The electrochemical reduction of carbon dioxide ($\text{CO}_2$$\text{RR}$) using carbon-neutral electricity offers a sustainable pathway to produce valuable chemicals like formic acid, carbon monoxide (CO), and multi-carbon products. However, direct CO 2 ​ conversion faces challenges due to competing carbonate formation, which leads to increased hydrogen evolution and electrical resistance.

The development of sunlight-driven water splitting or CO2 reduction systems with high efficiency, scalability, and cost-competitiveness is a central issue in the mass production of fuels and energy-rich chemicals.

Thailand has developed a sustainable logistics system for recycling lithium-ion batteries (LIBs), involving multiple stakeholders, as illustrated in the diagram below. This system plays a key role in promoting a circular green economy.

📆 Date and time: Jan 13, 2024 04:00-05:00 PM Bangkok (09:00-10:00 AM UK Time) ✒️ Assist. Prof. Dominic Spencer-Jolly ...

Thailand has developed a sustainable logistics system for recycling lithium-ion batteries (LIBs), involving multiple stakeholders, as illustrated in the diagram below. This system plays a key role in promoting a circular green economy.

📆 Date and time: Nov 25, 2024 01:00 PM Bangkok ✒️ Dr. Nicholas P. Stadie Associate Professor of Physical Chemistry...

Thailand has developed a sustainable logistics system for recycling lithium-ion batteries (LIBs), involving multiple stakeholders, as illustrated in the diagram below. This system plays a key role in promoting a circular green economy.

LiNi0.9Mn0.1-xAlxO2 (Li-NMA) cathodes (x = 0.01, 0.03, 0.05) were synthesized via co-precipitation and calcination. XRD confirmed a well-formed hexagonal structure. LiNi0.9Mn0.07Al0.03O2 (NMA 973) exhibited superior electrochemical performance, showing lower redox peak separation, the smallest charge transfer resistance (29.69 Ω cm-2), and a high specific discharge capacity of 172 mAh g-1 at 0.1C after 100 cycles. It also demonstrated excellent capacity at high current densit

Insightfully understanding the process of volatiles from plastic depolymerization entering from the exterior into internal structure of catalyst favors to rationalize the catalyst design in scale-up principles. Herein, catalytic degradation of plastic wastes with fluid catalytic cracking catalyst (FCC) was investigated in-depth.

The world confronts critical challenges from energy crisis and global warming, primarily stemming from fossil fuel dependence and CO2 emissions. Urgent action is needed to mitigate these emissions and transition to a circular economy. This article investigates carbon capture and utilization (CCU) for recycling CO2 into valuable molecules using renewable energy. It also addresses plastic pollution, proposing solar-driven photoelectrochemical systems to convert CO2 and waste pl

The pursuit of mitigating climate change is crucial for achieving Sustainable Development Goals, especially in tropical cities that are disproportionately affected by urban heat islands. This innovative approach integrates carbon neutrality, sustainable energy generation, and biophilic development to create thriving and resilient urban environments, emphasizing the connection between humans and nature.

To achieve carbon neutrality, it is important to understand the holistic effect of applying a new technology, in order to avoid un-intended emissions either in upstream or downstream processes due to such application. In estimating the holistic effect, one of the most promising and accepted methodologies nowadays is life cycle assessment (LCA). The history of standardized LCA started mid ’90s, but it is only recently that LCA is widely adopted in various government rules and

To avoid the potential adverse impacts of climate change from global warming, it is suggested that the target of net zero emissions should be reached by this mid-century. Thailand is aiming to achieve carbon neutrality by 2050. Since electricity generation is one of the largest producers of carbon dioxide emission, the associated emissions must be greatly reduced. New generation expansion plans should also be well developed.

As renewable energy expands, power grids face growing congestion challenges. This talk presents a two-level control strategy using batteries—combining planning and real-time Model Predictive Control—to manage grid overloads and unlock multi-service capabilities for energy storage systems.