Podcast Summary
Apple Card offers daily cashback and savings with a yield: Apple Card provides daily cashback up to 3%, which can be grown at a 4.50% annual percentage yield in a savings account, subject to eligibility requirements.
Apple Card offers daily cashback of up to 3% on all purchases, which can be grown at a 4.50% annual percentage yield when you open a savings account. This is subject to credit approval, and savings are available to Apple Card owners who meet certain eligibility requirements. The savings accounts are provided by Goldman Sachs Bank USA. Meanwhile, in the world of physics, scientists at Fermilab in Illinois have discovered that a certain subatomic particle, the muon, behaves in a way that defies current laws of physics. This could potentially be a major breakthrough, as it suggests the existence of new particles beyond the standard model, which is the foundation of our understanding of the universe. The standard model lists all known types of atoms and their building blocks, including electrons, quarks, and other particles. However, physicists are still searching for holes in the standard model where new particles could fit. The wobbling behavior of muons could be a sign of such a hole. The implications of this discovery are vast, as it could change our understanding of the universe and the fundamental laws of physics.
Evidence of ghost particles in muon g-2 experiment: The muon g-2 experiment reveals unaccounted virtual particles, or 'ghost particles,' which interact with muons and affect their behavior, challenging the Standard Model's complete understanding of the physical world.
The Standard Model of particle physics, while successful in explaining many phenomena, leaves out important aspects of the universe such as gravity and the existence of dark matter and dark energy. The muon g-2 experiment, which measures the precession frequency of muons in a magnetic field, provides evidence of the influence of virtual particles, which are not accounted for in the Standard Model. These virtual particles, described as "ghost particles," can interact with muons and cause them to wobble. Although theoretical physicists have developed theories to explain these interactions, the inclusion of virtual particles and their impact on the Standard Model represents an incomplete understanding of the physical world and a potential hole that could be filled by new discoveries or particles.
Observed muons wobble differently than predicted by the Standard Model: The Standard Model doesn't fully explain observed phenomena, as shown by muons wobbling differently, indicating potential for new particle discoveries
The Standard Model of particle physics, which accurately describes the behavior of known subatomic particles, is not a complete explanation for all phenomena. During an experiment, muons, a type of subatomic particle, were observed to wobble differently than predicted by the Standard Model. This discrepancy could indicate the presence of a new, as-yet-undiscovered particle outside the Standard Model. While this doesn't "break" the Standard Model, it does highlight the need for further research and expansion of our current understanding of the fundamental building blocks of the universe. The wobbling muons could be "dancing" to the tune of a new discovery, and scientists are eager to uncover the secrets that lie beyond the current framework.
Possible Discovery of New Physics at Fermilab: Scientists at Fermilab found a tiny wobble in muons which could be a sign of new physics like leptoquarks or supersymmetry, potentially doubling the number of particles in our standard model. They're validating the experiments to ensure accuracy and exploring the implications.
An intriguing discovery of a tiny extra wobble in muons at Fermilab has scientists excited and revisiting a similar experiment conducted 20 years ago at Brookhaven National Laboratory. This wobble could be a sign of new physics, such as leptoquarks, supersymmetry, or even an entirely new force. Leptoquarks are particles that could interact with muons and quarks, or even transform a muon into a quark. Supersymmetry, an idea that has been around for a long time, suggests that for every Standard Model particle, there is a superpartner. If these new particles were discovered, it would essentially double the number of particles in our standard model. The scientists are carefully validating the experiments to ensure there are no mistakes, and the results are consistent with the previous experiment. The potential implications of these discoveries are enormous, as they could fundamentally change our understanding of particle physics. The researchers are currently discussing these possibilities and exploring the complex math behind them. In essence, the scientific community is on the brink of a potentially groundbreaking discovery that could redefine the fundamental laws of physics.
Clue to new physics from Fermilab muon g-2 experiment: The Fermilab muon g-2 experiment's unexpected wobble could hint at new particles like leptoquarks or supersymmetric partners, or even a new force, expanding our understanding of the universe's fundamental composition.
The Fermilab muon g-2 experiment, which reported an unexpected wobble in the muon's behavior, could be a clue to new physics beyond our current understanding. This could manifest in three possible ways: the existence of new particles such as leptoquarks or supersymmetric partners, or even an entirely new force. These possibilities are being explored through ongoing experiments, as scientists aim to uncover the ingredients behind this intriguing breadcrumb, potentially leading to a greater understanding of the universe's fundamental composition. While the specifics of leptons, leptoquarks, and supersymmetry may not be essential to grasp, the overall significance lies in the ongoing quest to discover new particles and forces that could expand our knowledge of the physical world.
On the brink of discovering new physics: the dark matter particle: Physicists are close to finding the dark matter particle, which could answer fundamental questions about the universe and our place in it, and potentially be included in future textbooks.
Physicists, including Jessica and Nachin, are on the brink of discovering new physics, specifically the dark matter particle, which could provide answers to fundamental questions about the universe and our place in it. This discovery, which could potentially be included in future textbooks, is exciting for scientists and the public alike, as it could shed light on mysteries such as supersymmetry and the nature of dark matter. The hunt for this particle has been ongoing for years, and the potential discovery is a testament to the human curiosity and desire to understand the world around us. The Unexplainable podcast, produced by Bird Pinkerton and edited by Brian Resnick and Meredith Hodnot, explores this topic in depth and invites listeners to join the journey of discovery. The podcast is part of the Vox Media Podcast Network and will return with a new episode next Wednesday.
