We review here how millifluidic techniques can be used to construct versatile Labs-on-a-Chip, in which on-chip bubble generation and flow chemistry are efficiently combined to generate porous solids with highly monodisperse and ordered pore structures.
These insights motivated the proposal, design, and creation of a versatile laboratory testbed for VDTN networks, the VDTN@Lab.
Apart from the fact that such systems provide powerful tools to study the flow of foams and emulsions on the scale of a few bubbles or droplets, they also carry the promise of versatile applications for Lab-on-a-Chip technologies.
We developed a highly integrated and versatile electronic module to equip small nuclear physics experiments and lab teaching classes: the User friendly Configurable Trigger, scaler and delay Module for nuclear and particle physics (UCTM).
Therefore, we have developed a versatile IRFAP-HTS for membrane protein trafficking so that any lab can easily screen approximately 10,000 small molecules per week and have a high-probability of finding a significant hit.
Currently, at least in the lab scale, the solution-processed method is an important and versatile route for the preparation and deposition of organic thin film devices and some inorganic thin film devices with moderate crystallinity.
Liquid/liquid segmented flow based highly integrated lab-on-a-chip devices offer a powerful and versatile approach for high-throughput processing of linearly organized sample streams.
In summary, an inexpensive and versatile method for SiNW is presented that makes these exotic materials available to any lab at low cost.
The Reconfigurable Robotics Lab at the Ecole Polytechnique Federale de Lausanne is working on this versatile technology, specifically a tubular muscle made of elastic materials, the motion of which can be tightly controlled.
This method combines several advantages of large scale and lab-scale fabrication methods in that it is fast, simple but also versatile.
