Our Research Pillars
1
Quantum Computing and Neurodiversity
Quantum-inspired models can represent diverse cognitive profiles more effectively than classical frameworks, opening pathways to personalized education and communication strategies.
2
Quantum Information for Perception
By applying quantum probability to cognition, we can explain biases, paradoxes, and context effects in human decision-making that classical logic fails to capture.
3
Quantum Computing and Consciousness
Quantum entanglement may underlie the brain’s ability to unify sensory inputs into a single conscious experience, offering a new theoretical basis for consciousness.
4
Quantum Foundations of Memory and Learning
Quantum frameworks help explain memory distortions and interference effects, suggesting memories function analogously to quantum measurement processes.
5
Quantum Biology in Neurons
Theories like Orch OR propose that quantum states in microtubules may form the physical basis of consciousness, pointing toward biologically plausible quantum processes in the brain.
6
Quantum Computing for Mental Health
Quantum algorithms could optimize personalized therapies, enabling earlier diagnosis and more precise treatments for mental health conditions.