Site • RSS • Apple PodcastsDescription (podcaster-provided):
Dr. Ben Tippett and his team of physicists believe that anyone can understand physics. Black Holes! Lightning! Coronal Mass Ejections! Quantum Mechanics! Fortnightly, they explain a topic from advanced physics, using explanations, experiments and fun metaphors to a non-physicist guest. Visit the website to see a list of topics sorted by physics field.Themes and summary (AI-generated based on podcaster-provided show and episode descriptions):
➤ Accessible physics explainers with non-physicist guests • Astrophysics and cosmology: stars, galaxies, supernovas, black holes, Big Bang, heat death, dark matter • Particle/quantum physics: neutrinos, muons, strong force, entanglement, coherence, quantum computing • Space missions and detection methods: gravitational waves, telescopes/interferometry, spectroscopy/imaging, NMR/ESR, materials scienceThis podcast aims to make advanced physics accessible to non-specialists by pairing a host and rotating teams of physicists with a guest who is often a creator from outside science. Across the episodes, conversations blend clear explanations, analogies, and occasional hands-on or observational perspectives to unpack how physicists understand the universe, from subatomic particles to cosmic structure.
A major throughline is astrophysics and cosmology: the life cycles of stars, supernovas, neutron stars and their collisions, galaxy evolution, the Milky Way’s structure, and the physics of black holes—including how they can generate gravitational waves and how astronomers extract images and signals from difficult data. Several discussions focus on the early universe and evidence for the Big Bang, including how the cosmic microwave background and galaxy clusters are used as tools to infer large-scale history and properties of the cosmos. Related topics include dark matter candidates and the ultimate fate of the universe.
Another strong theme is quantum and particle physics. Episodes explore quantum entanglement, interpretations of quantum mechanics, coherence and decoherence, neutrinos and the experiments that study them, muons, the strong force, and symmetry concepts tied to antimatter and time. There is also attention to emerging technology and measurement: quantum computing, gravitational-wave detector concepts, interferometry, imaging sensors, lasers, magnetic resonance techniques, superconductivity and magnetic pinning, and condensed-matter ideas like phonons and the nature of glass. Some installments take listener questions and build explanations around common conceptual sticking points in modern physics.
