold and clogging the flow of materials. This causes the fibers to aggregate on the product surface of the mold, forming the three dimensional pulp product.

The invention discloses a hydrogel modified microelectrode array device and a preparation method thereof, the hydrogel modified microelectrode array device comprises a microelectrode array composite layer, a passivation layer, a hydrogel layer and a cell culture ring, the cell culture ring is arranged on the microelectrode array composite layer, and the passivation layer and the hydrogel layer are located in the cell culture ring; the microelectrode array composite layer comprises a microelectrode array with polydimethylsiloxane as a base material, at least part of the microelectrode array in the cell culture ring is exposed, and at least part of gaps of the exposed microelectrode array are filled with the passivation layer; the hydrogel layer grows on the surface of the polydimethylsilane, and a microgroove is formed in the exposed microelectrode array and passivation layer area to serve as a cell growth area. According to the invention, cell patterning can be realized on the microelectrode array, cell electrophysiological activity can be monitored for a long time, and the microelectrode array has the advantages of remarkable cell patterning promotion capability, high stability and robustness, flexible cell pattern design, excellent biological compatibility and simple process.

A 3D printed mold (710,712) for creating three dimensional pulp products (650, 740) from a fibrous pulp slurry. Transverse filaments (20, 320, 420) are integrated into an infill structure with an open-cell pattern. The transverse filaments form channels (30, 330, 430) through the interior matrix of the mold. The open cell infill pattern and channels allow for the movement of vacuumed materials through the interior matrix of the 3D printed mold when vacuum pressure is applied. The product surface of the mold comprises an array of beads (10, 310, 410) formed from the over-extrusion of melted material at the ends of the transverse filaments. The beaded array narrows the opening of the channels created by the transverse filaments, preventing the fibers from entering the matrix of the mold and clogging the flow of materials. This causes the fibers to aggregate on the product surface of the mold, forming the three dimensional pulp product.

The disclosure relates to a 5G or 6G communication system to support a higher data transmission rate. The disclosure relates to a reconfigurable intelligent surface (RIS) enabling a low phase error at various incidence angles / reflection angles and an apparatus including the same. The RIS comprises a unit cell pattern formed in a direction corresponding to a polarization direction, the unit cell configured to adjust a reflection phase; a switch operably connected to the unit cell pattern, the switch configured to adjust the reflection phase; and a dummy pattern positioned between unit cell patterns in case that a plurality of unit cells is arranged.

A deposition mask includes a substrate with a cell pattern disposed in each of a plurality of cell openings in the substrate. The cell pattern is formed by an inorganic film and includes a mask membrane pattern with a plurality of openings. A dummy pattern surrounds the mask membrane pattern, and the width of the dummy pattern is irregular. A deposition apparatus includes the deposition mask.

The present invention is directed to a 3D printed mold for creating three dimensional pulp products from a fibrous pulp slurry. Transverse filaments are integrated into an infill structure with an open-cell pattern. The transverse filaments form channels through the interior matrix of the mold. The open cell infill pattern and channels allow for the movement of vacuumed materials through the interior matrix of the 3D printed mold when vacuum pressure is applied. The product surface of the mold comprises an array of beads formed from the over-extrusion of melted material at the ends of the transverse filaments. The beaded array narrows the opening of the channels created by the transverse filaments, preventing the fibers from entering the matrix of the mold and clogging the flow of materials. This causes the fibers to aggregate on the product surface of the mold, forming the three dimensional pulp product.

The present invention belongs to the field of 3D printing technology and cell culture technology. Specifically, the present invention relates to a device and method for rapid preparation of cell patterned co-culture based on 3D printing. The present application provides a microdevice technology that can be rapidly prepared using 3D printing for cell culture and cell patterned co-culture, and the device can be easily compatible with existing cell biotechnology, such as microscopic imaging, cell immunostaining, etc. It can easily achieve patterning of multiple cells, and can perform microscopic imaging analysis and immunohistochemical analysis on cells to obtain quantitative results. It provides a device and method for scientific researchers to achieve co-culture of multiple cells more quickly and conveniently.

The application discloses a laser system, a photovoltaic cell processing method, an electronic device and a storage medium, and relates to the technical field of solar cells. The laser system can adjust the laser parameter of the laser, the position parameter of the lens group and the scanning parameter of the galvanometer in real time according to the monitoring result fed back by the monitoring module through the control module, so that the spot energy density, the spot size and the spot path can meet the process requirement of the photovoltaic cell patterning processing. Thus, the real-time optimization and adjustment of each parameter are performed, the corresponding relationship between the actual processing spot effect and each parameter is formed, the energy distribution of the modulated generated shaped spot is uniform, the relative stability of the spot size and the spot energy density in the processing process is ensured, the processing efficiency and the precision of the photovoltaic cell are improved, the laser system has flexibility and high efficiency to adapt to the process requirement of the patterning processing of different photovoltaic cells, and the time cost and the labor cost are effectively reduced.

This invention relates to the field of photovoltaic cell technology, and discloses a graphical simulation method and related equipment for heterojunction cells. The method includes acquiring measurement data of the cell grid lines; constructing a simulation model of the heterojunction cell based on the acquired grid line measurement data; optimizing the number of front and back grid lines according to the simulation model, and determining the final grid line layout based on the optimization results. The simulation model, built based on accurate grid line measurement data, can accurately simulate the performance of the cell under different grid line layouts. By optimizing the number of front and back grid lines, the optimal grid line layout can be accurately found, thereby maximizing the photoelectric conversion efficiency and output power of the cell.

The invention discloses a verification method and system, equipment, a storage medium and a computer program product, and the verification method comprises the steps: obtaining first configuration information which comprises a distance design inspection rule of adjacent metal wires with a connection relation in a to-be-tested metal layer; second configuration information is obtained, the second configuration information comprises a parameterization unit, parameters comprise metal layer options with the connection relation to be verified and the distance between metal wires in a metal layer to be tested, the metal layers corresponding to the metal layer options have the connection relation, and one layer is the metal layer to be tested; performing verification operation according to the design rule detection file, the first configuration information, the second configuration information and the assignment of each parameter; the verification operation comprises the following steps: traversing assignment values of the spacing to obtain a plurality of unit patterns, metal layers to be tested of the unit patterns comprising adjacent metal wires, and the assignment values of the spacing comprise values which meet the spacing requirement and values which do not meet the spacing requirement; and performing design rule detection on the unit graph through the design rule detection file. The verification efficiency can be improved, and the verification cost can be reduced.

Systems and methods are described for displaying voxels by a display device. Techniques disclosed include emitting light from light-emitting elements in a light-emitting layer comprising an addressable array of light-emitting elements. Using a collimating layer, the light emitted from the light-emitting elements is collimated into respective light beams directed at a mosaic optical layer. The mosaic optical layer comprises a plurality of mosaic cells arranged in a repeating mosaic cell pattern, each mosaic cell containing optical tiles having flat facets, wherein the flat facet of at least one optical tile is tilted relative to the flat facet of another optical tile. Techniques disclosed further include operating a spatial light modulator to provide control over which of the optical tiles transmits light from the light-emitting layer to the outside the display device by selectively passing light beam sections that cross at a voxel position to form a voxel to be displayed, while blocking other light beam sections.

The application provides a spatial transcriptome cell expression pattern recognition method and system, relates to the field of bioinformatics, and performs pretreatment on acquired spatial transcriptome data to obtain positive sample data composed of image features, gene expression data and an adjacency matrix; the image features and the gene expression data belonging to the same cell have a corresponding relationship; the image features and the gene expression data in the positive sample data are randomly adjusted to obtain negative sample data; a graph autoencoder model is constructed, and the graph autoencoder model is trained by using the positive sample data and the negative sample data; sample data to be recognized is input into the trained graph autoencoder model to obtain a finally recognized cell type; the graph autoencoder is constructed, the multi-modal information in spatial transcriptomics is fully utilized, the cell pattern recognition of spatial transcriptomics is realized, and the expansibility and operability are improved, and the recognition accuracy and reliability of the cell expression pattern in a tissue section are improved.

A method for manufacturing a semiconductor device includes providing a first pre-reticle including a first overlay mark and a first on-cell pattern. A second pre-reticle is provided that includes a second overlay mark and a second on-cell pattern. A first pattern is formed from the first pre-reticle using a first illumination system. A second pattern is formed from the second pre-reticle using a second illumination system. An overlay error is measured between the first pattern and the second pattern. A corrected reticle is formed based on the measured overlay error.

A deposition mask is provided. The deposition mask includes a substrate and a cell pattern disposed in each of a plurality of cell openings in the substrate. The unit pattern is formed of an inorganic film and includes a mask film pattern having a plurality of openings. The dummy pattern surrounds the mask film pattern, and a width of the dummy pattern is irregular. The deposition apparatus includes a deposition mask.

A method related to physical uplink control channel (PUCCH) cell switching and a user equipment (UE) are provided. The method includes: receiving a radio resource control (RRC) message from a base station; determining a PUCCH cell from the first cell and the second cell according to at least one PUCCH cell pattern; and transmitting the PUCCH transmission on the PUCCH cell during the time resource units. The RRC message includes at least one PUCCH cell pattern associated with multiple cell indexes and a first subcarrier spacing (SCS) associated with a first cell and a second SCS associated with a second cell. Each cell index corresponds to a cell, and the PUCCH cell pattern indicates which cell corresponds to one time resource unit used for PUCCH transmission.

The present invention is directed to a 3D printed mold for creating three dimensional pulp products from a fibrous pulp slurry. Transverse filaments are integrated into an infill structure with an open-cell pattern. The transverse filaments form channels through the interior matrix of the mold. The open cell infill pattern and channels allow for the movement of vacuumed materials through the interior matrix of the 3D printed mold when vacuum pressure is applied. The product surface of the mold comprises an array of beads formed from the over-extrusion of melted material at the ends of the transverse filaments. The beaded array narrows the opening of the channels created by the transverse filaments, preventing the fibers from entering the matrix of the mold and clogging the flow of materials. This causes the fibers to aggregate on the product surface of the mold, forming the three dimensional pulp product.

The present application relates to a kind of column class thin-walled structure negative poisson ratio based on paper-cut cell mode material and its design method, the whole of negative poisson ratio columnar thin-walled structure is built by repeated reconfiguration paper-cut cell, specific construction method includes the following steps: design reconfiguration paper-cut cell, by cell through along column axis rolling surface periodic repetition, construct columnar thin-walled structure negative poisson ratio model realizes thin-walled structure surface preset creasing and is formed by 3D printing;Solve the existing thin-walled structure broken peak force, post-buckling mode single, energy absorption efficiency is low, it is difficult to deal with the problem that energy absorption component low peak broken force in actual application process, high energy absorption demand, lead to its application scene is limited.

A shoe sole having an energy absorbing lattice structure and method of making thereof is disclosed. The energy absorbing structure comprises an energy absorbing lattice structure having an irregular, but not random, lattice pattern. The irregular lattice pattern of the energy absorbing lattice structure may be a Voronoi cell pattern, which may be derived from a biological lattice such as bovid skull horncore morphology for example. The bioinspired lattices of the shoe sole may be configured / tailored for two purposes: 1) large energy absorption properties and 2) biomechanically controlling the position of the foot to further control joint (e.g., ankle, knee, hip, spine) loading, forces, and pain.

A deposition mask includes: a mask substrate including a central region and an edge region; a plurality of cell patterns disposed on the mask substrate and including a cell pattern disposed in the edge region and a cell pattern disposed in the central region; and a mask frame disposed on the mask substrate and surrounding the plurality of unit patterns, the number of unit patterns per unit area of the edge region among the unit patterns provided in the edge region is greater than the number of unit patterns per unit area of the center region among the unit patterns provided in the center region.

A system may include a substrate and an array of unit cells for a multi-cell antenna printed on the substrate. Each unit cell may include a first trace having an outer perimeter that forms a cross shape and an inner perimeter that encloses an area within the first trace. Each unit cell may further include a second trace having an outer perimeter that is completely enclosed by and does not contact the inner perimeter of the first trace. Each unit cell may also include a varactor electrically connecting the first trace to the second trace. A method may include receiving an electromagnetic signal at the array of unit cells and controlling a capacitance of the varactor of each unit cell to result in one or more directed beams.

Disclosed herein are an apparatus for electrically assessing and / or manipulating cells. One aspect is directed to electrically mapping cells on the surface of the semiconductor substrate via cross-electrode impedance measurements. Further according to some aspects, the electrode array allows for spatially addressable electrical stimulation and / or recording of electrical signals in real-time using the CMOS circuitry. Some of these aspects are directed to using an electrode array to perform cell patterning through electrochemical gas generation, and extracellular electrochemical mapping.

The invention relates to a calculation method and system for gravure ink cell volume carving, and the method specifically comprises the steps: S1, firstly delineating the contour of an ink cell, dispersing the contour into a plurality of contour points, and enabling the distance between the adjacent contour points to be within a first preset range; s2, establishing a coordinate system at the center of the contour, and measuring coordinates of contour points by using an automatic measurement camera according to an original point of the coordinate system; s3, dividing the contour into a plurality of areas in a second preset range; s4, according to the coordinate fitting equation of the contour points in the same region, the area of the region is obtained through integration, and the volume in the region is obtained according to the depth; and S5, accumulating the volumes of different areas of the ink cell to finally obtain the volume of the ink cell, and the system adopts the method. The ink cell pattern is irregular, the contour is discretized into a plurality of contour points, so that an equation is fitted for integral operation, the area is firstly calculated, the volume is finally calculated, and the calculation is more accurate.

A deposition mask includes a mask substrate including a center area and an edge area; a plurality of cell patterns disposed on the mask substrate and including cell patterns disposed in the edge area and cell patterns disposed in the center area; and a mask frame disposed on the mask substrate and surrounding the plurality of cell patterns, where a number of cell patterns, among the cell patterns disposed in the edge area, per unit area of the edge area, among the cell patterns disposed in the center area, is greater than a number of cell patterns per unit area of the center area.

The present invention relates to a hierarchical deep neural network-based ANA pattern classification method and device and, particularly, to a hierarchical deep neural network-based ANA pattern classification method and device for classifying HEp-2 cell patterns through deep learning technology in order to provide a path for more accurate and reliable ANA pattern recognition.

Disclosed herein are devices for electrically assessing and / or manipulating cells. One aspect relates to electrical mapping of cells on the surface of a semiconductor substrate via cross electrode impedance measurements. Additionally, according to some aspects, the electrode array enables spatially addressable electrical stimulation and / or recording of electrical signals in real time using CMOS circuitry. Some of these aspects relate to performing cell patterning through electrochemical gas generation and extracellular electrochemical mapping using the electrode array.