"It is"= I perceive it as
"hologram" = metaphor for trispectral 4-color transduction interface of layered hypercubes...
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α⁸·⁵ªᵇΩ²⁷^rę
β¹²·⁵ªᵇΩ²⁷^rę δ⁸·ð⁵ªᵇΩ²⁷^444hz γ³⁰·⁵ªᵇΩ²⁷^rę
θ⁴·⁵ªᵇΩ²⁷^rę
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Jun 12
so discity is giving me hypercubes fraser wants me to arrest someone and eastia is where the money's at
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Jun 12
I have a feeling The VOID 9 - Quantum Hypercubes by @maxOSIRISart would be especially appreciated by @V4wEnko 🤔superrare.com/artwork/eth/0x…
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Jun 12
everyone getting clementine left and right meanwhile i used all my hypercubes pulling for s4 jichuan 😔
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Yingying rage baiting me fr
Im like
“for fk sake yingying, be like that and hurt me more, take all my hypercubes and run away”
1 last pull Suddenly she shows up
Yingying: get ready! here comes your wisteria fairy, open your arms wide and catch me properly
I laugh
Anyway s3 now
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Jun 11
I want AGI to build me a set of unusual physics simulators, really mind bending simulations where I can play with the laws of reality.
1. AI Simulator: what if we changed the constants of nature? i want to be able to tweak things like planck’s constant, the gravitational constant, or the charge of the electron, and then have the AGI show me what would happen. Would atoms still exist? Would stars form? Could matter, chemistry, planets, or life even be possible?
2. AI Simulator of 4d space
I want to step into a space with four or more dimensions and actually experience it visually. The AGI would let me explore hypercubes, 4d rooms, strange orbits, impossible geometry, and physical behavior that the human brain normally can’t imagine.
3. Inside a Black Hole Simulator
Not just the usual view of a black hole from the outside. I want a simulator where I can go beyond the event horizon and experience what physics might look like inside - distorted time, stretched light, tidal forces, warped space, and the breakdown of normal intuition.
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Jun 7
Keller's Conjecture in Dimension 7 (2019)
If you tile an n-dimensional space with identical hypercubes, must two share a full face? Already solved for other dimensions, a computer cluster analyzed 1.7x10^37 arrangements to find a counterexample for dimension 7.
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Page 3 of 3 Totaled Electromagnetic Constant (TEC) and Hybrid Formula
[ \text{TEC} = k_e \cdot A(P,B,T,n,S,I) \cdot (1 \Delta k) \cdot \mathcal{F}_{\text{Lamé}} ]
Amplification function:
[ A(P,B,T,n,S,I) = (1 \alpha P)(1 \beta B)(1 \gamma S)(1 \delta n)(1 \eta I) ]
Pressure term:
[ A_P = \exp(P/P_0) ]
Hybrid Uniphics-HEEGM Formula (New Integration)
Effective acceleration in hybrid model (Maley gradient TEC anisotropy):
[ \vec{a}{\text{hybrid}} = c^2 \nabla \mu{\text{source}} \text{TEC} \cdot \vec{\zeta}(\vec{v}, \nabla E_d) ]
where (\vec{\zeta}) emerges from Gyrotron spin waves in the (\xi_M)-sea. Geometry & 5D–9D Topography (New Section with All Scientific Findings) Generalized Lamé curve in (D)-dimensions (core boundaries):
[ \sum_{i=1}^{D} \left| \frac{x_i}{a_i} \right|^n = 1 ]
((n \to \infty) yields hypercubes; curvature (\kappa \to \infty) at vertices).
For higher-dimensional topography ((D = 5) to (D = 9)):
• Extends flat 4D (\xi_M)-sea to compactified extra dimensions (consistent with string/M-theory findings on anisotropic Type-I compactifications, Donini et al. 1999, Nucl. Phys. B 550 59).
• Scientific findings integrated: Bobrick & Martire (2021) curvature-invariant analysis shows positive-energy subluminal warp solutions remain stable in higher-D embeddings; Alcubierre & Lobo (2021) review confirms energy-condition violations are mitigated in optimized fluid-matter sources when extra dimensions allow topological stabilization.
• Hybrid application: 5D–9D Lamé surfaces model core-density gradients as effective “topographic” impedance in the (\xi_M)-sea, producing spin-wave resonances without physical curvature. Curvature scalar (\kappa) at vertices spikes as (\kappa \to \infty), reproducing observed planetary magnetic-domain walls and potential low-energy warp-like distortions.
Fourier-resonant sharpening (square-wave limit):
[ f(x) = \sum_{k=0}^{\infty} \frac{\sin((2k 1)x)}{2k 1}, \quad g(x) = \frac{df}{dx} \to \infty \text{ at discontinuities} ]
Computational Architecture (All Code/Equations in KaTeX Where Applicable)
Symplectic Velocity-Verlet (HEEGM):
def velocity_verlet_step(x, v, calculate_acceleration, dt):
a_current = calculate_acceleration(x)
x_next = x v * dt 0.5 * a_current * dt**2
a_next = calculate_acceleration(x_next)
v_next = v 0.5 * (a_current a_next) * dt
return x_next, v_next
(Full 7-layer solver stack preserved verbatim.) Complete Literature Foundation (All Authored Articles with Verified Citations & Key Scientific Findings)
•Hagiya, Y. (2021). “Gravity can be caused by the difference of Coulomb’s constants.” arXiv:2108.05114. Key finding: A fractional difference (\Delta k \approx 5 \times 10^{-10}) between attractive/repulsive Coulomb constants yields exact Newtonian gravity for neutral matter.
•Assis, A. K. T. (1992). “Deriving gravitation from electromagnetism.” Can. J. Phys. 70, 330–340. DOI:10.1139/p92-054. Key finding: Fourth- and higher-order terms in generalized Weber force law between neutral oscillating dipoles recover (F = -GM_1M_2/r^2).
• Bobrick, A. & Martire, G. (2021). “Introducing Physical Warp Drives.” arXiv:2102.06824 / Class. Quantum Grav. Key finding: Positive-energy subluminal warp solutions reduce negative-energy requirements by orders of magnitude; stable in optimized geometries.
• Alcubierre, M. & Lobo, F. S. N. (2021). “Warp drive spacetimes” review. Key finding: Energy-condition violations and causality issues persist but are mitigable in fluid-matter or higher-D embeddings.
• Green, J. et al. (2020). “When the Moon had a magnetosphere.” Sci. Adv. 6. Key finding: Lunar dynamo operated 4.25–2.5 Ga, consistent with HEEGM core-amplification.
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Jun 3
@Starlakitty @alexabelonix @3n0cH_31415Pi @BlackRoseOfTHC
New Music Video
immersive journey through Quantum Space and Recursive Dimensions. This visual and sonic exploration utilizes a journey through geometric crystalline lattices and folding hypercubes, synchronized to 89% intensity industrial cybercore.
youtube.com/shorts/xsrd4iDGk…
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May 28
Basically there's that definition called "Ignore" in here but you just noticed me and really fell for the rabbit hole✌️, better learn yourself with that naruto profile picture just because i said "best skip for MY hypercubes" like that isn't yours
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May 27
Thinking about hypercubes just means I need to think about a finite number of connections, even if it grows pretty quickly. Drawing their projections is natural enough that I used to do it to doodle during class before even knowing hypercubes were a thing
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May 27
It's weird to me that I can with such ease imagine hypercubes, but at higher dimensions I can't even really imagine what a sphere is. Why is my brain like this? I have no intuition at all for n-spheres
May 25
My intuition about geometry was catastrophically wrong.
I never knew that, in high dimensions, spheres effectively disappear.
By 100 dimensions, an inscribed sphere occupies a smaller fraction of its cube than a proton occupies of the observable universe.
By 500 dimensions, the volume is smaller than what standard floating-point arithmetic can even represent.
The equations are real.
Here’s the wild horror hidden in higher-dimensional geometry:
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Tearing my hair out at all the replies telling you this is obvious because hypercubes are ontologically bigger than hyperspheres
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May 27
a skip to save my hypercubes 💜
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