Laminated Device Assembly
Laminated Device Assembly - Related Videos
05:40
Fabricating Cotton Analytical Devices
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2016
To investigate simple fabrication approaches for multiple assay needs, we created a fluid-absorbing channel system made of cotton material. This device was used to establish a multiple detection platform, and solve contamination issues that commonly affect lateral flow-based biomedical devices, for clinical urinalysis of nitrite, total protein, and urobilinogen.
07:22
Using a Laminating Technique to Perform Confocal Microscopy of the Human Sclera
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Cited by 1 •
2016
Human sclera tissue is mainly collagen; therefore, it is not easily usable for immunohistochemistry. To achieve the goal of performing immunohistochemistry for confocal microscopy of scleral tissue, a laminating technique was used.
08:29
Thermal Measurement Techniques in Analytical Microfluidic Devices
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Cited by 6 •
2015
Here, we present three protocols for thermal measurements in microfluidic devices.
11:15
Development of a 3D Graphene Electrode Dielectrophoretic Device
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Cited by 2 •
2014
A microdevice with high throughput potential is used to demonstrate three-dimensional (3D) dielectrophoresis (DEP) with novel materials. Graphene nanoplatelet paper and double sided tape were alternately stacked; a 700 μm micro-well was drilled transverse to the layers. DEP behavior of polystyrene beads was demonstrated in the micro-well.
11:33
Fabrication of Three-dimensional Paper-based Microfluidic Devices for Immunoassays
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Cited by 12 •
2017
We detail a method to fabricate three-dimensional paper-based microfluidic devices for use in the development of immunoassays. Our approach to device assembly is a type of multilayer, additive manufacturing. We demonstrate a sandwich immunoassay to provide representative results for these types of paper-based devices.
FAQs
Material selection affects how the finished assembly performs electrically, mechanically, and thermally. Engineers consider the role each layer contributes to the integrated structure, including support, protection, or device functionality. Appropriate choices can help maintain compact dimensions while supporting durability and reliable operation in electronic modules, sensors, displays, batteries, and flexible devices.
Precise alignment keeps the individual layers in their intended positions as the device structure is formed. Dimensional control helps preserve the planned geometry of the laminate, which can affect integration and overall device performance. These controls are especially relevant when engineers are developing thinner or more compact products with multiple functional layers.
Adhesive, heat, pressure, or combinations of these conditions can create the bonds that hold the layers together. Their use determines how the aligned layers become a unified structure and can influence interface quality. Engineers therefore optimize bonding conditions as part of the manufacturing process rather than treating layer placement as the only critical step.
The interfaces between layers connect the separate materials into a functioning assembly, so their quality can influence electrical, mechanical, and thermal performance. Poorly controlled interfaces may also weaken the intended protection of internal components. Evaluating these regions helps engineers improve integration, durability, and consistency in devices exposed to mechanical or environmental demands.
A typical workflow begins by preparing and positioning the individual thin layers, followed by precise alignment. The aligned stack is then bonded using adhesive, heat, pressure, or a selected combination of these conditions. Engineers subsequently consider the resulting interface quality and dimensional control when optimizing the assembly for its intended device function.
The approach supports the development of electronic modules, sensors, displays, batteries, and flexible devices. It is useful when engineers need integrated functionality in a thinner, lighter, or more durable form. Research can focus on how layer materials, bonding conditions, alignment, and interfaces affect the electrical, mechanical, and thermal behavior of these products.
Engineers can optimize more than the physical joining of layers. The process supports compact device designs, internal component protection, and integration of multiple functions within one structure. By controlling material selection, alignment, bonding conditions, and interfaces, researchers can work toward improved durability and performance while refining the manufacturing process for specific device applications.