Lee Cronin

You want to make A and B in the shortest path, which might mean that A is slightly longer. You have a compromise. Right. So when you see slightly more nesting in the construction, when you take a given object, that can look longer, but that's because the overall function is the object is still trying to be efficient. And this is still very hand-wavy.

You want to make A and B in the shortest path, which might mean that A is slightly longer. You have a compromise. Right. So when you see slightly more nesting in the construction, when you take a given object, that can look longer, but that's because the overall function is the object is still trying to be efficient. And this is still very hand-wavy.

You want to make A and B in the shortest path, which might mean that A is slightly longer. You have a compromise. Right. So when you see slightly more nesting in the construction, when you take a given object, that can look longer, but that's because the overall function is the object is still trying to be efficient. And this is still very hand-wavy.

I maybe have no leg to stand on, but we think we're getting somewhere with that.

I maybe have no leg to stand on, but we think we're getting somewhere with that.

I maybe have no leg to stand on, but we think we're getting somewhere with that.

Yeah.

Yeah.

Yeah.

Yeah. And the thing we're working on right now is how to understand these parallel processes. Now there's a new thing we've introduced called assembly depth. And assembly depth can be lower than the assembly index for a molecule. when they're cooperating together because exactly this parallel processing is going on.

Yeah. And the thing we're working on right now is how to understand these parallel processes. Now there's a new thing we've introduced called assembly depth. And assembly depth can be lower than the assembly index for a molecule. when they're cooperating together because exactly this parallel processing is going on.

Yeah. And the thing we're working on right now is how to understand these parallel processes. Now there's a new thing we've introduced called assembly depth. And assembly depth can be lower than the assembly index for a molecule. when they're cooperating together because exactly this parallel processing is going on.

And my team have been working this out in the last few weeks because we're looking at what compromises does nature need to make when it's making molecules in a cell? And I wonder if, you know, I may be like, well, I'm always leaping out of my competence. But in economics, I'm just wondering if you could apply this in economic processes.

And my team have been working this out in the last few weeks because we're looking at what compromises does nature need to make when it's making molecules in a cell? And I wonder if, you know, I may be like, well, I'm always leaping out of my competence. But in economics, I'm just wondering if you could apply this in economic processes.

And my team have been working this out in the last few weeks because we're looking at what compromises does nature need to make when it's making molecules in a cell? And I wonder if, you know, I may be like, well, I'm always leaping out of my competence. But in economics, I'm just wondering if you could apply this in economic processes.

It seems like capitalism is very good at finding shortest path.

It seems like capitalism is very good at finding shortest path.

It seems like capitalism is very good at finding shortest path.

you know every time and there are ludicrous things that happen because actually the cost function has been minimized and so i keep seeing parallels everywhere where there are complex nested systems where if you give it enough time and you introduce a bit of heterogeneity the system readjusts and finds a new shortest path but the shortest path isn't fixed on just one molecule now it's in the actual

you know every time and there are ludicrous things that happen because actually the cost function has been minimized and so i keep seeing parallels everywhere where there are complex nested systems where if you give it enough time and you introduce a bit of heterogeneity the system readjusts and finds a new shortest path but the shortest path isn't fixed on just one molecule now it's in the actual