Location
Mount Vernon, WA 98274
Journey to the beginning. Investigate the forces, particles, and paradoxes that shaped everything we know—and everything we’ve yet to imagine.
An array of cutting-edge observatories and theoretical breakthroughs is rewriting the story of how the universe began. From surprising hints in the cosmic microwave background to whispers of dark matter particles, researchers are piecing together a richer, more complex origin tale than ever before.
A convergence of signals-from pulsar timing arrays and cosmic microwave background polarization to early galaxy light captured by cutting-edge space telescopes-is rewriting the origin story of the cosmos. Researchers now chart a roadmap to the Big Bang's first heartbeat, blending gravitational waves, radio signatures, and primordial neutrino prospects in an integrated view of creation.
A suite of new experiments and observatories is closing in on the universe's most elusive signals, from the cosmic neutrino background to faint gravitational whispers. By combining cutting-edge data and advanced simulations, researchers are rewriting our picture of the Big Bang's first instants-and charting a path toward the ultimate origin story.
A wave of recent observations and analyses is reshaping our understanding of the universe's first moments. From polarized whispers in the cosmic microwave background to deep-field glimpses of the earliest galaxies, scientists are piecing together the forces, particles and paradoxes that set space and time into motion.
A suite of high-precision instruments has revealed unexpected signals from the universe's infancy, prompting a reconsideration of inflationary theory and the nature of dark matter. These breakthroughs open a fresh chapter in our quest to understand the forces and paradoxes that shaped everything we know.
A recent breakthrough in measuring the faint polarization of the cosmic microwave background has opened an unprecedented portal into the infancy of space and time. Coupled with advances in quantum simulation and neutrino detection, scientists are rewriting the origin story of everything we know-and shaping the next generation of cosmic exploration.
A convergence of cosmic microwave background maps, neutrino detections, and nascent gravitational wave observations is illuminating the universe's first instants. New multi-messenger data are challenging prevailing models of inflation and offering fresh insights into longstanding paradoxes of early-universe physics.
New measurements of the cosmic microwave background and combined observations deep into intergalactic space have uncovered subtle signals that challenge standard models of cosmic inflation. By weaving together data from terrestrial telescopes and space observatories, researchers are piecing together a clearer narrative of how particles, fields, and quantum fluctuations sculpted the universe's earliest moments.
An unprecedented combination of neutrino, gravitational-wave and cosmic-microwave observations is shedding fresh light on the universe's first instants. Scientists are piecing together signals from inflationary echoes to the formation of the earliest galaxies, offering tantalizing insights into cosmic origins.
A global network of radio telescopes and spaceborne infrared instruments is revealing unexpected signals from the universe's infancy. New evidence of a gravitational wave background and infrared light from nascent galaxies is reshaping our understanding of cosmic inflation and the mysteries at the dawn of time.
