Quantum Computing × Advanced Mathematics

Solving the World's Hardest Unsolved Conjectures

AlkindiX develops research-grade quantum computing systems for mathematical verification. Currently tackling Collatz, Riemann, and other frontier conjectures through ProofX and quantum-classical hybrid approaches.

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About AlkindiX

We build quantum-classical systems that push the boundaries of mathematical verification. Our work focuses on developing scalable approaches to unsolved conjectures through hybrid quantum algorithms and advanced computational frameworks.

Core Platforms

ProofX → A quantum-enhanced research environment for frontier mathematical conjectures. CollatzLab, its flagship engine, pioneers hybrid quantum-classical exploration of sequence dynamics and stopping-time analysis.

Research Philosophy

We operate at the intersection of quantum computation and pure mathematics, building systems that endure beyond current technological limitations. Our approach combines rigorous mathematical foundations with practical quantum implementation strategies.

Research Highlights

Quantum Collatz Verification

Developing quantum circuits for efficient Collatz sequence verification with exponential speedup potential over classical approaches.

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Riemann Zeta Analysis

Quantum algorithms for analyzing zeta function properties and zero distribution patterns using phase estimation techniques.

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Research Collaborations

Interested in quantum computing research or mathematical verification systems?

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