European Organization for Nuclear Research

The European Organization for Nuclear Research (CERN), the world's premier particle physics laboratory, played a decisive role in humanity's response to the Astrophage crisis. While the global scientific community raced to understand the alien microbe that was consuming the sun's energy, CERN's researchers delivered two breakthroughs that fundamentally shaped the Hail Mary mission: they solved the mystery of Astrophage's energy storage mechanism and proved that the organism could block all forms of radiation, a property that Eva Stratt's engineers immediately incorporated into the spacecraft's hull design.

Discovery of Neutrino Energy Storage

CERN's most significant contribution came when they figured out how Astrophage stores energy. The laboratory's researchers determined that the mechanism involves neutrinos—extremely small, nearly massless particles. When protons inside an Astrophage cell collide at sufficient velocity, their kinetic energy is converted into two neutrinos with opposite momentum vectors. This process, which CERN described as a form of pair production never before observed with neutrinos, explained the organism's extraordinary energy density. The mass energy of a single neutrino exactly matches the energy found in one photon of Petrova-wavelength light, the infrared radiation Astrophage emits for propulsion. Dr. Lokken, the Norwegian scientist who designed the Hail Mary's centrifuge, brought this paper to Ryland Grace's attention, explaining that CERN was going to release it the following week but she had obtained an advance copy through her contacts. The discovery confirmed that Astrophage maintains its constant temperature of 96.415 degrees Celsius because any heat energy above that threshold gets quickly converted into neutrinos, while any drop below triggers stored energy release to warm back up—making the organism effectively a warm-blooded microorganism.

Confirmation of Super Cross-Sectionality

Beyond the energy storage mechanism, CERN conducted off-the-books experiments for Dr. Lokken to test whether Astrophage could block radiation. The results were extraordinary: even particles moving near light speed could not get past an Astrophage cell, and none of them seemed to kill it either. This property, which CERN termed "super cross-sectionality," means that nothing can quantum-tunnel through Astrophage—it collides with all matter that tries to pass by, no matter how unlikely that collision should be. This explained why Astrophage absorbs all wavelengths of light, even wavelengths that should be too large to interact with it. The finding made intuitive sense given that Astrophage evolved to live on the surface of stars, where it must be constantly bombarded by energy and very fast-moving particles. Dr. Lokken used this data to design the Hail Mary's radiation protection system: a one-millimeter layer of Astrophage slurry lining the hull, which would halt the entire radiation load while simultaneously serving as reserve fuel.

Role in the Broader Scientific Effort

CERN was one of thirty laboratories worldwide that received samples of the original 173 living Astrophage cells after Eva Stratt decided to distribute them. The laboratory's work on neutrino physics complemented research conducted elsewhere—the Australian group in Perth that analyzed Astrophage's internal organelles and found DNA and mitochondria, the Belgian team that demonstrated Astrophage's inconsistent reaction to magnetic fields, and the Russian group that discovered free hydrogen ions zipping around inside the cell membrane. CERN's unique contribution lay in bridging the gap between microbiology and particle physics, using the IceCube Neutrino Observatory to detect the massive neutrino bursts emitted when Astrophage cells were punctured. The laboratory's findings confirmed that Astrophage's energy storage operates at the scale of mass conversion, E=mc², a mechanism that Dimitri Komorov's Russian team had independently verified by measuring the weight gain of Astrophage cells after laser exposure.

Significance for the Hail Mary Mission

The practical application of CERN's discoveries was immediate and profound. The Hail Mary's hull design incorporated a double-walled structure with a one-millimeter void filled with Astrophage slurry, using the organism's super cross-sectionality as both radiation shielding and fuel storage. This design meant the crew would be protected from galactic cosmic rays and solar particles throughout their journey, while the fuel itself served as insulation. Dr. Lokken calculated that the entire radiation load would be halted by this layer, and since the fuel would be consumed during the voyage, the mass penalty was effectively zero. The CERN findings also explained why Astrophage could survive in the fuel tanks without special containment—as long as it didn't see carbon-dioxide-band light, it would remain inert, simply absorbing heat and maintaining its constant temperature. This property allowed the Hail Mary to carry 2 million kilograms of enriched Astrophage as both fuel and protection, a dual-purpose design that would have been impossible without CERN's fundamental physics breakthroughs.