Researchers developed a computational model to optimize melt crystallization—a low-energy method for producing ultra-pure dimethyl carbonate (DMC). The study reveals how natural convection shapes crystal layer and proposes heating strategies to improve efficiency, offering industry a sustainable path to high-purity materials.

The article utilizes the friction electromagnetic induction coupling mechanism to design a single fiber based Fibre-WBAN it converts the mechanical energy generated by the human body movement into electrical signals and uses the fiber coils to convert the low-frequency time-domain signals into high-frequency frequency-domain signals (40 MHz) for wireless data transmission.

In the quest to design the next generation of materials for modern devices – ones that are lightweight, flexible and excellent at dissipating heat – a team of researchers led by the University of Massachusetts Amherst made a discovery: imperfection has its upsides.

Scientists from Heriot-Watt University have secured new funding to investigate the thermodynamic behaviour of typical carbon capture, utilisation, and storage (CCUS) fluids. This research is critical for the safe and efficient processing, transportation, and storage of these fluids. Jointly funded by TotalEnergies and Equinor, the new research project builds on Heriot-Watt University’s long-standing expertise in CCUS research. 

The two-year project aims to improve thermodynamic models to predict the phase behaviour of CO2 rich mixtures, specifically focusing on volatile organic compounds (VOCs) as the impurities.  The project outcomes will be pivotal in establishing optimum operational conditions throughout the CCUS chain as well as environmental compliance and proper CO2 storage.