Tbaf Nmp Etchant
Tbaf Nmp Etchant - Related Videos
07:23
Construction and Testing of Coin Cells of Lithium Ion Batteries
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Cited by 13 •
2012
A protocol to construct and test coin cells of lithium ion batteries is described. The specific procedures of making a working electrode, preparing a counter electrode, assembling a cell inside a glovebox and testing the cell are presented.
09:27
Cell Subtype-specific Analysis of Neuronal Membrane Proteasome in Somatosensory Neurons
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2025
The neuronal membrane proteasome (NMP) was recently identified in a subset of somatosensory neurons as a key regulator of touch, pain, and itch perception. This article presents a robust workflow for analyzing cell-type-specific NMP expression and function using cell sorting, transcriptome profiling, and culture-based immunofluorescent analyses.
07:32
Porcine Normothermic Isolated Liver Perfusion
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Cited by 3 •
2023
The porcine model of liver normothermic machine perfusion (NMP), described here, can be successfully used to study NMP as a preservation strategy, a tool for viability assessment, and a platform for organ repair. It holds a high translational value, however it is technically challenging and labor-intensive.
10:42
Normothermic Machine Perfusion of Rat Kidneys for Transplantation
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2026
This protocol describes the ex vivo normothermic machine perfusion of a rat kidney for subsequent transplantation into a recipient rat.
10:01
Demonstration of a Hyperlens-integrated Microscope and Super-resolution Imaging
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Cited by 8 •
2017
The use of a hyperlens has been regarded as a novel super-resolution imaging technique due to its advantages in real-time imaging and its simple implementation with conventional optics. Here, we present a protocol describing the fabrication and imaging applications of a spherical hyperlens.
FAQs
Fluoride ions attack the silicon-oxygen bonds that hold the oxide structure together. This chemical interaction converts oxide components into soluble fluorinated species, allowing the material to be removed from the treated surface. The mechanism makes the etchant useful for controlled oxide removal during micro- and nanofabrication processes involving silicon-based structures.
N-methyl-2-pyrrolidone provides a polar aprotic, nonaqueous environment in which the tetrabutylammonium fluoride can function as an oxide-removing solution. By maintaining this processing medium, NMP supports practical treatment of surfaces where moisture could interfere with nearby materials or structures. Its solvent role is therefore important to the etchant’s handling and compatibility.
Etching behavior depends on whether a surface material can react with fluoride. Silicon oxide and other fluoride-reactive materials are targeted for conversion into soluble fluorinated species, while the surrounding device structure may remain available for selective processing. This distinction helps engineers plan oxide removal, surface preparation, and sacrificial-layer operations around the materials present.
A nonaqueous process can be valuable when oxide must be removed near moisture-sensitive materials or structures. TBAF/NMP etchant provides a way to perform fluoride-based treatment without relying on an aqueous environment, supporting controlled surface preparation in device workflows where moisture compatibility is a concern. This makes solvent environment an important process-selection consideration.
A fabrication workflow identifies the oxide or other fluoride-reactive layer requiring removal, brings the surface into contact with the etchant, and uses the resulting chemical conversion to clear that material. The approach can be integrated into surface cleaning, pattern-transfer, or sacrificial-layer steps, depending on which feature must be prepared or released.
Engineers may choose TBAF/NMP etchant when a process requires controlled removal of silicon oxide or another fluoride-reactive material in a nonaqueous setting. Relevant use cases include cleaning surfaces, transferring oxide-defined patterns, and preparing silicon-based devices. It is especially applicable when nearby components or structures make moisture compatibility an important consideration.
The treatment can produce cleaner surfaces, remove oxide layers used temporarily during fabrication, and assist in transferring patterns defined by oxide regions. It can also prepare silicon-based device surfaces for subsequent processing. These outcomes connect the etchant’s molecular action to practical engineering tasks in microfabrication and nanofabrication.