Engineering & Technology Materials Science and Engineering

Researchers at Kanazawa University report in ACS Nano how ultrathin layers of tin disulfide can be used to accelerate the chemical reduction of carbon dioxide — a finding that is highly relevant for our quest towards a carbon-neutral society.

Scientists from Thailand, France and Singapore have conducted groundbreaking research using both tiny cellulose nanofibers (CNF) and long pineapple leaf fibers (PALF) to create stronger materials. They added varying amounts of CNF to epoxy and found that 1% CNF greatly increased impact strength. PALF-epoxy composites showed significant flexibility and strength improvements. Combining CNF and PALF resulted in a remarkable increase in impact strength. The findings could revolutionize stronger material development.

A group of researchers from universities in Thailand and Malaysia have collaborated to develop a unique kind of film that is good for the environment and can decompose naturally. They made this film using leftover pineapple stems, which helps reduce the use of harmful plastic films. This new film has the potential to be used as packaging material, contributing to a more sustainable way of doing business and promoting a circular economy.

Two key challenges in chemistry innovation are solved simultaneously by exploring chemical opportunities with artificial intelligence.

Specially coated surfaces help scientists investigate what happens when cell clusters are turned upside down.

A research group at Osaka Metropolitan University has succeeded in selectively recovering trace rare earth elements in synthetic seawater and environmental water, such as hot spring water, using baker’s yeast with a phosphate group added. The phosphorylated yeast is expected to be utilized as a material for recovering useful metals and removing toxic metals, thereby contributing to the realization of a metal resource-circulating society.

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An international team of scientists is helping to reduce carbon emissions into the atmosphere by exploring different natural fibres and blending the natural fibres in plastics to make light-weight and strong green composite materials for the construction and automotive industries.

Scientists in Singapore converted fruit waste into a solar absorber called Mxene to develop an efficient and sustainable water desalination process.

Scientists from Alliance University, Bangalore, Birla Institute of Technology Mesra, Inha University, Hanyang University, South Korea, and Newcastle University in Singapore have developed a new and straightforward approach to turn used COVID-19 facemasks into potential absorbent materials that can be employed for carbon capture from atmosphere.

An international interdisciplinary team of researchers hailed from India, Malaysia, Singapore and Thailand has successfully developed a method of using chitosan from terrestrial insects to manufacture eco‐friendly polymer composite parts using the 3D printing method.

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In a study recently published in the journal ACS Nano, published by American Chemical Society, researchers from Kanazawa University, Kanazawa, Japan, collaborating with University of Washington, Seattle, USA, used frequency modulated atomic force microscopy to reveal the molecular architecture of a genetically designed peptide and its self-organization that forms single-molecule thick crystals on atomically flat graphite surfaces, that offer a potential platform for hybrid technologies such as bioelectronics, biosensors, and protein arrays.

Modifying the active layer architecture at the heart of organic solar cells brings a big leap forward in efficiency.

Bacteria living on soil and chicken manure could provide low-tech and sustainable green electricity.

Researchers are working to overcome challenges in order to bring wearable, electric, wound-healing devices to clinical practice.

An international collaboration is developing coating materials that could make windows better insulators.

Hi-tech electrocatalysts made from seashells and waste animal blood could help build sustainable batteries, fuel cells and other electrochemical systems.

Shaking the compact, lightweight device generates enough electricity to power 100 LEDs.

Machine learning algorithms allow analysis and characterization of the atomic arrangement of silicon surface superstructures without the need for human expertise.

A model that rapidly searches through large amounts of materials could find sustainable alternatives to existing composites.

2.5-dimensional materials promise new applications for artificial intelligence, electronics, automobiles and the energy sector.

A team of researchers from Universiti Teknologi Malaysia and Universiti Malaysia Pahang has successfully developed an electrospinning method for producing Nylon Nanofibres for use in carbon fibre composites to enhance the impact properties of carbon composites.

Scientists at Tokyo Medical and Dental University have discovered a new type of bone repairing material that could be used to more precisely fix bone defects.

Synthetic hydrogels were shown to provide an effective scaffold for neuronal tissue growth in areas of brain damage, providing a possible approach for brain tissue reconstruction.

An effective, stable solid-state electrochemical transistor has been developed, heralding a new era in thermal management technology.

A research group from the Graduate School of Engineering at Osaka Metropolitan University has shown that 3C-SiC exhibits high thermal conductivity equivalent to the theoretical value, based on thermal conductivity evaluation and atomic-level analysis, for the first time. They demonstrated that a 3C-SiC film on silicon substrate had a high thermal conductivity and expect that fabricating large-diameter wafers can be achieved at a low cost. The discovery should lead to improved heat dissipation in everyday electronic devices.

A research group at Osaka Metropolitan University has derived a new evaluation method for the measuring the size X-ray microbeams (diameter) through mathematical analysis. The group then verified the validity of the mathematically derived evaluation method by measuring the diameter of X-ray microbeams using metal wires of various diameters with an X-ray fluorescence analysis system for small areas and found that it was possible to calculate the beam diameter more accurately than the previous conventional evaluation method.

Scientists from two Asian universities, namely Universiti Teknologi Malaysia (UTM) and Newcastle University in Singapore, have completed a study to understand how the mechanical behaviour of carbon fibre reinforced epoxy composite laminates could be compromised by moisture seepage.

Scientists at Malaysia’s IIUM are helping small and medium business owners in Sarawak to use technology to cut costs and improve marketing.