A comprehensive compendium of breakthrough speculative theories reshaping our understanding of computation, energy, physics, and the fundamental nature of reality itself.
Jackson's work in computational theory challenges the very foundations of how we process information, exposing fundamental inefficiencies in modern computing architectures while proposing revolutionary alternatives that could redefine the digital age.
A revolutionary framework for understanding computational flow and system evolution through quantum-entropic principles that transcend classical mechanics.
A paradoxical approach that combines raw computational power with strategic intelligence, creating unprecedented efficiency in problem-solving.
The AI Infrastructure Crisis
Exposing Technology's Hidden Costs
Jackson's research reveals uncomfortable truths about artificial intelligence's environmental and infrastructural impact.
The Parasitic Scaling Laws describe how AI systems consume exponentially increasing resources while delivering diminishing returns—a mathematical proof that current trajectories are fundamentally unsustainable.
This isn't speculation; it's thermodynamic inevitability.
His provocative work AI Is Destroying The World and analysis of AI's Resource Bubble serve as urgent warnings to an industry racing toward a cliff edge, mistaking acceleration for progress.
Photonic computation architectures that eliminate electron-based inefficiencies entirely
Security & Infrastructure Revolution
Beyond theoretical physics, Jackson addresses practical vulnerabilities in our technological infrastructure.
His call to End Copper Vulnerability exposes how legacy materials create inherent security weaknesses that sophisticated adversaries already exploit.
Meanwhile, his vision for Mobile A.I. reimagines artificial intelligence as truly portable, autonomous systems unconstrained by centralized infrastructure.
Moving AI processing to edge devices transforms security from a perimeter defense problem into a distributed resilience architecture.
Autonomous Systems
Self-powered, self-healing networks that operate independently of traditional infrastructure dependencies.
Quantum Fluid Dynamics & Continuums
Jackson's exploration of Quantum Fluid Dynamics treats quantum fields as fluid media, revealing emergent behaviors that particle-based models cannot capture.
This framework bridges the gap between quantum mechanics and thermodynamic systems, offering unprecedented predictive power.
The Φ-Continuum and Φπ-Continuum introduce golden ratio and pi-based geometries as fundamental organizing principles of physical reality, suggesting that mathematical beauty isn't merely aesthetic—it's structural to existence itself.
One led to the evolution of the other, until both universal models folded organically into Jackson's magum opus universal model: the Thermodynamic Infinity
Treating disorder itself as a quantifiable, particle-like entity with measurable properties and predictable behaviors
Ontological & Cosmological Frameworks
Jackson's philosophical frameworks challenge our most fundamental assumptions about existence.
Subtractive Ontology , inspired by a discourse with Rupert Sheldrake - regarding 'self-organizing systems', proposes that reality emerges not from the presence of things but from the absence of infinite possibility—existence as constraint rather than creation.
Existence as temporary loan from quantum vacuum fluctuations
Photonic Architecture Innovation
Light-Based Computation
The Photonic Hybrid Math Architecture represents Jackson's vision for computation that operates at the speed of light with near-zero energy dissipation.
By eliminating electron transport entirely, these systems bypass fundamental physical constraints that have plagued computing for decades.
His Tesla Photonic Coil reimagines Nikola Tesla's wireless energy transmission concepts through the lens of modern photonics, creating resonant optical cavities that achieve unprecedented energy transfer efficiency.
This isn't incremental improvement—it's categorical transcendence of existing paradigms.
Consciousness emerging from synchronized quantum states rather than classical computation.
A different angle to view Entropy from.
Convergence Theories & Universal Models
Jackson's Sheldrake–Φ–ΠConvergence synthesizes morphic resonance theory with mathematical constants, suggesting that biological forms arise from geometric constraints encoded in universal mathematical relationships.
His Universal Models provide comprehensive frameworks for understanding how seemingly disparate phenomena share underlying structural principles.
Mathematical Constants
Φ and π as organizing principles
Biological Forms
Morphogenesis through resonance
Field Theory
Information transmission across scales
Systemic Integration
Unified explanatory frameworks
Entropy as Fundamental Principle
Redefining Disorder
Jackson's Operationalizing the Second Law treats entropy not as decay but as the driving force behind complexity and intelligence.
His Entropharmonics reveals how disorder creates emergent order through resonant interactions.
The Entropy Inverted framework proposes that what we perceive as increasing disorder is actually increasing information density—complexity masquerading as chaos.
This inversion has profound implications for thermodynamics, information theory, and the ultimate fate of the universe itself.
Understanding how coherence emerges spontaneously from distributed components without central control
Hyper-Newtonian Physics
Jackson's Hyper-Newtonian Physics extends classical mechanics into regimes where quantum effects and relativistic constraints intersect, creating a unified framework that neither quantum field theory nor general relativity can independently address.
This isn't replacement—it's synthesis at a higher dimensional order.
Classical Extension
Preserving Newtonian intuitions while incorporating quantum uncertainty and relativistic effects
Dimensional Bridging
Connecting phenomena across scale through continuous mathematical transformations
Predictive Power
Offering computational tractability for problems that quantum mechanics renders intractable
Jackson proposes that heat represents not merely molecular motion but a fundamental property of spacetime itself—an infinite reservoir from which all phenomena emerge.
In this framework, temperature gradients drive not just thermodynamic processes but cosmic evolution, structure formation, and potentially consciousness itself.
This caloric framework suggests the universe is not winding down toward heat death but rather exploring an infinite thermal landscape where complexity arises naturally from temperature differentials.
The implications challenge both Big Bang cosmology and thermodynamic orthodoxy.
Biological information processing that transcends silicon-based paradigms
Resilience & Standards Frameworks
Jackson's practical frameworks address real-world system vulnerabilities and operational challenges.
The Lazarus Mode Resilience Protocol enables systems to recover from catastrophic failures through distributed state preservation and autonomous reconstruction—resurrection from total system death.
Failure Recovery
Autonomous systems that rebuild themselves without external intervention
Building verifiable trust in fundamentally untrusted computational environments
Medical & Systemic Risk Analysis
Healthcare Infrastructure Vulnerabilities
Jackson's analysis of Systemic Risk in Modern Medicine exposes how healthcare's increasing technological sophistication creates catastrophic failure modes.
Centralized electronic health records, supply chain dependencies, and algorithmic decision-making introduce vulnerabilities that traditional medical practice never faced.
His work advocates for resilient, distributed healthcare architectures that maintain functionality even when components fail—applying lessons from autonomous systems and quantum coherence to life-critical infrastructure.
Engineered Inevitability
Jackson's concept of Engineered Inevitability represents the culmination of his philosophical and technical work: designing systems where desired outcomes emerge not through control but through structural necessity.
By encoding objectives into the fundamental architecture of physical and computational systems, success becomes thermodynamically favored rather than merely probabilistically likely.
10x
Efficiency Gains
Systems designed for inevitability outperform controlled systems by an order of magnitude
99%
Success Rate
Outcomes become thermodynamically preferred rather than merely statistically likely
0
Central Control
Eliminating bottlenecks through distributed, self-organizing architectures
Jackson P. Hamiter
Quantum Systems Architect | Integrated Dynamics Scientist | Entropic Systems Engineer
As Founder & Chief Scientist of PhotoniQ Labs, Jackson bridges theoretical physics, practical engineering, and philosophical inquiry.
His work spans quantum-entropic dynamics, coherent computation, and autonomous energy systems—domains that converge at the intersection of fundamental science and transformative technology.
Jackson's theories don't merely predict the future; they engineer it.
From exposing AI's unsustainable trajectory to designing photonic computing architectures, from reimagining thermodynamic cosmology to establishing new intelligence frameworks, his work consistently challenges orthodoxy while offering practical pathways forward.