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Gravitationally-induced Wave Function Collapse Time for Molecules
Anderson A Tomaz, Rafael Souza Mattos, Mario Barbatti

Gravitationally-induced Wave Function Collapse Time for Molecules

Science & Mathematics Published 2024 Verification Pending

Overview & Synopsis

The Diósi–Penrose model states that the wave function collapse ending a quantum superposition occurs due to the instability of coexisting gravitational potentials created by distinct geometric conformations of the system in different states. The Heisenberg time-energy principle can be invoked to estimate the collapse time for the energy associated with this instability, the gravitational self-energy. This paper develops atomistic models to calculate the Diósi–Penrose collapse time. It applies them to a range of systems, from small molecules to large biological structures and macroscopic systems. An experiment is suggested to test the Diósi–Penrose hypothesis, and we critically examine the model, highlighting challenges from an atomistic perspective, such as gravitational self-energy saturation and limited extensivity.

Indexed from repository: HAL Open Science (hal.science)
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Document Information

Document Title Gravitationally-induced Wave Function Collapse Time for Molecules
Author / Organization Anderson A Tomaz, Rafael Souza Mattos, Mario Barbatti
Subject & Discipline Multidisciplinary Academic Open Research
Categories Science & Mathematics
Publication Year 2024
License / Rights Open Access / Creative Commons
Resource Verification Listed PDF (Verification Pending)
Original Host Website HAL Open Science (hal.science)
File Format application/pdf (Portable Document Format)
Language EN
Catalog ID DOC-201313
Original Source Link Visit Source Page on hal.science »