The online version of that is what I was initially hired to write. The reader unit has an embedded web app (which can also instead be run on a server) where you prepare your job (on a PC in the next room). Then with nothing but the reader (wand or the one on top of the unit) and a "yes" and a "no" button you can hit with mitts on, you can go through the entire workflow, including auto-allocating somewhere to quickly stash samples if the allocated spot proves to be unavailable. Of course, there's an audit procedure for checking the index, in case some discrepancy is found. It's also configurable to whatever types and size of storage are in use, because every facility has their own quirks. Designing the workflow was interesting. Coding the web app was not so interesting so we outsourced that, and most of my time there was spent improving the decode firmware that received a spectrogram from the FPGA. Some very interesting error correcting codes involved. I finished up there on a microscope debugging the power-up sequence of a new embedded CPU board a supplier had made.
The other nice thing about their solution is it can read the temperature by looking at the frequency shifts of the resonators, and the software records temperature cycles against all retrieved vials, not just the one you might be after, so you know whether previous retrievals might have spoiled the fun.
They have to simplify enough so that the average McDonald's teenage employee can be taught when to fling food away.
One of Dr Christian Barnard's innovations to make heart transplants possible was to cool the body core temperature quickly using an ice-water bag in the stomach. At least, he used that, maybe he didn't invent it. At 22C, they can stop the heart for ten or more minutes without brain damage.
You could cool your marinara very quickly by submersing a freezer bag of ice-blocks in salty water.
Clifford Heath.