Department

Physics

Major

Chemistry

Research Advisor

Kim, Hyunsoo

Advisor's Department

Physics

Funding Source

Faculty Startup

Abstract

Topological materials can serve as promising platforms for next-generation technology. Magnetism in such systems is often a consequence of emergent quantum phenomena, and the traditional framework is insufficient to fully describe their magnetic properties. In this project, we will perform precision magnetic measurements utilizing the Colpitts self-oscillator to determine the temperature- and field-dependent AC magnetic susceptibility in the topological magnetic materials. The collective knowledge learned from this proposed research would shed light on the understanding of exotic magnetism in topological materials, potentially leading to new physics of magnetism.

Biography

The student involved in this project is an undergraduate in their second year (a junior-by-credit). Her major is chemistry, and she is conducting this project with Hyunsoo Kim of the physics department.

Research Category

Sciences

Presentation Type

Poster Presentation

Document Type

Poster

Location

Innovation Forum - 1st Floor Innovation Lab

Presentation Date

10 April 2024, 9:00 am - 12:00 pm

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Apr 10th, 9:00 AM Apr 10th, 12:00 PM

Development of Colpitts Self Oscillator for Measurement of Magnetic and Superconducting Properties

Innovation Forum - 1st Floor Innovation Lab

Topological materials can serve as promising platforms for next-generation technology. Magnetism in such systems is often a consequence of emergent quantum phenomena, and the traditional framework is insufficient to fully describe their magnetic properties. In this project, we will perform precision magnetic measurements utilizing the Colpitts self-oscillator to determine the temperature- and field-dependent AC magnetic susceptibility in the topological magnetic materials. The collective knowledge learned from this proposed research would shed light on the understanding of exotic magnetism in topological materials, potentially leading to new physics of magnetism.