Graphite to Diamond: Mechanistic Insights from Molecular Dynamics Simulations
Diamonds aren’t forever; they will eventually turn back into graphite. How does the phase transition from graphite to diamond and back unfold?
Read moreFrom Atoms To Words
Diamonds aren’t forever; they will eventually turn back into graphite. How does the phase transition from graphite to diamond and back unfold?
Read moreCRISPR-Cas9: the gene editing tool reshaping our era. How does it cleave the DNA? Let’s take a peep through the computational microscope.
Read moreFrom cosmic crucibles to Earth’s primordial soups, can quantum chemistry simulations help us understand how lifeless molecules sparked life?
Read moreWhat’s actually going on at the molecular level when geckos get their Spider-Man on? Coarse-grained simulations provide an answer.
Read moreAt Quantistry, we are celebrating a significant milestone: €3 million funding to transform chemical and material R&D. From Quantum to AI.
Read moreOnce theoretically predicted, then experimentally confirmed, anion-pi interactions have become central in various fields of chemistry.
Read moreTo a quantum chemist, every science problem looks like a quantum chemistry problem. Enter ReaxFF molecular dynamics.
Read moreAll-atom molecular dynamics simulations of the SARS-CoV-2 virus, featuring 305 million atoms! Is that even possible? Yes, it is.
Read moreCan we really investigate enzymatic reactions and estimate their activation energies with quantum chemistry? Let’s talk “cluster approach.”
Read moreThe journey of machine learning in materials science is just at the beginning. Yet, its impact is already clear.
Read moreTheory and experiment battling through three decades: That is the epic tale of quantum chemistry of molecule-surface adsorption.
Read moreMachine learning is all over: drug discovery, material design, protein structure prediction. As computational chemists, should we be worried?
Read moreHow astronomical is chemical space? Immensely so. How do we then discover & design the materials of tomorrow? Computation can give us a hand.
Read moreThe discovery of cisplatin: a story of human curiosity and ingenuity inspiring a pivotal turn in medical history.
Read moreChemical simulations as the third pillar of research and development? From atomistic insights to sustainability, explore 14 reasons why.
Read moreAfter decades of scientific pursuit, machine-learning based AlphaFold has revolutionized protein structure prediction.
Read moreCan quantum simulations of the primordial soup finally crack the mother of all questions: How did Life come to be?
Read moreFrom today’s computers in chemistry to 4 future scenarios of scientific discovery: A post-vacation musing.
Read moreNoncovalent interactions in proteins: the flexible wonders that bestow proteins the magic of three-dimensionality.
Read moreIf I swap the metal in my metal-organic framework, will it be moisture-stable? Soon, we could ask our personal language models for chemistry.
Read moreHow can we search through the 10^100 permutations of battery materials? The answer lies in computer-aided next-generation battery design.
Read moreMultiscale simulations of DNA to tackle a challenge of epic proportions: Embark on a computational journey into the essence of our being.
Read moreShort answer: yes, we do need quantum computing in chemical R&D. The Long answer is what this story is about.
Read moreThe computational design of MOFs to improve stability, mechanical properties, and catalytic capabilities can help save the planet.
Read moreWhat started this whole chemical shebang that we call nature? Quantum nanoreactor simulations of the early universe try to answer.
Read moreYou wake up and brew yourself a refreshing cup of coffee. Your calendar says it’s 2043. Time to run your daily computational chemistry simulations.
Read moreThe true story of how I went from almost having to leave Berlin to contributing to the discovery of the anion-pi Interactions in proteins.
Read more