Isbn: 9798191451497 - built to break: falsifiable: a quantum collapse postulate, built and broken in real time (4 risultati)

PAP. Condizione: New. New Book. Shipped from UK. Established seller since 2000.

Taschenbuch. Condizione: Neu. Neuware - Wave function collapse doesn't need a conscious observer. It needs energy - real, thermodynamic, measurable energy, dissipated into a real environment. Built to Break tells two stories at once. The first is a physics postulate: an alternative to Copenhagen, GRW, CSL, and Diósi-Penrose, grounded in nothing more exotic than energy exchange between a quantum system and its environment, and a Heisenberg-type action threshold. No consciousness. No postulated universal noise field. Just dissipation, measured in joules, crossing a critical bound. The second story is what actually happened while building it - including a single arithmetic error, missed for longer than it should have been, that threw a predicted collapse time off by twenty-six orders of magnitude before anyone caught it. Then a second, subtler error: a formula that produced stable, plausible-looking numbers while being dimensionally impossible underneath. This book shows both, in full, without cleaning up the record afterward. Inside: - A complete derivation of the energy-dissipation threshold model, verified line by line and audited in SI units- The mistakes, shown exactly as they happened - and how they were caught- A rigorous comparison against CSL, GRW, and Diósi-Penrose- A concrete, falsifiable experimental protocol for an optically levitated nanosphere, with real numbers a laboratory could test today>Built to Break is not a book that claims to have solved the measurement problem in quantum mechanics. It is a record of building one honest, testable candidate solution - and being precise, in print, about exactly where it might still be wrong. Written for readers with a working knowledge of quantum mechanics and open-system dynamics who want to see the mathematics, not just the conclusions. …

Condizione: New. Print on Demand.

Paperback. Condizione: new. Paperback. Wave function collapse doesn't need a conscious observer. It needs energy - real, thermodynamic, measurable energy, dissipated into a real environment. Built to Break tells two stories at once. The first is a physics postulate: an alternative to Copenhagen, GRW, CSL, and Diosi-Penrose, grounded in nothing more exotic than energy exchange between a quantum system and its environment, and a Heisenberg-type action threshold. No consciousness. No postulated universal noise field. Just dissipation, measured in joules, crossing a critical bound. The second story is what actually happened while building it - including a single arithmetic error, missed for longer than it should have been, that threw a predicted collapse time off by twenty-six orders of magnitude before anyone caught it. Then a second, subtler error: a formula that produced stable, plausible-looking numbers while being dimensionally impossible underneath. This book shows both, in full, without cleaning up the record afterward. Inside: - A complete derivation of the energy-dissipation threshold model, verified line by line and audited in SI units- The mistakes, shown exactly as they happened - and how they were caught- A rigorous comparison against CSL, GRW, and Diosi-Penrose- A concrete, falsifiable experimental protocol for an optically levitated nanosphere, with real numbers a laboratory could test today- An honest final chapter on what the postulate still cannot explain Built to Break is not a book that claims to have solved the measurement problem in quantum mechanics. It is a record of building one honest, testable candidate solution - and being precise, in print, about exactly where it might still be wrong. Written for readers with a working knowledge of quantum mechanics and open-system dynamics who want to see the mathematics, not just the conclusions. This item is printed on demand. Shipping may be from our UK warehouse or from our Australian or US warehouses, depending on stock availability. …