Battery R&D Solutions - BioLogic

Battery R&D Solutions.

Precision tools for every stage of battery R&D — from materials to full-cell validation.

The pivotal role batteries play in our everyday life was recognized in 2019 through the award of the Nobel prize in chemistry. Because of this outsized role there is a continuous drive to improve on current technologies. ​

These improvements require novel chemistries and configurations directly impacting the tests and equipment used. Furthermore, the application of interest influences the design of the battery used, which further impacts the studies required. ​

Throughout the full battery value chain, every single component must be thoroughly tested. This includes anode, cathode, binder, separator, electrolyte, all the way to the commercial cell. There are unique challenges at every step:​

  • Materials & components research
  • Interface characterization
  • Fundamental investigations of full cells
  • Proof of concept studies of full cells
  • Commercial cell validation & aging
  • Screening & benchmarking for modules
  • Integration & second life evaluation
Materials & components
research
Fundamental
investigations of full cells
Proof of concept
studies of full cells
Commercial cell
validation & aging

M470

Scanning electrochemical workstation

MTZ-35

Scanning electrochemical workstation

VMP-300

Premium potentiostats

VMP-3e

Essential potentiostats

MPG-2XX

Research grade battery cycler

BCS-9XX

Ultra-precision battery cycler
Discover complete solutions for your instruments—hover or click on each image to learn more.
Scanning electrochemical workstation
  • Customize with up to 7 different modules
  • Differentiate local electrochemical effects
  • ic-ac-SECM

Need a quotation?

Request a quote and take advantage of our personalized advice and get the data you need to make informed decisions.

Why choose BioLogic?

Modular ranges

The M470 can be configured with any of 7 differents modules, to work with 9 different techniques. BioLogic’s potentiostats are “>modular (upgradable in-situ), extend range with boosters. Different BCS-900 modules can be combined in a single cabinet, for users to build a custom-made battery cycling system.

Integrated climate chamber management

To better understand the performance and lifespan of batteries testing under controlled environmental conditions is required. The TCU Server integrates with EC-Lab® and BT-Lab® to provide direct control of climatic chambers and other temperature control units.

High-speed CC-CV shift

For both BioLogic’s potentiostats and cyclers, a unique design enables an ultra-fast shift from galvanostat mode to potentiostat mode to perform the best CC-CV technique, avoiding any transient phenomena on the battery.

Powerful softwares

With EC-Lab®, set safety limits, choose the control mode and measure all potentials (Ewe, Ece, Ewe-Ece) and related variables, modify your setting as the experiments run. BT-Lab® Suite enables on-site and remote access, batch data analysis, and easy reporting.

Powerful EIS capabilities

Native EIS on BCS-9xx. Interpret and model EIS data using ZFit. Make reliable impedance measurements using BioLogic’s EIS Quality Indicators. GEIS-AA technique: enables to avoid non-linear behavior for time-variant systems (AA meaning amplitude adaptation).

High precision calculation / Data of interest

EC-Lab® and BT-Lab® help you to identify key data of interest such as battery cycle life, Coulombic efficiency, capacity and dQ/dV. Data of interest are directly process in the firmware, allowing better accuracy.

FAQ.

What frequency range is relevant for Electrochemical Impedance Spectroscopy (EIS) measurement when characterizing batteries?

In battery research, the most relevant frequency range typically is from 10 kHz to 10 mHz: ​

  • high-frequency range (10 kHz – 1 kHz) provides insights into solution resistance and electrolyte conductivity​
  • mid-frequency range (1 kHz – 100 mHz) shows charge transfer processes and electrode kinetics​​
  • low frequency range (100 mHz – 10 mHz) indicates mass transport limitations and diffusion processes. ​​

Note: Very high-frequency ranges (up to few MHz) is relevant only for solid-state batteries and gives insights into solid ionic conductors.​

For the optimal solution, we strongly recommend contacting our sales teams to discuss how we can support your current projects, they can provide personalized recommendations based on your application needs.

What tools can help me model real-life battery cycles?

Simulating complex battery cycles that model real-life activity is essential in battery development. BioLogic solutions feature special tools to import specific profiles instead of manually creating a protocol with thousands of steps: ​

Urban Profile in EC-Lab software for potentiostat,​

and Arbitrary User Profile in BT-Test software for battery cycler.​

Interested battery ageing? Learn here how you can simulate ripple current with EC-Lab®.​

For the optimal solution, we strongly recommend contacting our sales teams to discuss how we can support your current projects, they can provide personalized recommendations based on your application needs.

Can I use a BioLogic instruments to conduct in operando XRD measurement?

At Biologic, we combined the use of a high-quality X-ray diffractometer from partners with our SP-50e/150e potentiostats. With this set up researchers are able to perform in operando XRD measurements on pouch and coin cells during charge and discharge cycles to monitor structural changes in the electrode materials.​

For the optimal solution, we strongly recommend contacting our sales teams to discuss how we can support your current projects, they can provide personalized recommendations based on your application needs.