news 2019
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Materials Science - 14.12.2019
Physics - Materials Science - 08.10.2019 
A promising route to scalable quantum photonics
Researchers from the Photonics Research Group (imec, Ghent University) and MIT have integrated single photon emitters in 2D layered materials with a Silicon Nitride photonic chip. Even for moderate quantum yields, dielectric cavities could be designed such that the single photon extraction into the guided mode can reach unity.
Chemistry - Materials Science - 04.09.2019
Materials Science - Physics - 28.08.2019
Physics - Materials Science - 19.08.2019
Physics - Materials Science - 26.07.2019 
Yellow is not the new black: discovery paves way for new generation of solar cells
By stabilizing perovskites -man-made crystals that can convert sunlight into electricity- they absorb sunlight and can be used in efficient solar panels. Perovskites are semiconductor materials that have many applications. They show particular promise in harvesting solar energy. Currently, most solar cells are made with silicon crystals, a relatively straightforward and effective material to process for this purpose.
Physics - Materials Science - 26.07.2019
Materials Science - Innovation - 17.07.2019
Physics - Materials Science - 08.04.2019
Materials Science
Results 1 - 9 of 9.
Researchers break the geometric limitations of moiré pattern in graphene heterostructures
Researchers at the University of Manchester in collaboration with CMT theorists (M. Andelkovic, S. Milovanovic, L. Covaci and F. Peeters) have uncovered interesting phenomena when multiple two-dimensional materials are combined into van der Waals heterostructures (layered 'sandwiches' of different materials).
Researchers at the University of Manchester in collaboration with CMT theorists (M. Andelkovic, S. Milovanovic, L. Covaci and F. Peeters) have uncovered interesting phenomena when multiple two-dimensional materials are combined into van der Waals heterostructures (layered 'sandwiches' of different materials).
Researchers from the Photonics Research Group (imec, Ghent University) and MIT have integrated single photon emitters in 2D layered materials with a Silicon Nitride photonic chip. Even for moderate quantum yields, dielectric cavities could be designed such that the single photon extraction into the guided mode can reach unity.
New insulation technique paves the way for more powerful and smaller chips
Researchers at KU Leuven and imec have successfully developed a new technique to insulate microchips. The technique uses metal-organic frameworks, a new type of materials consisting of structured nanopores. In the long term, this method can be used for the development of even smaller and more powerful chips that consume less energy.
Researchers at KU Leuven and imec have successfully developed a new technique to insulate microchips. The technique uses metal-organic frameworks, a new type of materials consisting of structured nanopores. In the long term, this method can be used for the development of even smaller and more powerful chips that consume less energy.
Next generation synthetic covalent 2-D materials unveiled
UAntwerp researchers from the CMT group, Dr. Mehmet Yagmurcukardes and Prof. Francois Peeters, in collaboration with a team from Manchester have uncovered novel 2D materials. (Nanowerk News) A team of researchers at the National Graphene Institute at The University of Manchester have developed a new method to synthesize 2D materials that are thought to be impossible or, at least, unobtainable by current technologies.
UAntwerp researchers from the CMT group, Dr. Mehmet Yagmurcukardes and Prof. Francois Peeters, in collaboration with a team from Manchester have uncovered novel 2D materials. (Nanowerk News) A team of researchers at the National Graphene Institute at The University of Manchester have developed a new method to synthesize 2D materials that are thought to be impossible or, at least, unobtainable by current technologies.
Hydrogen induces high-temperature superconductivity in a monolayer material
UAntwerp researchers from the CMT group, Dr Jonas Bekaert and Prof Milorad Milosevic, in collaboration with Swedish researchers have predicted that a atomically thin layer of hydrogen will boost the critical temperature of a thin superconductor to above a hundred kelvin. Hydrogen-rich bulk superconducting materials have recently exhibited record-breaking critical temperatures, nearing the ambient temperature and thereby promising a major technological impact on the society.
UAntwerp researchers from the CMT group, Dr Jonas Bekaert and Prof Milorad Milosevic, in collaboration with Swedish researchers have predicted that a atomically thin layer of hydrogen will boost the critical temperature of a thin superconductor to above a hundred kelvin. Hydrogen-rich bulk superconducting materials have recently exhibited record-breaking critical temperatures, nearing the ambient temperature and thereby promising a major technological impact on the society.
By stabilizing perovskites -man-made crystals that can convert sunlight into electricity- they absorb sunlight and can be used in efficient solar panels. Perovskites are semiconductor materials that have many applications. They show particular promise in harvesting solar energy. Currently, most solar cells are made with silicon crystals, a relatively straightforward and effective material to process for this purpose.
Yellow is not the new black: discovery paves way for new generation of solar cells
A study led by KU Leuven for the first time explains how a promising type of perovskites - man-made crystals that can convert sunlight into electricity - can be stabilised. As a result, the crystals turn black, enabling them to absorb sunlight. This is necessary to be able to use them in new solar panels that are easy to make and highly efficient.
A study led by KU Leuven for the first time explains how a promising type of perovskites - man-made crystals that can convert sunlight into electricity - can be stabilised. As a result, the crystals turn black, enabling them to absorb sunlight. This is necessary to be able to use them in new solar panels that are easy to make and highly efficient.
A new material for the battery of the future, made in UCLouvain
In brief : The challenge of renewable energy? The storage of green energy , i.e., being able to store energy when it's produced while using it when needed. The discovery of the researchers from UCLouvain? A new high performance and safe battery material (LTPS) capable of speeding up charge and discharge to a level never observed so far.
In brief : The challenge of renewable energy? The storage of green energy , i.e., being able to store energy when it's produced while using it when needed. The discovery of the researchers from UCLouvain? A new high performance and safe battery material (LTPS) capable of speeding up charge and discharge to a level never observed so far.
KU Leuven engineers calculate where microplastics will end up
What is the impact of weathering processes on microplastics, and how do the particles spread across seas and oceans' Computer models developed by hydraulics engineers from KU Leuven may help to find the answers. Through rivers and wastewater, enormous amounts of minuscule plastic particles end up in our seas and oceans.
What is the impact of weathering processes on microplastics, and how do the particles spread across seas and oceans' Computer models developed by hydraulics engineers from KU Leuven may help to find the answers. Through rivers and wastewater, enormous amounts of minuscule plastic particles end up in our seas and oceans.
