A possible experimental test of quantized gravity
arXiv:gr-qc/0606120
Abstract
While it is widely believed that gravity should ultimately be treated as a quantum theory, there remains a possibility that general relativity should not be quantized. If this is the case, the coupling of classical gravity to the expectation value of the quantum stress-energy tensor will naturally lead to nonlinearities in the Schrodinger equation. By numerically investigating time evolution in the nonrelativistic "Schrodinger-Newton" approximation, we show that such nonlinearities may be observable in the next generation of molecular interferometry experiments.
9 pages, 2 ps figures
Cited by in corpus (13)
- Schrödinger-Newton "collapse" of the wave function
- Gravitationally induced inhibitions of dispersion according to a modified Schrödinger-Newton equation for a homogeneous-sphere potential
- Crucial tests of macrorealist and semi-classical gravity models with freely falling mesoscopic nanospheres
- Nonquantum Gravity
- Variational approach to the time-dependent Schrödinger-Newton equations
- Meaning of the wave function
- Is there a relativistic nonlinear generalization of quantum mechanics?
- A new framework for numerical simulations of structure formation
- A relativistic gauge theory of nonlinear quantum mechanics and Newtonian gravity
- de Broglie's double solution program: 90 years later
- Dark energy effects in the Schrödinger-Newton approach
- The Wave Function and Quantum Reality
- Some a priori estimates for a critical Schrodinger-Newton equation