A new study reports a bifunctional interface that enables stable zinc-metal batteries across a wide depth-of-discharge window.

3Dnatives highlights our UCLA research on a 3D-printed zinc-ion battery that stores more than seven times the charge of comparable devices.

Climate Solutions News highlights our UCLA research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the energy of comparable devices, with promising potential for affordable, safe, and sustainable grid-scale renewable energy storage.

OKDIARIO features our UCLA research on a 3D-printed zinc-ion battery, highlighting its sevenfold increase in charge storage and the potential of abundant zinc as a sustainable alternative to lithium.

3D Printing Industry highlights our UCLA-led research on a 3D-printed zinc-ion hybrid battery delivering more than sevenfold higher charge storage, along with a low-cost 3D-printed test cell designed to improve the reliability of battery testing.

Motor.es highlights our UCLA research on 3D-printed zinc-ion batteries, featuring their high energy-storage capacity, long cycle life, and potential as a sustainable alternative to lithium.

Electronics For You highlights our UCLA research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the charge of comparable systems while demonstrating strong performance over 1,500 cycles.

3DPrint.com highlights our UCLA research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the energy of comparable devices, with potential applications in renewable and grid-scale energy storage.

A video feature highlights our UCLA research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the charge of comparable systems, offering a promising pathway toward lower-cost, longer-lasting grid-scale energy storage.

ScienceSprings features our UCLA-led research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the charge of comparable devices, highlighting its potential for affordable and sustainable grid-scale energy storage.

Interesting Engineering highlights our UCLA research on 3D-printed zinc-ion hybrid batteries, demonstrating how advanced electrode architectures can dramatically increase charge storage while enabling safer and more sustainable energy storage.

VoxelMatters highlights our UCLA research using 3D printing to create high-surface-area electrodes that enable zinc-ion hybrid batteries to store more than seven times the charge of comparable devices.

UCLA Newsroom highlights our 3D-printed zinc-ion hybrid battery that stores more than seven times the charge of comparable devices, offering a promising approach for sustainable, grid-scale energy storage.

UCLA Chemistry highlights our research on a 3D-printed zinc-ion hybrid battery that stores more than seven times the charge of comparable devices, along with a new 3D-printed test cell designed to improve the reliability of energy-storage research.