Chamber Assembly Protocol
Chamber Assembly Protocol - Related Videos
09:38
Updated Protocol for the Assembly and Use of the Minibioreactor Array (MBRA)
0 Views •
Cited by 1 •
2025
The Minibioreactor Array (MBRA) is a high-throughput, customizable, continuous-flow culture system that enables the cultivation of complex microbial communities, supporting parallel experiments to study microbiome dynamics, therapeutic interactions, and microbial responses to environmental factors.
12:03
Protocols for C-Brick DNA Standard Assembly Using Cpf1
0 Views •
Cited by 4 •
2017
CRISPR-associated protein Cpf1 can be guided by a specially designed CRISPR RNA (crRNA) to cleave double-stranded DNA at desired sites, generating sticky ends. Based on this characteristic, a DNA assembly standard (C-Brick) was established, and a protocol detailing its use is described here.
11:36
Assembly, Loading, and Alignment of an Analytical Ultracentrifuge Sample Cell
0 Views •
Cited by 21 •
2009
The analytical ultracentrifuge (AUC) sample cell holds sample and reference buffer and during experiments and is exposed to high vacuum and rotor speeds up to 60,000 rpm. This video will demonstrate the rigorous attention to detail necessary for assembly, loading and alignment of this very important component of an AUC experiment.
10:00
A Customizable Protocol for String Assembly gRNA Cloning (STAgR)
0 Views •
Cited by 2 •
2018
Here, we present string assembly gRNA cloning (STAgR), a method to easily multiplex gRNA vectors for CRISPR/Cas9 approaches. STAgR makes gRNA multiplexing simple, efficient and customizable.
13:44
Sealable Femtoliter Chamber Arrays for Cell-free Biology
0 Views •
Cited by 6 •
2015
A microfabricated device with sealable femtoliter-volume reaction chambers is described. This report includes a protocol for sealing cell-free protein synthesis reactants inside these chambers for the purpose of understanding the role of crowding and confinement in gene expression.
FAQs
Seals help preserve the chamber’s intended physical and chemical conditions by limiting leakage, contamination, and unwanted exchange with the surroundings. Their performance directly affects whether cells, tissues, fluids, or biomaterials experience the environment established for the experiment. Consistent sealing therefore supports reliable observation and measurement rather than introducing uncontrolled changes during the workflow.
Access ports and interfaces must be aligned with the other chamber components so that connections remain properly positioned within the assembled device. Misalignment can interfere with the intended chamber configuration and may compromise controlled access or measurement. Careful interface placement contributes to a stable experimental setup and helps different assemblies produce more comparable results.
A defined volume gives the experiment a consistent physical space in which cells, tissues, fluids, or biomaterials can be observed and measured. When assemblies maintain that volume in a repeatable way, researchers can compare outcomes across experiments more confidently. This consistency is especially relevant when evaluating engineered biological systems under controlled conditions.
The core workflow consists of positioning the chamber components, aligning the access ports or interfaces, and securing the seals. These actions should produce the intended chamber configuration while limiting leakage, contamination, and unwanted environmental exchange. Following the same sequence and construction approach across experiments helps establish a dependable basis for observation, measurement, and comparison.
Researchers would use this approach when an experiment requires cells, tissues, fluids, or biomaterials to remain within a controlled chamber environment. It supports workflows that depend on reliable observation or measurement and can be applied during the development and testing of engineered biological systems. The assembled device provides a consistent setting for examining those systems.
Consistent construction reduces variation caused by differences in component placement, interface alignment, sealing, or maintained volume. By limiting these assembly-related differences, the protocol improves experimental comparability and supports more reproducible observations and measurements. This makes it useful for evaluating engineered biological systems, where changes in assembly could otherwise be confused with changes in the system itself.