1. Introduction |
Lab-on-a-chip (LoC) applications are
discussed. Students explore
the layout of a typical glass LoC, the lithium chip,18 using a microscope. |
Intro to microfluidics
and LoC devices. |
2. Small LoC design |
Students build and test an H-reactor with laminar foil (Figure 6). |
Intro to production techniques and microfluidics concepts (e.g.,
capillary force, laminar flow). |
3. LoC experiment |
Students use the H-reactor glass chip, holder, syringes, and
pump to build and perform an LoC experiment (Figure 2). |
Experimental skills. Microfluidics
concepts (e.g., capillary
force, laminar flow, diffusion). |
4. Advanced
LoC experiments |
Students use the micromixer (Figure 3) or droplet chip
(Figure 4) for LoC
experiments. |
Experimental skills. Microfluidics concepts
(e.g., Reynolds
number, mixing, diffusion, hydrophilic hydrophobic interaction, droplet
stability, volume-surface ratio). |
5. LoC
project |
Small group projects using the TCB chip (Figure 5), prefab laser-cut
LoC device (Figure 7), or their own LoC
design/prototype. |
Application of microfluidics concepts.
Design and engineering
skills. |