Kelly Holley-Bockelmann

For this purpose.

For exactly this purpose.

Yeah.

Look at that.

USA.

Absolutely.

I mean, it ends up being, you know, not only that, but individual parts in this constellation, you have to weigh each object that you put in, each little cable very, very, very distinctly because that causes a gravity gradient.

And that's going to, you know, mimic a gravitational wave.

is what you're saying.

Yeah.

Yeah.

Unless you screw, there's another thing that that's called tilt to link coupling where like, just like you said, you have it when you have a cube and there's a little bit of radiation pressure, which is going to put a little force, it's going to twerk it.

And so you'll get this cube rotating back and forth.

And that difference is going to be, it's going to mimic a difference in the path length because you're going to hit it, not perpendicularly.

And so this, you know, bobbing back and forth is, is something that you have to correct for.

Yeah.

Y'all make a good team.

Okay.

So yes, we do have to have things that are that relatively precise.

So we aren't detecting things a fraction of a proton length, not detecting relative changes on that scale.