Skip to Content

Sponsors

No results

Keywords

No results

Types

No results

Search Results

Events

No results
Search events using: keywords, sponsors, locations or event type
When / Where

Presented By: Saturday Morning Physics

Saturday Morning Physics | Magnets and Amplitudes: A Glimpse into the Quantum Realm

Aaron Chan and Justin Berman (U-M Physics Graduate Students) Present the Van Loo Student Talks

An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION. An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION.
An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION.
Aaron Chan, "Extreme Magnetic Fields: How and Why"
Laboratory experimental apparatus can produce magnetic fields up to 100T—about 30 times stronger than hospital MRI machines and 10,000 times larger than a regular fridge magnet. In this talk, I will discuss the cutting-edge technology used by the National High Magnetic Field Laboratory to produce such powerful magnetic fields and the interesting physical phenomena probed in such extreme environments.

Justin Berman, "Bootstrapping High-Energy Theories from Low-Energy Clues"
A key goal of particle physics theories is to predict how particles scatter off one another. However, experimentally probing these interactions at very high energies is extremely difficult. In this talk, I explain how fundamental principles of physics let us “bootstrap” low-energy data into predictions about high-energy particles, independent of the underlying theory. By using this bootstrap technique, I show that we can find upper and lower limits on the masses of particles in an approximation of the real world, which predict the existence and properties of a massive particle that has not yet been observed.

We celebrate the Van Loo Family Student Presentations this Saturday!

Lecture and Q&A, live-streamed on: https://myumi.ch/5kVRx
An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION. An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION.
An illustration of a man in rustic attire jumping from a cracked, rocky landscape into a bright, cloudy sky. A winding, sparkling golden path leads from the ground toward the words UNKNOWN THEORY at the top. The rocky ground is embossed with the text LOW ENERGY INFORMATION.

Co-Sponsored By

Explore Similar Events

  •  Loading Similar Events...

Keywords


Back to Main Content