A new study shows how tailoring FEC electrolyte additives stabilizes dry-processed silicon anodes and Ni-rich cathodes, achieving high efficiency and long cycle life for next-generation EV batteries.

A new study shows how machine learning can optimize roll-to-roll slot die coating, delivering record coating uniformity, reducing waste.

A new perspective article explores the risks of poor battery quality at scale and outlines how manufacturers can improve safety, reliability, and sustainability in the race to electrify.

A recent study reveals that high shear dispersion in slurry preparation significantly enhances lithium-sulfur battery performance by creating denser cathodes and improving cycle life in pouch cells.

This article presents a smart new way to make electric vehicle batteries last longer. It combines two ideas: balancing battery cells so they charge evenly, and using machine learning to predict how much life the battery has left.

A new fuzzy logic controller developed at KIT helps reduce scrap and improve flexibility in lithium-ion battery slot die coating, offering a smarter way to scale sustainable battery production.

This article reviews a landmark study showing how roll-to-roll methods and electrode design improvements can scale battery manufacturing, cut costs, and boost energy density without new materials.

A new study shows how calender gap and roller speed influence the film formation in semidry electrode production for lithium-ion batteries, improving efficiency and performance.

Discover how cutting-edge manufacturing equipment is driving cost efficiency, sustainability, and innovation in lithium-ion battery gigafactories, based on a recent review by researchers from Concordia University.

Discover how chromatic confocal sensors enhance drying process control in lab-scale roll-to-roll battery electrode manufacturing with real-time thickness and roughness data.

A new study shows how heated substrates improve slot-die coating stability and reduce defects in lithium-ion battery electrode films—ideal for lab-scale R2R engineers.

A new study explores how the flow properties of battery electrode slurries affect manufacturing outcomes and performance, offering insights for process optimization.

Discover how a new study predicts coated layer thickness in roll-to-roll processes using meniscus shape analysis and machine learning.

A recent study highlights the roll-to-roll dry coating process as a scalable, sustainable alternative to conventional battery electrode manufacturing, addressing key challenges in energy density, cost, and environmental impact.

Researchers have developed and validated a model that predicts lithium battery electrode coating thickness with high accuracy, helping manufacturers reduce waste and optimize performance.

Traditional lithium-ion battery manufacturing relies on energy-intensive slurry-based processing. However, innovations like dry processing, radiation curing, and 3D printing are transforming electrode production—offering higher efficiency, lower costs, and improved sustainability.

Organic batteries offer a sustainable alternative to lithium-ion technology. A new study explores their mechanisms, advantages, and challenges in energy storage applications.

Researchers have developed groundbreaking methods for fabricating high-precision microstructures using a modified Continuous Liquid Interface Production (CLIP) process.

A recent study explores the optimization of simultaneous two-layer coatings for lithium-ion battery (LIB) anode electrodes, incorporating primer layers to improve mechanical properties and coating stability.

Discover how AI-driven diagnostics are transforming battery technology, from electric vehicles to energy storage systems.