Chris Fields does not fit into any conventional academic category. After studying physics and philosophy, he turned to computational biology and genomics in the 1990s, actively participating in the early major revolutions of DNA sequencing and biological databases.
However, his true quest has always been one of the most challenging questions in science: 'What is an observer?' To answer this, he left traditional institutional positions to become an independent researcher, collaborating with leading quantum physicists and neuroscientists worldwide.
Fields has been profoundly influenced by Shannon's information theory and recent interpretations of quantum mechanics (such as Zurek's Quantum Darwinism). His approach is radical: he considers that every physical event is fundamentally an information transfer.
By observing how autism affects perception, or how artificial intelligence processes data, he has modeled the human mind not as a 'thinking machine,' but as a mathematical boundary (a 'holographic boundary') that filters the vastness of the quantum universe to create a stable 3D reality for us.
Fields has published groundbreaking work showing that the architecture of the human brain (neural networks) performs the same type of calculations that physics uses to describe the structure of quantum spacetime (tensor networks).
He has mathematically formalized the idea that the act of observation (consciousness) is what 'defines' the boundary between a quantum system and the rest of the universe, theoretically resolving the quantum measurement paradox.
Fields adheres to a vision akin to that of cognitive scientist Donald Hoffman: our perception of reality (space, time, solid objects) is not the ultimate reality.
Just as the icon of a folder on a computer screen is not the actual folder (which is merely a sequence of 0s and 1s on a hard drive), our brain has evolved to provide us with a 'User Interface.' Quantum physics tells us that the reality behind the screen is an ocean of entangled information. Space and time are merely the programming language of our interface.
If space and time are merely categories of perception created by our 'interface' to structure information, then the notion of causal distance collapses. Fields explains that quantum entanglement (where two particles act in concert at any distance) is the rule, not the exception.
A synchronicity, in this rigorously mathematical framework, occurs when our neuro-cognitive interface filters, by error or necessity, a 'batch' of entangled information. We perceive two events separated in time or space (my dream, and the actual event the next day) as linked by miraculous meaning, whereas they have always been, at the fundamental informational level, one and the same equation.
Unlike essay authors, Fields disseminates his advanced concepts (on quantum gravity and cognitive sciences) directly through hundreds of peer-reviewed scientific publications.