Explore an intriguing analogy between the universe and a discrete event simulator. Delve into the concept of reality as a coordinated system of discrete events.

Everettian quantum mechanics presents a choice; wave function or density matrix realism, affecting how decoherence, branching, and the born rule are understood.

Explore the debates surrounding scientific realism and the empirical equivalence between different interpretations.

Explore the various programs proposing justifications for the Born rule in Everettian quantum mechanics.

Explore how quantum interference manifests differently in pure and mixed-state multiverses, shedding light on the dynamics of branching.

Discover how density matrix realism reshapes our understanding of quantum states in the multiverse.

Quantum AI leverages quantum mechanics principles like superposition, entanglement, and tunneling to revolutionize information processing and problem-solving.

This article presents the derivation of marginal likelihood in the context of stochastic field amplitude analysis.

This article explores the equipartition of power between longitudinal and transverse modes in the context of dark matter halo formation.

This study outlines a strategy for detecting ultralight vector dark matter, highlighting sensor behavior and guiding future experimental designs.

Explore how three-peak analysis in accelerometer studies sets exclusion limits on B − L dark matter, focusing on gauge coupling and resonance tuning.

Learn why longer observation times are important for improved dark matter detection.

Accelerometer studies gain from a three-peak analysis approach for vector dark matter detection, overcoming signal loss from single-peak methods

Discover how a latitude-independent, three-peak analysis enhances projected exclusion limits for vector dark matter detection

Explore how three-peak analysis and hybrid frequentist-Bayesian likelihood methods improve statistical analysis of vector dark matter signals.

Explore stochastic wave vector dark matter signals and how equipartition shapes dark photon field dynamics through non-linear gravitational clustering effects.

Explore stochastic wave vector dark matter signals and how equipartition shapes dark photon field dynamics through non-linear gravitational clustering effects.

Learn how cutting-edge terrestrial quantum sensors are supercharging the detection of vector wave dark matter.

This article investigates the implications of the gradient of a scalar field in the context of local dark matter (DM) velocity.

This article examines the covariance matrix's role in treating the total likelihood as a product of individual likelihoods across frequency bins.