Vacuum Landscaping: Cause of Nonlocal Influences without Signaling

Area of Science:

• Quantum mechanics
• Cosmology
• Quantum field theory

Background:

• Understanding quantum nonlocality is crucial for developing a consistent ontology.
• Existing models often require complex mathematical frameworks or invoke non-classical concepts.

Purpose of the Study:

• To propose a novel
• cosmological solution
• for quantum nonlocality.
• To demonstrate that nonlocality in distribution functions can explain quantum phenomena using classical means.
• To develop a model describable entirely within 3-space.

Main Methods:

• Assumption of a universal scalar field representing zero-point vacuum energy.
• Modeling quantum particles as nonequilibrium steady states (bouncers) resonantly coupled to vacuum frequencies.
• Derivation of the de Broglie-Bohm guiding equation for N particles using classical physics and the assumed nonlocality.
• Description of experimental setup effects as
• vacuum landscaping
• .

Main Results:

• The nonlocality of vacuum oscillations alone is sufficient to derive quantum behavior.
• The model successfully explains double- and n-slit interference patterns.
• Quantum phenomena can be described using classical physics within a 3-space framework.
• Eliminates the need for configuration space influences.

Conclusions:

• The proposed cosmological solution offers a new perspective on quantum nonlocality and ontology.
• This classical, 3-space model provides a potentially simpler framework for understanding quantum mechanics.
• The concept of
• vacuum landscaping
• offers insights into experimental influences on quantum systems.