This program explores the experimental determination of molecular dipole moments, a fundamental property influencing how molecules interact with electric fields. You will learn how to measure dipole moments using laboratory experiments based on electrical capacitance. The course covers the theoretical underpinnings, including how capacitance changes when molecules with dipoles are placed between charged plates and how thermal motion affects this alignment. You'll also delve into Peter Debye's clever method for determining dipole moments by analyzing the temperature dependence of measured capacitance, providing a practical application of physical chemistry principles.
The program focuses on understanding and calculating molecular dipole moments through experimental and theoretical approaches. Key concepts include electrical capacitance, thermal motion, and the Debye equation.
GREs are not required for admission. If prompted during application, enter a future date as this field is disregarded.
All fees are for the 2026-2027 academic year and are subject to change. The listed living costs are estimates.
Tuition for Master's programs is $60,900 per academic year. Estimated annual living expenses, excluding tuition and health insurance, are $34,018.
The application for Fall 2027 admissions opens on September 9, 2026.
Required documents include a PDF of transcripts from all attended institutions, a resume, a statement of purpose, and your TOEFL score report if applicable.
A minimum TOEFL iBT score of 100 overall is required. Expired scores may be accepted if a degree was recently completed in the US and an official report with a photo is provided.
No, GRE scores are not required for admission to this program.
A strong undergraduate degree in Computer Science, Biology, Chemistry, or Biomedical Engineering is strongly encouraged, along with college-level coursework in life sciences, statistics, and programming.