Batteries & Energy Storage
EV battery chemistry, energy storage systems, charging infrastructure, and pack engineering.
The Future of Silicon-Dominant Anodes: The Road to 600 Wh/kg
Introduction: Why Graphite Has a Ceiling Graphite has been the dominant lithium-ion battery anode material for decades because it’s stable,…
How EVs Handle Battery Charging Below Freezing Temperatures
Introduction: Why Cold Weather Is a Genuine Engineering Problem Charging an EV battery in freezing temperatures isn’t just slower because…
Nano-Scale Buffer Layers in Solid-State Batteries: The Role of Aluminum Oxide and Lithium Niobate
Introduction: Solving a Problem at the Atomic Scale Some of the most consequential engineering in solid-state batteries happens at a…
Dry Electrode Manufacturing: A Revolution in European Battery Production Lines
Introduction: Replacing a Solvent-Heavy Process Dry electrode manufacturing removes one of the most resource-intensive steps in conventional battery production: dissolving…
Cell-to-Chassis Technology: When the Battery Becomes a Structural Component
Introduction: The Battery Pack as a Load-Bearing Part For most of the EV industry’s history, the battery pack was treated…
Recycling Lithium-Ion Batteries: Hydrometallurgical Challenges in Cobalt and Nickel Recovery
Introduction: Recycling Is Harder Than It Sounds As EV adoption grows, so does the volume of lithium-ion batteries approaching end…
Sulfide vs. Ceramic Solid-State Batteries: A Full Engineering Comparison
Introduction: Two Different Bets on Solid Electrolytes The debate over sulfide vs ceramic solid-state batteries is really a debate over…