Chemical Engineering Journal

Multi-layered mBC/CS/WPU films, made via spraying, mercerization, and infiltration, offer synergistic protection comparable to petroleum-based

In-situ phosphatized Ni–N3PC boosts CO2 to CO conversion in acidic electrolyte, suppresses HER, and achieves >90% FECO with high stability.

A sustainable technology is unveiled to decouple chemical biomass oxidation from hydrogen production, offering new opportunities for carbon-neutral manufacturing.

- DGIST Professor Chiyoung Park’s team develops a simple method to maximize catalytic active sites using a mortar and pestle - Research results published in the Chemical Engineering Journal

- A research team led by Senior Researcher Sangkyoo Lim has successfully developed biomass-based shape memory polymer fibers capable of simultaneously producing and storing energy. - These artificial muscle fibers, which can lift loads exceeding 56,000 times their own weight, are expected to find applications in industries such as medical robotics, advanced textiles, and wearables industries - The findings of the study were published in the Chemical Engineering Journal

- DGIST Professor Youngu Lee and Jeonbuk National University Professor Jaehyuk Lim successfully developed an ultra-sensitive, transparent, and flexible electronic skin mimicking the neural network in the human brain. - Applicable across different areas, including healthcare wearable devices and transparent display touch panels.

- DGIST Professor Park Chiyoung and Inha University Professor U-hyeok Choi collaborate to develop sustainable, flexible electrode sensor material - Research results published in the Chemical Engineering Journal

- Professor Jongmin Choi's team from the Department of Energy Science and Engineering at DGIST adopts a new ligand to enhance the efficiency and stability of perovskite quantum dot solar cells - Solar cell efficiency increases to 15.3% by correcting distortions on the surface of quantum dots

- Insert electrodes inside the luminescent layer to luminate stably even in harsh environments - Strong brightness and durability even in variations... Expected to be used across many different applications, such as outdoor displays and luminous banners

- The introduction of dual-layer coating technology, incorporating both polymers and inorganic materials, has led to the development of stabilization technology for the anode of aqueous zinc batteries. - This technology significantly mitigates the core issues of aqueous zinc batteries, specifically addressing the growth of zinc dendrites and the hydrogen evolution reaction.

- The new photocatalyst is capable of generating methane production 51 times greater compared to commercial TiO2 photocatalysts by improving the surface and electrical properties with amorphous In2TiO5/MoSe2 photocatalysts - The research results were published in Chemical Engineering Journal, a prestigious international journal in the field of energy and environment.

A research team at Osaka Metropolitan University has developed a new simulation method that accurately predicts powder mixing using AI, and has succeeded in increasing calculation speed by approximately 350 times while maintaining the same level of accuracy as conventional methods. This method is expected to not only pave the way for more efficient and precise powder mixing processes but also open up new possibilities for industries seeking to enhance product quality and streamline production.

Scientists demonstrate that diluting high concentration electrolytes can improve the cycling abilities of lithium metal batteries over a wide range of temperatures

Scientists design a novel thermoelectrochemical cell that efficiently converts waste heat into electricity for low-power devices