Discovery Hall
Start here if it is your first visit. The museum is one guided tour: each gallery ends with a signpost to the next, and this map — plus the menu above — is always within reach. Prefer to wander? Every gallery also stands on its own.
Discoverer: the full story, with the mechanism explained. Deeper detail blocks appear at Deep Dive; the essentials stay at every level, and the science does not change — only the depth.
New exhibits, new films, new features — newest first. Restored from the live museum’s updates feed.
October 14, 2026 · Museum Update
The visitor journey is now Wonder → Welcome → Discovery → Understanding → Experimentation → Exploration. The Welcome Tour video is live, the News Desk is front and center, and the Evolution of Everything gateway is open.
October 14, 2026 · Coming Soon
Every exhibit is getting a second layer — the nitty-gritty science behind the wonder. The mechanism, the numbers, the how-it-works. Pull back the curtain on any exhibit to see how the magic is made.
October 13, 2026 · New Film
Episode 1: The Kingfisher and the Bullet Train. How a bird’s beak fixed the fastest train on Earth. Now playing in the Video Theater.
October 12, 2026 · New Film
The Longing and The Reach are now playing as full illustrated films. Four more Arc films are on the way.
Evolution of Everything
From the first spark to the world we live in — one story, told in chapters. All eight chapters are restored from the live museum, in order. Each chapter is a doorway.
Chapter 1 · 13.8 Billion Years Ago
The Big Bang. Energy becomes matter. The first atoms form.
Chapter 2 · The First Stars
Gravity gathers gas into stars. Stars forge the elements.
Chapter 3 · 4.6 Billion Years Ago
Our Sun ignites. Planets form from dust and ice.
Chapter 4 · 4.5 Billion Years Ago
A rocky world cools. Oceans form. The stage is set.
Chapter 5 · 3.8 Billion Years Ago
Chemistry becomes biology. Cells, DNA, evolution begins.
Chapter 6 · The Last 7 Million Years
Seven million years. Tools, language, civilization.
Chapter 7 · The Last 300 Years
Machines, electricity, flight, computers. We build the future.
Chapter 8 · Right Now
Quantum computers, gene editing, space telescopes. The story continues.
Museum Stations
Eight stations, eight wings of science. Tap a station and the museum shows you only that station’s stories — the same filter the live museum runs over its News Desk.
That’s it. No map needed — just follow your curiosity.
Showing: all stories. Pick a station to filter the museum’s story index.
Connect the Discovery
One museum. A connected science community. Explore the museum, watch the films, and carry a discovery into the conversation. Choose where to go next.
Watch the documentaries, biomimicry films, and science stories in the video theater.
Share the museum with your Facebook community and start a discussion about a discovery.
Discoveries in pictures — the museum’s photo feed, one find at a time.
Send the museum to a friend, classmate, teacher, or fellow explorer.
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OPENING SIGNAL
[T] Astronomers using MeerKAT and the James Webb Space Telescope localized FRB 20240304B to a low-mass, clumpy, star-forming dwarf galaxy at redshift 2.148 ± 0.001. That places the burst roughly 3 billion years after the Big Bang, during cosmic noon. The host is about 1,000 times less massive than typical FRB hosts. This favors a young magnetar origin over a delayed neutron-star merger for this event. (Science, 8 Oct 2026; NASA release)
[T] Webb + MeerKAT pin most distant FRB host to tiny star-forming dwarf.
WHAT HAPPENED: MeerKAT detected FRB 20240304B on 4 March 2024. Webb NIRCam found the host; NIRSpec measured z = 2.148. Host stellar mass ~10^7 Mâ, high specific star-formation rate, low metallicity.
WHY IT MATTERS: Doubles the redshift reach of localized FRBs and samples ionized baryons across ~80% of cosmic history.
WHAT IT COULD BECOME: [I] More distant FRBs with MeerKAT + Webb will map magnetar formation during peak star formation.
WHAT IT MEANS FOR YOU: A millisecond radio flash from when the universe was young just told us where some of these events form.
[T] JWST time-series spectra show evidence of patchy water clouds on coldest known brown dwarf.
WHAT HAPPENED: 11-hour NIRSpec time series of WISE 0855 (Tâ265 K, 7.4 ly). CO absorption varies up to 10% peak-to-peak and correlates with PH3. Models including patchy water clouds fit better than clear models. (arXiv:2609.20664, accepted AJ)
WHY IT MATTERS: First time-resolved medium-resolution view separating cloud thickness changes from deeper chemistry on an ultracool object.
WHAT IT MEANS FOR YOU: Clouds change thickness on a nearby world colder than Earth's surface.
[T] Layered Co1/4TaSe2 shows altermagnetic spin-splitting.
WHAT HAPPENED: ARPES reveals g-wave spin splitting of Fermi surface vanishing above Néel temperature ~178 K. Zero net magnetization. (Nature Communications)
WHY IT MATTERS: Confirms altermagnetism in a van-der-Waals layered material stackable with other 2D systems.
WHAT IT MEANS FOR YOU: A new magnetic order carrying spin information without acting like a fridge magnet.
[T] Bethe strings observed in ultracold cesium gas (1931 prediction).
WHAT HAPPENED: Cs atoms cooled to nK in ~thousands of 1D tubes. Interaction sweep creates multiparticle bound states (>6 particles). Binding energy measured. (Nature Communications)
WHY IT MATTERS: Controllable realization of pure interaction-bound multiparticle states.
WHAT IT MEANS FOR YOU: Atoms bind without chemical bonds, only because confined to one dimension.
[T] Phage protease cuts bacterial sensor and triggers CBASS suicide defense.
WHAT HAPPENED: In CBASS system, phage proteases cleave a host sensor protein, activating self-destruct before virus spreads. (Science)
WHY IT MATTERS: New trigger for widespread bacterial immune system related to human antiviral pathways.
WHAT IT MEANS FOR YOU: Bacteria use the virus's own protein-cutting tool as a kill-switch alarm.
[T] FRB 20240304B host detailed above. [T] Webb advanced LISA test-telescope hardware (NASA, 8 Oct). [T] Crew-12 splashed down after 237 days / >100 million miles (NASA, 8 Oct). [I] CHIME first standalone detection of cosmological 21 cm hydrogen clustering at zâ1.
[T] Altermagnet and Bethe-string results above. Both measured signatures, not theoretical proposals.
Limited high-signal primary items in strict 24-hour window. [U] Secondary reports of AI locating overlooked solutions; no primary paper read today.
[T] Altermagnetic layered TMD noted above. Secondary battery/solar reports; primary not fully traced [U].
[T] Bacterial CBASS mechanism above. Other paleontology/genomics items in secondary coverage; primaries not fully read [U].
A fast radio burst at redshift 2, three billion years after the Big Bang
Caleb et al., Science, 8 October 2026. MeerKAT detection + JWST NIRCam/NIRSpec. Host: low-mass (~10^7 Mâ), clumpy, star-forming dwarf at z=2.148 ± 0.001. Favors prompt magnetar over long-delay merger. Single event; does not prove all FRBs are magnetars.
A radio flash from when the universe was one-fifth its current age came from a tiny galaxy still making stars. Closer to home, a virus enzyme trips a bacterial suicide switch, and a layered magnet carries spin without a net field.
WHAT WE KNOW: [T] FRB host z=2.148, low-mass dwarf; WISE 0855 variable CO/PH3, patchy water-cloud model preferred; Co1/4TaSe2 spin-split bands; Bethe strings in 1D Cs; phage protease activates CBASS.
WHAT WE THINK: [I] This FRB unlikely delayed merger. [I] Water-cloud patches dominate WISE 0855 variability. [H] Altermagnets may enable spintronics.
WHAT WE DON'T KNOW: FRB emission mechanism. Water ice vs gray opacity on WISE 0855. CBASS generalization. Dark-energy from CHIME.
Hype to drop: FRB as proof all FRBs are magnetars. Brown-dwarf clouds "directly seen." Altermagnet as memory product.
CLOSING SIGNAL
If you remember one thing: a millisecond radio burst from three billion years after the Big Bang came from a dwarf galaxy still furiously making stars. That is measured.
