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James M. Galm, PhD, PE Electrochemical Engineering & Energy Science

An artist's rendition of the James M. Galm, PhD, PE Electrochemical Engineering & Energy Science cluster in the ISEB building.

What is the Electrochemical Engineering & Energy Science focused research cluster?

The James M. Galm, PhD, PE Electrochemical Engineering & Energy Science research cluster at Case Western Reserve University is working to develop advanced energy storage technologies that improve battery efficiency and performance, as well as new materials and processes for semiconductors, a technology in virtually all digital devices.

Electrochemical Engineering & Energy Science brings together scientists and engineers from across Case Western Reserve University and industry, whose transformative research is foundational to the development of next generation energy storage solutions, and novel electrolytic processes, for producing and recycling critical metals, manufacturing semiconductors, and environmental remediation practices including the mitigation, capture and conversion of atmospheric pollutants.

Instrumentation, Tools and Resources

  • Atomic Force Microscopy (AFM) with in-situ electrochemical cell
  • Clean room fabrication
  • Four Point Probe Resistivity 
  • Laser Cutting
  • Metal sputtering 
  • Inductively Couple Plasma Mass Spectrometer (ICP-MS)
  • Insulator sputtering
  • Photomask Aligner
  • Quartz crystal microbalance
  • Raman Spectroscopy
  • Spin Coater
  • Wafer Dicing

View all equipment and capabilities.

Meet Our Researchers

Problems that Electrochemical Engineering & Energy Science is Working to Solve

The Electrochemical Engineering & Energy Science cluster is working to solve a wide range of problems related to a variety of industrial sectors.

Critical Metals

Critical metals like neodymium are central to numerous technologically important applications, such as electrified transportation, renewable energy harvesting, and magnetic data storage. However, the conventional production process has several drawbacks, including emissions of harmful pollutants whose remediation costs make it difficult to sustain. The cluster is working to enable economically favorable domestic production of metals critical to society. 

Semiconductors

New interconnect materials require new electrolytes and plating approaches to enable the compact deposition of traditionally hard-to-deposit materials. The cluster is working to improve metallization techniques to enable the next generation of semiconductor interconnects to improve microprocessor performance. 

Energy Storage

Poor deposition properties have hindered the use of advanced battery chemistries such as lithium and sodium metal batteries. The cluster is working to better understand these metal deposition properties to control their behavior and enable advanced, high-energy-density batteries.

Environmental Remediation

Removing low-concentration pollutants from large environmental bodies such as the air or tailings ponds is energy-intensive and cost-prohibitive. The cluster is working to develop advanced, energy-efficient electrochemical techniques to remove environmental contaminants and simultaneously produce value-added products, both reducing the cost of remediation and generating industry-relevant domestic feedstocks such as high-purity metals and carbon products. 

Explore Electrochemical Engineering & Energy Collaborations


Electrochemical Engineering & Energy Science News


Contact Us

To learn more about Electrochemical Engineering & Energy Science, contact cluster faculty lead and Electrochemical Design Center director Rohan Akolkar or meet the team of researchers. 

To learn about how you can use the Electrochemical Design Center Core, contact Electrochemical Design Center core manager Nicholas Sinclair.