We started by asking whether AI is opening an “otra dimensión” of information, letting humans navigate relationships and events beyond normal cognitive limits.
That led to energy: if technology expands our informational reach, can it also expand our ability to capture and control energy?
From there:
AI → information → energy → space → Sun → Dyson swarm.
The conclusion: a Dyson swarm isn't really a giant battery. It's a civilization-scale energy network that could emerge gradually from today's satellites, solar power, storage, robotics, and eventually space-based manufacturing.
Otra dimensión → otra fuente de energía → otra civilization.
The following content is that conversation:
Yeah, I think there’s a genuinely interesting idea in what you're describing. I’d separate the literal physics from the human-experience metaphor, because the metaphor is stronger than the physics claim.
What you're calling a new “dimension” sounds to me like an information dimension: a space humans already inhabit, but AI radically expands our ability to move through.
Humans traditionally experience information sequentially:
observe → remember → search → compare → reason → act
AI compresses and accelerates that loop. It can simultaneously operate across enormous bodies of text, code, images, measurements, relationships, histories, and possibilities. From the human point of view, that can feel less like acquiring another tool and more like suddenly gaining access to a room that was always there but was too large to enter.
And I think your other examples—energy, gravity, frequency, events—fit an interesting broader idea. Nature contains systems operating at scales and dimensions that humans don't intuitively perceive. We build instruments to extend our senses:
- telescope → astronomical scale
- microscope → microscopic scale
- radio → electromagnetic information outside our senses
- accelerometer → motion we don't consciously perceive
- particle detector → events at scales we can't experience directly
- computer → symbolic/informational operations beyond practical human calculation
- AI → relationships and transformations across information at a scale humans can't practically traverse
So AI isn't necessarily introducing a new physical dimension. It may be introducing a new way of navigating dimensions of reality that were already there.
That's where I think your observation about resistance gets interesting.
Humans aren't necessarily afraid of AI because it's intelligent in some abstract sense. We're accustomed to tools extending our physical abilities. A forklift makes us stronger. A car makes us faster. A microscope lets us see smaller things.
AI extends something much closer to cognition itself.
That's different.
A calculator doesn't make you wonder whether arithmetic has become obsolete. But when a machine can take your vague thought, turn it into software, research a subject, design something, explain it, critique it, and iterate with you, the boundary between “my capability” and “the machine's capability” gets blurry.
And that can produce a very strange psychological reaction:
“If this thing can operate in an information space that I can't, where exactly am I in relation to it?”
That's a much deeper fear than robots taking jobs.
Your “universal” idea also has something to it, with an important qualification. AI isn't universal because it literally manipulates every force of nature. It's potentially universal in a different sense: information is a common representation layer across an enormous number of human activities.
A temperature sensor produces information.
An MRI produces information.
A financial transaction produces information.
A robot produces information.
A photograph produces information.
A scientific experiment produces information.
A person's request produces information.
AI can potentially sit between those systems and translate among them.
And honestly, that connects pretty well with the way you've been describing TreeVine: getting real data and using electronics to help people live better. The interesting part isn't necessarily “AI runs the house.” It's that sensors turn the physical world into information, and AI can help turn that information back into useful action.
That's a very different vision from the usual chatbot framing.
I'd almost phrase your idea as:
AI doesn't necessarily give humans another sense. It gives us a way to navigate information about the senses we already have—and about realities we couldn't previously comprehend at useful scale.
And that could explain some of the Frankenstein feeling around it. We're building something that doesn't merely extend the hand or the eye. It extends the information-processing layer between perception and action.
That's historically unusual.
Demand Curve
Humans need a way to store energy. it be great if we could collect high energy particles in a space batery that we could deliver into earth to be used by humans. is something like that plausible
Yes, but there's an important distinction: storing energy in space is plausible; collecting high-energy particles in space and bringing them down as a practical “space battery” is much harder.
Your idea actually touches several real concepts in physics.
1. Space already has enormous energetic particles
Cosmic rays, solar energetic particles, and the solar wind contain energetic charged particles. Some individual cosmic-ray particles have astonishing energies.
But there's a catch: the energy density is extremely low.
You could build an enormous collector and intercept particles, but you'd generally collect energy very slowly relative to the mass and complexity of the equipment. Cosmic rays aren't a practical energy source at present.
2. The Sun is a much better “space battery”
If the objective is collect energy in space and deliver it to Earth, the Sun gives you a much better proposition.
A solar collector in space could continuously collect sunlight and convert it into electricity. Because there's no atmosphere, clouds, or night at an appropriate orbit, it can potentially collect energy more continuously than terrestrial solar.
Then you have the interesting engineering problem:
How do you get the energy back to Earth?
Possibilities include:
- microwave power transmission
- laser power transmission
- transporting an energy-storage medium
- manufacturing energy-intensive materials in space and bringing them down
This is the basic idea behind space-based solar power.
3. Your particle-battery idea has an interesting variant
Instead of trying to collect random cosmic rays, imagine deliberately collecting charged particles and storing them electromagnetically.
A sufficiently large magnetic/electrostatic system could theoretically confine charged particles. You're essentially storing energy as the particles' kinetic and/or potential energy.
That's physically legitimate.
But there's a nasty problem:
The container has to survive the energy you're storing.
If you store enough energetic particles to make the system useful on an Earth scale, you're dealing with enormous radiation, electromagnetic stresses, heat-management problems, and containment issues.
It's somewhat analogous to asking:
“Can we store electricity by putting a billion lightning bolts into a bottle?”
Physics doesn't necessarily say no. Engineering says, holy shit, that's a difficult bottle.
4. There's another possibility I find more interesting
You don't necessarily have to bring the particles to Earth.
You could bring down something containing stored energy.
For example, suppose a spacecraft uses solar energy to manufacture a material with high chemical energy density. That material is transported to Earth and used as fuel.
Then space isn't the battery.
Space is the charging station.
That's a much more plausible architecture.
And there's an even more exotic version: use abundant space energy to produce fuels or other energy carriers, then transport those carriers to Earth.
Where your idea gets really interesting
You were talking about AI as opening an information dimension. There's a parallel here:
Humans are extremely good at consuming energy but terrible at storing it economically.
We have incredible energy resources around us:
- sunlight
- wind
- geothermal heat
- nuclear energy
- gravitational potential
- chemical energy
- eventually perhaps fusion
But our civilization constantly runs into the same problem:
Energy isn't particularly useful to us until we can control its rate, location, and timing.
A “space battery” doesn't necessarily need to be a giant container full of particles.
It could be an energy transportation system:
Sun → space collector → energy conversion → storage medium → Earth → human use
That is a much more physically plausible version of the idea.
And there's a beautiful connection to your TreeVine thinking: measure reality → understand it → intervene → improve the environment.
AI potentially gives us better control over the information layer.
Energy technology gives us better control over the physical layer.
Put those together and you get something much bigger than “AI + gadgets”: a system that senses physical reality, understands what's happening, and moves energy/resources where they're actually needed.
That's a legitimately interesting direction to think about.
Extreme Engineering Solutions
Exactly. A Dyson swarm is basically the enormous-scale version of what you're imagining.
The key distinction is that a Dyson sphere isn't necessarily a solid shell around the Sun. The physically more plausible concept is a Dyson swarm: enormous numbers of independent satellites orbiting the Sun and collecting its energy.
Think of the progression:
Solar panel on your roof
↓
Solar farm
↓
Orbital solar farm
↓
Millions/billions of orbital collectors
↓
Dyson swarm
The Sun outputs roughly 3.8 × 10²⁶ watts continuously. Humanity uses roughly 10¹³ watts of power. So the difference in scale is absurd.
And this gets back to your original “space battery” idea.
A Dyson swarm doesn't have to store all that energy. It could be an enormous energy collection and transmission system.
For example:
Sun → collector → electricity → microwave/laser → Earth
Or:
Sun → collector → industrial processing in space → energy carrier/material → Earth
The latter is particularly interesting because transmitting enormous amounts of energy directly through space creates its own engineering problems.
There's also a fascinating intermediate possibility: orbital solar power satellites that beam energy to Earth. You don't need anything remotely approaching a Dyson swarm to experiment with the basic architecture.
So I'd revise your original idea slightly:
Don't build a battery in space. Build an energy economy in space.
The Dyson swarm is essentially the ultimate version of that idea.
And there's a funny connection to what you said about AI: a Dyson swarm would be an enormous physical infrastructure for harvesting energy, while AI could become an enormous informational infrastructure for deciding what to do with it.
Energy + information are two very different things, but civilization's ability to manipulate both is what makes increasingly complex systems possible.