Gesamtlänge aller Episoden: 6 hours 1 minute
Antimatter is uncommon, but it’s not exactly rare. Antiparticles - especially those generated by cosmic radiation - are all around us, all the time. But just what is it doing here? As we discuss, the role of antimatter is fundamentally tied to our experie
Where do we draw the line between Outreach and Clickbait?
Novel technology and perhaps physics awaits us if we’re brave enough to build one.
Particle Physics is a source of more than just fascinating questions. Today we give four important reasons why we should build another particle collider. Share these four reasons with someone, especially if they aren't bought in!
A realistic, pragmatic look at the Standard Model of Particle Physics, and what might remain to be seen.
Searching for antimatter in the wild reveals a bit more than we expected. But only a bit. Are pulsars to blame? or is it Dark Matter?
Are there antineutrini out there? Yes, surely. But, a better question is what are antineutrini?
Like the antiproton, the antineutron is a composite particle made up of antiquarks. It looks a lot like the neutron, and that’s pretty interesting because both of those particles have no electric charge!
Virtual pions and gluons and other quantum effects are all dressed up in the antiproton package around three valance antiquarks. That’s two anti-up quarks and one anti-down quark. The antiproton looks virtually identical to the proton - except that it ha
The positron is the antiparticle partner to the electron. Like the electron, positrons are stable. They do not decay. But of course, we don’t see may of them around.