Hydrogen storage, heat conduction, gas storage, CO2 and water sequestration—metal-organic frameworks (MOFs) have extraordinary properties due to their unique structure in the form of microporous crystals, which have a very large surface area despite their small size. This makes them extremely interesting for research and practical applications. However, MOFs are very complex systems that have so far required a great deal of time and computing power to simulate accurately.
Recent MBZUAI Ph.D. graduate Hilal Mohammad Hilal AlQuabeh aims to raise the bar in AI by helping neural networks learn smarter.
Observations after 3 weeks of DeepMind releasing its hitherto most advanced model for biomolecular structure prediction.
Calcium oxide is a cheap, chalky chemical compound commonly used in the manufacturing of cement, plaster, paper, and steel. But the material may soon have a more high-tech application.
UChicago Pritzker School of Molecular Engineering researchers and their collaborator in Sweden have used theoretical and computational approaches to discover how tiny, lone atoms of bismuth embedded within solid calcium oxide can act as qubits — the building blocks of quantum computers and quantum communication devices.
These qubits are described in Nature Communications (“Discovery of atomic clock-like spin defects in simple oxides from first principles”).
(Nanowerk News) Advanced technologies enable the controlled release of medicine to specific cells in the body. Scientists argue these same technologies must be applied to agriculture if growers are to meet increasing global food demands.
In a new Nature Nanotechnology journal review paper (“Towards realizing nano-enabled precision delivery in plants”), scientists from UC Riverside and Carnegie Mellon University highlight some of the best-known strategies for improving agriculture with nanotechnology.
Tesla announced major progress in 4,680 battery cell production with a new milestone at Giga Texas.
“… living systems evolve to exploit any aspect of physics that enables exploration of all possible ‘fitness landscapes’.”
Indeed!
In 1990, within the intellectual haven of Haverford College, I embarked on a transformative academic journey into biophysics – the captivating intersection of physics and biology.
It was during this time that I delved into the tantalising notion of quantum mechanics operating within living organisms.
Scientists harnessed a new method to precisely measure the amount of information the brain can store, and it could help advance our understanding of learning.
