Facilities and Classrooms
The physics department offices and labs are located in VanderWerf and Van Zoeren halls.
VanderWerf is home to an extensive network of laboratories, computer development labs and a Pelletron particle accelerator, among many other technologies, used by computer science, physics, mathematics and engineering students. Recently completed in 2013, the Haworth Engineering Center promotes active faculty-student collaboration on research programs and design projects. Learn more.
Physics involves the curious examination of the world around us to understand why the universe works the way it does. That means we spend a lot of time in our labs and research facilities, from our general labs where you’ll learn analytical methods to one of our specialty labs, such as our our particle accelerator lab.
- General Physics Lab
- Here, you’ll start at the beginning. Students investigate mechanics, heat, electric circuits, quantum spectroscopy and optics. While performing experiments, you will learn analytical methods and use software that physicists employ in their research.
- Advanced Lab
- Our advanced lab is basically a training ground for research scientists. You'll perform a variety of experiments ranging from the classics, such as Cavendish's famous gravitation experiment, to experiments associated with current research, such as scanning electron microscopy and plasma spectroscopy.
- Accelerator Lab
We use a particle accelerator in our ion beam analysis lab to explore not only the elemental composition of objects, but the location of these elements on the surface and near the surface of the object. The techniques developed in this facility are used by faculty and student researchers in biology, chemistry, geology and physics departments, and by several local industries.
- Materials Characterization Lab
- The Materials Characterization lab houses three different instruments used by multiple research groups to study material surfaces and structures. The scanning electron microscope and atomic force microscope are used to image surfaces at micrometer and nanometer scales.
- Microwave Lab
- Here, you’re able to take part in original research in condensed matter physics, plasma physics and engineering physics. In recent years, students have studied stratospheric gas processes that will help deepen understanding of atomic and molecular interactions in the earth’s atmosphere. They worked on the applicability of superconductivity to microwave electronics and electrically engineered photonic crystals. Students have collaborated across campus, with chemistry in plasma research and with the ion beam accelerator lab in superconductivity research.
- Nuclear Group Lab
- Students working in the nuclear group lab engage in the development and construction of detectors for use in nuclear science experiments at the Facility for Rare Isotope Beams (FRIB) at Michigan State University and the ATLAS facility at Argonne National Labs (ANL). They also analyze data from experiments carried out at the National Superconducting Cyclotron Labratory and ANL, determining properties of previously unstudied nuclei that are currently "off the chart" — the chart of nuclides, that is, and nuclei that are involved in heavy element formation in star mergers and supernovae.
- Hope College is home to the Harry F. Frissel observatory, which houses a 12-inch Schmidt-Cassegrain
telescope equipped with an imaging CCD camera. The telescope/imaging system is used
primarily as a teaching tool and is linked to a computer in the classroom where it
can be controlled remotely and real-time images can be displayed. In addition, we
have two 8-inch and one 10-inch portable Schmidt-Cassegrain telescopes and a number
of binoculars that are used for viewing out in the field as part of our Night Sky
- Astrophysics Lab
- The astrophysics laboratory is a room where students have access to two iMacs and a Mac desktop for performing research associated with the emission of X rays from the magnetosphere of high magnetic field neutron stars known as magnetars. The goal is to develop clear, correct and concise analytics describing the Compton scattering in strong magnetic fields.