Automated Pattern Fabrication
Automated Pattern Fabrication - Related Videos
08:19
Patterning via Optical Saturable Transitions - Fabrication and Characterization
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Cited by 1 •
2014
We report that the diffraction limit of conventional optical lithography can be overcome by exploiting the transitions of organic photochromic derivatives induced by their photoisomerization at low light intensities.1-3 This paper outlines our fabrication technique and two locking mechanisms, namely: dissolution of one photoisomer and electrochemical oxidation.
09:05
Flow-pattern Guided Fabrication of High-density Barcode Antibody Microarray
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Cited by 5 •
2016
This protocol outlines the fabrication of a large-scale, multiplexed two-dimensional DNA or antibody array, with potential applications in cell signaling studies and biomarker detection.
07:20
Fabrication of Micro-Patterned Chip with Controlled Thickness for High-Throughput Cryogenic Electron Microscopy
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2022
A newly developed micro-patterned chip with graphene oxide windows is fabricated by applying microelectromechanical system techniques, enabling efficient and high-throughput cryogenic electron microscopy imaging of various biomolecules and nanomaterials.
12:35
Atomically Traceable Nanostructure Fabrication
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Cited by 4 •
2015
We report a protocol for combining the atomic metrology of the Scanning Tunneling Microscope for surface patterning with selective Atomic Layer Deposition and Reactive Ion Etching. Using a robust process involving numerous atmospheric exposures and transport, 3D nanostructures with atomic metrology are fabricated.
12:33
Origami Inspired Self-assembly of Patterned and Reconfigurable Particles
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Cited by 25 •
2013
We describe experimental details of the synthesis of patterned and reconfigurable particles from two dimensional (2D) precursors. This methodology can be used to create particles in a variety of shapes including polyhedra and grasping devices at length scales ranging from the micro to centimeter scale.
FAQs
Geometry, spacing, and composition are the main design variables available for precise control. Changing geometry alters feature shape, while spacing determines how closely arranged elements interact. Composition adds control over the materials present in each region. Together, these variables allow researchers to create deliberately varied patterns for comparing how engineered environments influence cells or biomaterial behavior.
Programmed motion coordinates the movement used to create each feature, while process parameters specify how that operation is performed. Keeping these instructions consistent reduces dependence on manual handling and supports reproduction of the same pattern across fabrication runs. This consistency is important when experiments compare biological responses, because pattern differences are less likely to arise from operator variation.
Patterned geometry, spacing, and composition can regulate where cells position themselves, how they organize, and how they adhere to biomaterials. These controlled features also shape cell interactions with surrounding materials. By changing one design characteristic at a time, researchers can study cell behavior systematically rather than relying on irregular or manually produced arrangements.
A typical workflow begins with a digital pattern design that specifies the intended arrangement of features. The design then guides programmed motion and selected process parameters during fabrication. Depending on the system, the pattern may be produced through material deposition, printing, or selective removal. The resulting structure can then support controlled biological or device-related experiments.
The approach can direct several classes of fabrication operation, including material deposition, printing, and selective removal. These options differ in whether a pattern is built by adding material, placed through a printing process, or formed by removing selected regions. The available choice allows researchers to match the fabrication operation to the desired pattern and experimental system.
Bioengineering applications include tissue engineering, biosensors, microfluidic devices, and in vitro models. In tissue engineering and in vitro systems, controlled patterns can help organize cells and biomaterials. In biosensors and microfluidic devices, precise feature arrangement supports construction of designed functional regions. Across these uses, repeatable fabrication enables more systematic evaluation of engineered biological systems.