Shaping the future.With partners.

Control your test cell environment.

Temperature is one of the biggest variables in battery performance, so controlling it precisely is essential for comparable, reproducible test data. Integrating a climate chamber directly with your cycling software lets you regulate and log environmental conditions alongside electrochemical data, supporting safety testing and technology selection across a range of operating conditions.

BioLogic has made it even easier to control battery testing environments by using EC-Lab^®  & BT-Lab^® with the TCU Server installed, users can connect and control the regulator for various climate chambers.

Add physical interface insight to electrochemistry.

Electrochemical QCM-D (eQCM-D) combines electrochemical control with real-time monitoring of mass and viscoelastic changes at the electrode surface. By complementing electrochemical measurements with information about interface evolution, eQCM-D helps researchers understand processes such as deposition, dissolution, film formation, ion insertion, and interphase growth as they occur.
Applications include battery research, fuel cells, electrolyzers, corrosion studies, coatings, sensors, and other systems where interface behavior plays a critical role in performance and stability.

Measure mass change at the electrode surface.

In-situ TEM makes it possible to image battery and electrode materials while a reaction is actually happening, rather than inferring structure from before-and-after snapshots. Because the electrochemical cell sits inside the microscope at micro scale, the potentiostat driving it needs to be exceptionally low-noise to keep the data clean.

Watch gas evolution as you apply potential.

Electrochemical mass spectrometry measures the volatile species produced by a reaction in real time, as a function of the potential applied. It’s used across electrolysis, fuel cells, battery research and fundamental electrochemistry to quantify gas evolution, revealing electrode and electrolyte degradation and how different catalysts perform.

Pair electrochemical and thermal data.

Measuring heat output alongside electrochemical cycling reveals parasitic reactions that voltage and current data alone can miss — information that feeds directly into lifetime prediction, thermal management and safety testing. Running both measurements concurrently, rather than sequentially, keeps the two datasets directly comparable at every point in the cycle.