A Microfluidic D-subminiature Connector (2013)

I don't think there is any real danger in connecting an "electrical" sub-d to a "fluid" sub-d. You'd just have a non-working connection from both sides.

It's similar to many devices having RJ-45 serial console ports, that look like network ports, and if you accidentally connect the wrong cable to it, nothing bad happens.

On the other hand, I could really see hybrid connectors as a solution, i.e. have 4 electrical pins and 5 fluid pins. That way you could have some signalling between the devices and not start pushing fluid through the tubes unless a "correct" device is attached.

I wouldn't really say that it's a proven technology because the core issue for microfluidic applications is having a air- and water-tight connection, which is not proven out by electrical connectors of any sort.

We're fast approaching HDMI to garden hose connectors in real life.

> Edison power cables

Edison power cable?

I think the "micro" in "microfluidic" is kinda relevant here...

Single cell RNA sequencing is a very useful technique that relies on microfluidics. It allows researchers to isolate individual cells then "read" the RNA content of them. This lets you identify (very approximately) what behaviors a cell is doing in the tissue it came from. Still mostly a research tool, but it's going to move into the clinic in the next 10 years, I'd guess.

10x Genomics (https://www.10xgenomics.com/) is the biggest company building the machines for this. They're publicly traded.

As with many of these "laboratory" technologies, there is not much an "end-user" would see of it.

Microfluidics is being used in large scales in biological labs for sample analysis etc., so yes, there are practical applications but none that any random household needs or could even make any use of :)

According to "Asianometry", common test strips are an application of microfluidics. So in one sense they are very common.

Aside from these, it sounds like they will become lab tools not the Theranos-style lab replacements.

See:

https://www.youtube.com/watch?v=NAESOEjcYfc

Yes, lots of uses.

One of the bigger hits was Berkeley Lights, a big deal in early cell line development for monoclonal antibodies: https://www.berkeleylights.com/technology/

But there’s be numerous others. All have advanced state of the art. But as another commenter said, not much for home use. Just industry.

There are indeed a few practical applications. Next to Berkely lights, there is e.g. the LabChip from PerkinElmer that separates DNA and proteins. I had hoped that there would be many more examples by now. Most presentations that I see about microfluids still go in a lot of detail on how difficult it is to make. This hasn't really changed over the last decade, which signals to me we still need quite some innovation to make this mainstream.

If you want to play around with digital microfluids at home, check out the OpenDrop from gaudi.ch (http://www.gaudi.ch/OpenDrop/). I haven't played around with it yet, as I haven't found a practical use of this.

I recently heard of haptx[0] and I think they use microfluidics for their haptic feedback stuff

[0](https://haptx.com/)

Yes, mRNA vaccine manufacturing (lipid encapsulation) is a nice example

The 15psi that the connector was tested at is a good ways below the typical working pressures of most hydraulic systems, I'd be curious to see just how high the connector could manage.