@first.principles.ai: For centuries, if you wanted to find the optimal solution to a complex system—like a physics simulation or a neural network—you had to rely on local calculus.
Algorithms like Gradient Descent or Newton’s Method navigate mathematical landscapes by "feeling" the slope directly beneath their feet. But in complex, narrow valleys, this blind approach leads to violent oscillation or computationally explosive algebra (like inverting massive Hessian matrices).
Enter the **Perceptual Landscape Optimizer (PLO)**.
What if we stop calculating derivatives and start treating math equations like topographical images? By feeding a local 3D heightmap into a Vision AI, the model learns *implicit inverse curvature*. It doesn't calculate the math; it uses "facial recognition for geometry" to intuitively see the best path forward.
🧠 **The Quick-Win Mental Shortcut:**
Next time you think about optimization, remember **The Hiker vs. The Drone Rule**:
• *Classical Math* is a blindfolded hiker. It has to feel the dirt to know the slope.
• *Vision AI* is a drone. It looks at the whole map and just flies down the valley.
Calculus *calculates*. AI *perceives*.
We are replacing explicit differential algebra with learned geometric intuition. AI is no longer just a faster calculator—it is a geometric navigator.
🔗 **Want the rigorous math?**
Hit the link in my bio to read today’s Substack Deep-Dive. I break down the full LaTeX derivations, the history of Newton's Method, and exactly how this visual approach unlocks the future of "black-box" optimization.
👇 **Question for you:** If you could replace one grueling math or physics concept with a purely visual AI, which one would it be? Let me know in the comments!
#mathematics #machinelearning #calculus #optimization #artificialintelligence
First.Principles.AI
Region: DE
Tuesday 06 October 2026 21:15:53 GMT
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Miles Marchiori :
The problem is we can’t see the loss landscape bro. To build a picture with enough resolution to minimise the loss in one step, you’d have to sample the loss across a very high dimensional parameter space at a massive scale, but each sample isn’t meaningfully cheaper than just sampling the gradient in your current state and using that information to inform the next (via gradient descent). So you’re just wasting compute resolving details of the loss landscape that aren’t relevant at all to its minimum. TL;DR gradient descent is a lot better than Montecarlo
2026-10-07 06:29:45
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Bolvarsdad :
So basically: instead of following the local gradient, train an AI to recognize the surrounding loss landscape and learn how to navigate toward a minimum. The catch is that in high dimensions, you can’t literally visualize the whole landscape, so you’d need a compressed representation of its useful structure.
2026-10-07 08:01:20
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mobiuspizza :
This require you to evaluate the cost surface enough time to build the image, surely that's equally inefficient as a global particle swarm which evaluates enough points to avoid local minima
2026-10-07 02:38:31
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Bjsweetz :
It’s just a transformation of the math into geometry, then using a computer vision adjascent algorithm. But it would be cheaper and faster to simply do the calculation. Unless you can compile this very efficiently into a model somehow. But at the end of the day you’re still doing a transform. And once you get to higher dimensional functions your projections become infinitely complex. It’s a cool idea but impractical
2026-10-07 06:38:31
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Nox. :
Sampling F(x_k + Δ_ij) on a stencil is how finite-difference gradients and Hessians are computed. The heightmap is derivative info, not a bypass.
Grids blow up as mⁿ in n dimensions. Every slide is 2D where real models have millions of parameters. That's why gradients win. BFGS already gives implicit inverse curvature, and Nelder–Mead/CMA-ES handle black boxes. Learned optimisers are real, but benchmark them.
2026-10-07 07:48:24
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Vorname Nachname5855 :
You don't understabd what you are actually saying: Your question is, what if AI just understood math. The meaning is, that it understands it that good, that it just sees. Your pictures already show that.
2026-10-07 04:52:03
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neri ᗜˬᗜ :
please dont use ai to write your scripts, not only it overlooks important details but also just says blatantly wrong stuff.
2026-10-07 05:52:00
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Обі-ван Кенобі :
good luck visualizing 1000 dimension surface
2026-10-07 07:33:07
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Maxorisbad :
The reason we imagine a blind hiker is that to visualise the surface, you need to evaluate it at numerous points, while the blind method only evaluates it at some points, this makes it far more efficient
2026-10-07 09:36:33
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oXoTHUK_3A_HACKAMU :
bugs also do it when they fly
2026-10-07 04:51:39
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Artists for Democracy :
Mixed integer optimization
2026-10-06 21:59:38
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Life42 :
Why a drone? Give him wings
2026-10-07 07:27:12
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azaral1 :
I made a geometric linear and non linear today
2026-10-07 01:11:31
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leddy_222 :
thats how my brianbwork
2026-10-07 02:29:45
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agna mu :
holy cringe. this is essentially just computing a discrete grid and searching for a minimum. infeasible for large scale due to curse of dimensionality.
2026-10-07 01:28:33
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🜲 마우리 🜐 :
Why all the pop science worshippers got triggered by your post 🤭 is it not Science about free thinking and experimenting?
2026-10-07 08:47:15
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Aphratuss :
i wonder if you are onto something or on something
2026-10-07 07:50:08
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Deactive :
Larp ah shi
2026-10-07 03:22:15
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