Asylum Research, the technology leader in Scanning Probe and Atomic Force microscopy, and Oak Ridge National Laboratory (ORNL) have just received the prestigious Microscopy Today Innovation (MT-10) Award for the development of Electrochemical Strain Microscopy (ESM).
ESM is an innovative new scanning probe microscopy (SPM) technique implemented on Asylum's Cypher and MFP-3D AFMs that is capable of probing electrochemical reactivity and ionic flows in solids on the sub-ten-nanometer level. ESM is the first technique that measures ionic currents directly, providing a new tool for mapping electrochemical phenomena on the nanoscale. The capability to probe electrochemical processes and ionic transport in solids is invaluable for a broad range of applications for energy generation and storage ranging from batteries to fuel cells.
ESM has the potential to aid in these advances with two major improvements over conventional technologies:
- the resolution to probe nanometer-scale volumes and
- the inherent ability to decouple ionic from electronic currents with imaging capability extended to a broad range of spectroscopy techniques reminiscent of conventional electrochemical tools.
"We're extremely excited to have won this prestigious award," said Roger Proksch, President of Asylum Research. "Our collaboration with the Oak Ridge National Laboratory has put forth many new cutting-edge developments in the field of SPM, including Piezoresponse Force Microscopy, Switching Spectroscopy PFM, and Band Excitation. Asylum Research and our collaborators continue to lead the industry with technical innovation as confirmed by this award."
Commented Sergei Kalinin, senior research staff member at the ORNL Center for Nanophase Materials Science, "Ionic phenomena in solids directly underpin multiple energy technologies ranging from batteries to fuel cells, as well as emergent electroresistive and memristive memories. Furthermore, very often they can contribute to observed physical phenomena in correlated oxides. Electrochemical Strain Microscopy provides the pathway to study the kinetics and thermodynamics of electrochemical processes in solids on the nanoscale, opening a window in these poorly explored aspects of materials functionality".
Nina Balke added, "This is the first time we can actually see phenomena in batteries well below the100 nanometer level, observing their charging and degradation on the level of single structural defects."
Concluded Stephen Jesse, the mastermind behind the development of ESM, "ESM offers an example of a multidimensional SPM technique that provides a new and decisive step towards understanding the nanoscale world of ionic systems."