Arena Physica: Building Electromagnetic Superintelligence

So maybe just to level set for people who aren't as familiar with the world of electrical and RF engineering, what is the current state of design tools for these kinds of engineers? And maybe just contrast that with your Atlas platform.

Yeah.

Yeah, for sure.

So the current state of design tools is highly fragmented and old.

Right.

So if we look at it, you have let's say you're building a new autonomous autonomous aircraft.

Right.

You are designing electrical circuit.

You're designing the logic of it.

Then you're the physical layout.

You're putting that in time in certain in a housing.

like probably a metal box of some sort that has to go through withstand G-forces, go through various temperature regimes, probably like do some degree of insulation to sort of EW.

And then you're running specific software on it, probably low-level software on the flight computer.

You're not writing like a Python app, right? And so all those three interact.

If I put, if I change how the software behaves, I'm going to drive more compute.

I might heat up my, I'm going to generate more heat, right? I'm going to generate different behavior.

I'm going to change how much current is even going into a servo.

So these three disciplines.

interact very deeply, right? And you can imagine, you know, someone once mentioned to me, the problems always emerge at the seams between teams.

And so the problem here is you have a mechanical engineering group, an EE group, and a software group.

Now, software, they're running on GitHub, which is owned by Microsoft.

Mechanical might be running on NX by Siemens or SolidWorks by Dassault.

And then electrical might be running on Altium, which is owned by Renesas or a Cadence or Synopsys product.

So you have three different, very large incumbent tool chains that you can imagine aren't the most sophisticated and don't play nice with each other.

And then oftentimes, you actually have siloed organizations as a consequence.