Atomistic Simulations for Heterogeneous Catalysis (CHE 577)

Most undergrads don't get hands-on research experience until grad school, if ever. This course changes that. It's a Course-Based Undergraduate Research Experience (CURE): a real, credit-bearing class where you're not following a lab manual, you're generating original data on open research questions in catalysis and energy materials.

Using first-principles simulations, molecular dynamics, and machine-learning (ML)-assisted modeling, you'll work on faculty-guided research themes including:

  • Solid-liquid interfaces and surface chemistry
  • Electrocatalysis for energy conversion
  • Structure-property relationships in metals and their oxides
  • ML-assisted screening of materials and active sites

Each theme is a self-contained module scoped to be genuinely doable in a semester, with weekly check-ins, structured tutorials (including a full set on the Schrödinger platform), and direct guidance from the instructor. You're never just “running software” alone.

Name of research group, project, or lab
Computational Chemistry and Materials Lab
Why participate in this opportunity?

By the end of the course you'll be able to formulate your own research questions, design and run computational experiments, analyze high-dimensional simulation data, and communicate findings through posters, talks, and written reports; the same skill set driving AI-accelerated materials discovery at places like Microsoft, Google, and Meta.

 

Logistics Information:
Field(s) of Study
Biochemistry & Molecular Biology
Biology
Biomedical Engineering
Chemical Engineering
Chemistry
Computer Engineering
Computer Science
Electrical & Computer Engineering
Environmental Science
Mechanical & Industrial Engineering
Physics
Student ranks applicable
Freshman
Sophomore
Junior
Senior
Open to Honors Thesis Work
Student qualifications

Open to everyone interested: sophomore, junior, or senior standing in any STEM major. No prerequisites. No prior research or coding experience required, just curiosity and willingness to learn. 

Time commitment
8-10 h/wk
Position Types and Compensation
Credit for Research and Teaching
Number of openings
10
Techniques learned

Students will build a working toolkit of computational research methods, including:

  • First-principles atomistic simulations of surfaces and solid-liquid interfaces
  • Molecular dynamics simulations to study interfacial structure and dynamics
  • Machine-learning-assisted modeling for materials and active-site screening
  • Designing and executing computational experiments: model construction, parameter selection, and validation
  • Investigating structure-property relationships in metals and their oxides
  • Analyzing high-dimensional simulation data, including statistical averaging and uncertainty assessment
  • Running research workflows on shared high-performance computing (HPC) resources (e.g., the Unity cluster)
  • Using the Schrödinger computational modeling platform
  • Communicating research findings through written reports, oral presentations, and scientific visualization
  • Collaborating in research teams to manage tasks, timelines, and shared computational resources
Project start
Fall semester
Contact Information:
Mentor
azagalskaya@umass.edu
Principal Investigator
Name of project director or principal investigator
Alexandra Zagalskaya
Email address of project director or principal investigator
azagalskaya@umass.edu
10 sp. | 21 appl.
Time commitment
8-10 h/wk
Field(s) of Study
Environmental Science (+10)
Biochemistry & Molecular BiologyBiologyBiomedical EngineeringChemical EngineeringChemistryComputer EngineeringComputer ScienceElectrical & Computer EngineeringEnvironmental ScienceMechanical & Industrial EngineeringPhysics