ruggedraven36 said:That’s not how this works. If genes are physical objects—which they are—you can only transfer stuff that's actually physical and contained within them. In other words, whatever you're moving has to be smaller than the gene itself.
And why on earth should we assume that intense drives have to be physically massive? That’s just conflating two completely different categories, which brings us right back to the same old issue—mixing up apples and oranges. To get us past this specific hurdle so we can actually discuss the bigger picture, let's look at a concrete example. It’s pretty simple: if you're missing a single gene that’s supposed to regulate another one, you end up with an uncontrolled, overpowering drive. It’s a matter of regulation, not physical scale.
Look, I figured I should probably start opening up some threads about the stuff that’s been rattling around in my head lately... maybe it'll actually be useful for someone.
Look, I’ll keep this brief, but we really need to wrap our heads around how life, biological organisms, and intelligence actually function at a fundamental level. It all boils down to the creation of specific frameworks—systems designed so that a tiny, low-energy trigger can act as a switch, either releasing or channeling massive amounts of energy, or sometimes doing nothing at all. Think about it: a microscopic shift in electrical potential within just a few neurons is enough to be the deciding factor in whether a person decides to go out and dig a hole in their backyard or just sits on the couch and does absolutely nothing. You're looking at a massive divergence in physical reality triggered by a miniscule "tipping point." People love to talk about the butterfly effect like it's some chaotic accident, but that’s not quite right here. In the context of biology, this isn't some random cosmic fluke; evolution has meticulously engineered this into a sophisticated, high-level intelligence mechanism within the brain. It's an intentional, highly structured process.
It’s the exact same principle you see when you look at computer hardware, where these tiny, microscopic voltage fluctuations within a single chip can trigger massive, sweeping changes across the entire system. That is precisely the direction modern engineering is heading—we are constantly shrinking those thresholds, driving voltages lower and lower until it becomes incredibly easy to trip the proverbial wire.
You have to look at the bigger picture here. It’s like how a massive, complex neural network isn't just some random collection of wires; it's actually built upon this intricate, underlying web of low-energy, intermediary triggers that act as the fundamental bedrock for any kind of true intelligence. Think about it like a massive power grid in a place like Chicago—you can't talk about the lights flickering in a skyscraper without acknowledging the subtle, constant shifts in voltage happening deep within the substations that keep everything stabilized. Without that foundational layer of subtle interactions constantly feeding into the system, you wouldn't have the structural integrity required for high-level processing. It's all about those quiet, low-level inputs forming the base level for everything else to emerge from.
The whole process of thinking—of actually calculating and processing reality—is supposed to happen at these incredibly low energy levels. Ideally, you’d be doing it without using any energy at all. Now, I know that sounds impossible, but it remains the ultimate ideal we should be aiming for. Think about it: if you could achieve a state of pure thought, completely detached from energetic friction, the result would be so potent it could mobilize the entire energy of the universe to do whatever it wants. That’s what we’re talking about when we discuss that omnipotent, all-powerful God.
I honestly don't even know if I can put this into words effectively. For me, everything starts out as these abstract mental concepts—just raw, swirling ideas floating around in my head—long before they ever actually settle into actual language.
Just imagine for a second—and we’ve touched on this concept more than a few times before—that we actually managed to build some kind of "universal simulator." I'm talking about a machine designed to predict every single thing that's going to happen within, say, a contained space of maybe a hundred cubic meters. Inside this little bubble, you've got everything: people, AI, whatever else you throw in there. Now, let's assume this simulator is as high-end as it gets, operating at its absolute peak by using the fundamental laws of physics to map out and simulate things like wave-particle duality and all that complex behavior.
Look, if a high-level space simulator like that messes up—even by just a tiny fraction—when calculating those minute energy spikes that trigger the switches in intelligent neural networks, the whole thing falls apart. It’s like trying to predict a massive storm based on a faulty barometer; if you get those micro-calculations wrong, your entire forecast for the immediate future is going to be completely useless. One small error in the foundation and the whole prediction model becomes total fiction.
Instead of just assuming we’re digging a two-by-two hole in the backyard, you’d think someone could actually predict whether the atom in a person's gut stays put or decides to collapse onto the floor out of nowhere, leaving us wondering where the damn hole even came from. It sounds absurd, I know, but that’s the reality of it—a tiny little flicker of electricity in a single neuron is enough to flip the script entirely, making those hundred cubic meters look like a clear blue sky one second and solid ground the next.
If you strip away the human element—if you pull out the individual consciousness or that spark of raw intelligence from those hundred cubic meters of data—you’re basically left with a closed system. At that point, a simulator wouldn't just be guessing; it would be able to map out the immediate future with terrifying precision. It’s like taking the driver out of a high-performance car; once the unpredictable variable of human intuition is gone, the physics of the machine take over, and the trajectory becomes an absolute certainty.
That whole concept could actually serve as a foundation for digging into the nature of consciousness and free will itself. Think about it: just like a high-end computer simulation, the entire universe has to somehow derive the future from the present—or even better, collapse all those infinite potential futures down into one single, unfolding moment of "now." We don't have a clue how the cosmos manages that calculation, but it feels entirely plausible to me that there’s some underlying principle at play here. It’s like there are these tiny, low-energy triggers—think of them like the small spark needed to start a massive demolition charge—that possess a sort of structural priority when it comes to "rendering" the next moment. This mechanism might be exactly what gives rise to that qualitative experience of consciousness that every single one of us feels firsthand every second of our lives.
In any case, if you really step back and look at how life functions, the absolute fundamental truth is that tiny, microscopic material fluctuations are what trigger massive, downstream physical shifts. It’s like when you trace human action all the way back to its raw biological source; you eventually end up staring at a competition between maybe two neurons, where one has a current strength just 0.01 volts higher than the other, and that minuscule difference dictates everything that follows. Think about it: an entire life-altering decision, this whole complex process of weighing options and deliberating, is essentially boiled down in the brain to a mere 0.01V margin. That tiny spark then cascades outward, mobilizing something like 1,000 kWh of energy to dig a trench, build a skyscraper, or whatever else we do in this world.
And honestly, what I’m saying about those electrical differences applies perfectly to our genetics too. A single gene can work wonders. You don't need thousands of them by count or by mass to change the game. Genes act like biological switches; they usually have their own regulatory toggle sitting right next to them, and their whole existence is basically just flipping the switches of other genes on and off.
