EPR as a Teaching Tool in the Laboratory

Electron Paramagnetic Resonance (EPR) spectroscopy (also known as Electron Spin Resonance - ESR), is much less well known than some of the other spectroscopy methods, and there are many misconceptions about its size, cost and complexity.

EPR is very much suited to an educational environment as the newer instruments can be affordable, portable, require minimum upkeep and can may be used for a wide range of experiments in a teaching laboratory as well as for undergraduate and graduate research projects.

Seminar Overview

The webinar will describe how Bruker’s microESR can be used in introductory, advanced, and or instrumental labs. We will explore the features of the instrument and demonstrate how EPR can be used in the laboratory or classroom to teach both basic concepts and help elucidate non-intuitive subjects such as electron density

In teaching labs, other forms of magnetic resonance are limited to a select few, and this is often due to its being expensive to run combined with the need to book an instrument. This webinar showcases an alternative approach, so that undergraduate laboratory instructors can better prepare chemists for further study by providing hands-on practical experience with the microESR and equip them with a wider range of laboratory skills.

Presenter Biographical

Brendan Lichtenthal

Started his scientific training at Union College, earning a B.S. in chemistry. He continued his training at Stony Brook University where he earned a Master’s in chemistry. Much of his work focused on small molecule organic synthesis and the accompanying structural NMR that goes along with it. His areas of study included substituted b lactams, taxoids, and antibacterials. He currently offers customer support for TD-NMR and some EPR applications.

Presenter Biographical

Dr. Christine Hofstetter

Studied chemistry at Simmons College in Boston, and did her dissertation in the field of physical chemistry at Brandeis University on the solution structure of chiral ions pairs by NMR spectroscopy. At Bruker, she is an Applications Chemist for the microESR in the Applied, Industrial, and Clinical (AIC) division.


David Barr, Ph.D.

What to Expect

The webinar will look at the principles of EPR and how EPR is the only unambiguous way to look at free radicals. The webinar will focus on the microESR from Bruker BioSpin as a teaching tool in undergraduate labs. Because of its compact size and zero need for maintenance, implementing EPR into undergraduate labs is very straight forward. . Participants should expect to see the benefits of a technique that can provide students with hands-on practical experience. The webinar will also demonstrate how the instrument works and what data can be collected.

Key Topics

EPR Principles

  • Theory of EPR
  • Free radical detection
  • Applications


  • Low cost
  • Size and weight
  • Portable
  • Plug in and go instrument
  • Zero maintenance
  • Simple interface

Advantages for undergraduates

  • Hands on experience of magnetic resonance techniques
  • Ease of use
  • Laboratory/instruction manual on how to use
  • Better preparation for future studies and career
  • Benefits over NMR

Who Should Attend

The main audience for this webinar is those involved in academic teachings and laboratory instruction. In particular, this webinar is also of interest to chemistry and biochemistry professors, and scientists already using EPR. The webinar will be useful for physics professors, university department chairs, post docs, and graduate students.

Other Webinars from Bruker BioSpin - NMR, EPR and Imaging

Life Science Webinars by Subject Matter

While we only use edited and approved content for Azthena answers, it may on occasions provide incorrect responses. Please confirm any data provided with the related suppliers or authors. We do not provide medical advice, if you search for medical information you must always consult a medical professional before acting on any information provided.

Your questions, but not your email details will be shared with OpenAI and retained for 30 days in accordance with their privacy principles.

Please do not ask questions that use sensitive or confidential information.

Read the full Terms & Conditions.