Where Technology Meets Consciousness
Exploring quantum computing, blockchain architecture, consciousness dynamics, and ancient wisdom through cutting-edge research and functional programming
Our Research Domains
Bridging the gap between theoretical foundations and practical implementations across multiple disciplines
Quantum Computing
Type-safe quantum programming with Haskell, linear types for no-cloning enforcement, and advanced circuit simulation for next-generation computing.
- •HaskQ quantum library development
- •Circuit composition & simulation
- •Quantum algorithm implementation
- •Linear type safety for quantum mechanics
Blockchain & Consciousness
Advanced blockchain systems with Substrate parachains, DeFi protocols, and mathematical consciousness research through AGDEF theory.
- •Substrate & Polkadot development
- •Smart contracts & DeFi protocols
- •AGDEF consciousness modeling
- •AI awareness research
Physics & Ancient Wisdom
Exploring modified gravity theories, MOND dynamics, hermetic philosophy, and the intersection of cutting-edge physics with ancient wisdom traditions.
- •Modified gravity & MOND research
- •Emergent gravity models
- •Hermetic philosophy & alchemy
- •Digital grimoire preservation
Featured Research Highlights
Current research initiatives pushing the boundaries of quantum computing, consciousness studies, and interdisciplinary science
HaskQ: Quantum Computing Library
Revolutionary type-safe quantum programming library leveraging Haskell's linear types to enforce quantum mechanics principles at compile time.
Phantasius: Consciousness Research
Comprehensive research blog exploring consciousness dynamics, AI awareness, and mathematical models of mind through AGDEF theory.
HaskQ: Quantum Computing in Haskell
A revolutionary type-safe quantum programming library that leverages Haskell's linear types to enforce quantum mechanics principles at compile time, making invalid quantum programs impossible to construct.
Linear Type Safety
Enforces quantum no-cloning theorem at compile time
Circuit Simulation
Built-in quantum state simulation with up to 5 qubits
Functional Composition
Monadic circuit building for clean, declarative quantum algorithms
-- Bell state circuit with HaskQ
bellState :: Circ (Qubit, Qubit)
bellState = do
q1 <- createQubit Zero
q2 <- createQubit Zero
q1' <- hadamard q1
(q1'', q2') <- cnot q1' q2
pure (q1'', q2')
-- Quantum Fourier Transform
qft :: [Qubit] -> Circ [Qubit]
qft [] = pure []
qft (q:qs) = do
qs' <- qft qs
q' <- foldM controlledRotation q
(zip qs' [2..])
q'' <- hadamard q'
pure (q'' : qs')
where
controlledRotation c (t, k) = do
controlled c (rz (pi / fromIntegral k)) t
-- Grover's search algorithm
grover :: Oracle -> Int -> [Qubit] -> Circ [Qubit]
grover oracle steps qubits = do
qubits' <- mapM hadamard qubits
iterate steps (groverIteration oracle) qubits'Ready to Explore the Frontiers?
Join us in advancing quantum computing, consciousness research, and interdisciplinary studies that bridge the gap between ancient wisdom and cutting-edge science.