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.

We're thrilled to announce our new partnership with JP Kummer, a leading distributor in semiconductors, photovoltaics, microelectronics, and life sciences.

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.

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.