SHUNYAYA FRAMEWORK

From six vertices onward, degree parity and edge count modulo 3 completely determine reachability between labeled graph states. 🔺 A tiny local move, a global question Take a simple graph on n labeled vertices. Choose any three vertices and inspect the three edges between them. A move is allowed only when those three edge bits are monochromatic: 000 <-> 111 So an empty triangle can become a complete triangle, and a complete triangle can become empty. The rule is local, reversible, and state-dependent . But its global behavior creates a much larger question: Given two graph states, can we determine exactly whether one can be transformed into the other? For every n>=6 , the answer is: Yes. That is the central theorem of Shunyaya Orbit Stabilization Theory (SOST) . 🔗 Explore the complete SOST repository on GitHub 🎯 Orbit equivalence is completely determined by two invariants For a graph G , define P(G) = vertex degree-parity vector and R(G) = |E(G)| mod 3 Then, for every ...

A constructive classification shows how local complementation, parity, and symplectic structure reduce incidence-full coupled graph dynamics to an exact global classification. A system can admit an enormous number of local transformations and still possess a surprisingly small global structure. That is the central result of the Shunyaya Structural Discovery Demonstration (SSDD) . In its current v2.0.2 research package, SSDD studies coupled graph dynamics represented by two graphs R and B on the same vertex set and proves a stable classification on its stated incidence-full domain: odd N>=13 -> exactly one equivalence class even N>=12 -> exactly two equivalence classes For even N , those two classes are distinguished exactly by the characteristic section chi . 🔗 Explore the complete SSDD research repository on GitHub 🔴🔵 Start with two coupled graph layers Let R and B be simple graphs on the same N vertices. SSDD packages them into the incidence chart L(R,B) = [...

A local-to-global graph-theoretic framework turns canonical defect signatures into exact quotient structure, an intrinsic parameter, and a tight complexity law. Many mathematical problems look difficult because they are being viewed in the wrong coordinates. A complicated collection of objects may become simple once the right quotient, invariant, defect, signature, or equivalence relation is found. For the connected bipartite graph structure studied here, the answer is yes. Local defect signatures generate the global surplus quotient structure exactly, and the same obstruction geometry leads to an intrinsic parameter with tight 2^Theta(sqrt(k_ext))*poly(n) dependence under ETH. That idea motivates the Shunyaya Structural Discovery Compiler (SSDC) : a mathematical research framework for discovering representations in which hidden behavior becomes theorem-visible, exactly provable, and algorithmically useful. Its current v2.0.0 research package develops this idea concretely for co...

A computer-assisted mathematical proof rules out an entire finite covering-system class. 🔢 A surprisingly specific question In number theory, a covering system is a finite collection of congruences whose residue classes together cover every integer. Here, the modulus is the repeating step size of a congruence class. For example, each congruence has the form x == a_i (mod m_i) Now impose three conditions: every modulus is odd and greater than 1 ; modulus 9 appears exactly twice; every other modulus appears at most once. A natural question is: Can such a covering system exist? The answer is: No. That is the central result of Shunyaya Residual Capacity Theory (SRCT) , presented as a computer-assisted mathematical proof . The theorem is class-wide: it does not eliminate a few examples or a bounded search region. It rules out every finite covering system satisfying those exact conditions . 🔗 Explore the complete SRCT repository on GitHub 🧩 Why modulus 9 matters A standard quantity ...