BAGANBAZAR GRAPHEXPLORE · ANALYZE · GROW
Theme
LiveDesk
ScienceFrom atomic vibrations to laboratory mechanics: Bridging 20 orders of magnitude in timeTechnologyGo Concurrency DistilledTechnologyOpenAI agents tried to bruteforce a UN website's API fieldsTechnologyDeepSeek Elastic Compute (DSec)TechnologyShow HN: Reladraw – A diagram language where you decide where to place things
Science/Source-attributed reporting
Science DESK

From atomic vibrations to laboratory mechanics: Bridging 20 orders of magnitude in time

How can we predict the way a real material, such as a polymer, responds mechanically over timescales ranging from the ultrafast motion of atoms to the slow deformations measured in a laboratory? This is a deceptively difficult problem.

Published Sep 15, 2026 · 2:00 AMOriginal source: Phys.org - latest science and technology news stories8 reads
How can we predict the way a real material, such as a polymer, responds mechanically over timescales ranging from the ultrafast motion of atoms to the slow deformations measured in a laboratory? This is a deceptively difficult problem.
ORIGINAL SOURCE

Phys.org - latest science and technology news stories

This report is indexed by BAGANBAZAR GRAPH with its original publisher named and linked for readers.

Read at original outlet ↗
RELATED COVERAGE

More from this desk.

BAGANBAZAR GRAPHSource-attributed newsSCIENCE desk
Science

Chris Toumazou

European Inventor of the Year, Chris Toumazou, reveals how his personal life and early research lie at the heart of his inventions. As chief scientist at the Institute of Biomedical Engineering at Imperial College London, Chris inspires engineers, doctors and other scientists to create medical devices for the 21st Century. Applying silicon chip technology, more commonly found inside mobile phones, he tackles seemingly insurmountable problems in medicine to create devices that bridge the electronic and biological worlds - from a digital plaster that monitors a patient's vital signs to an artificial pancreas to treat diabetes. His latest creation, coined a 'lab on a chip', analyses a person's DNA within minutes outside the laboratory. The hand-held device can identify genetic differences which dictate a person's susceptibility to hereditary diseases and how they will react to a drug like warfarin, used to treat blood clots. (Photo: Chris Toumazou, BBC copyright)

Original sourceDiscovery
BAGANBAZAR GRAPHSource-attributed newsSCIENCE desk
Science

The Making of the Moon

It is the nearest and most dominant object in our night sky, and has inspired artists, astronauts and astronomers. But fundamental questions remain about our only natural satellite. Where does the Moon come from? Although humans first walked on the Moon over four decades ago, we still know surprisingly little about the lunar body's origin. Samples returned by the Apollo missions have somewhat confounded scientists' ideas about how the Moon was formed. Its presence is thought to be due to another planet colliding with the early Earth, causing an extraordinary giant impact, and in the process, forming the Moon. But, analysing chemicals in Apollo's rock samples has revealed that the Moon could be much more similar to Earth itself than any potential impactor. Geochemist Professor Alex Halliday of the University of Oxford, and Dr Jeff Andrews-Hanna, Colorado School of Mines – who is analysing the results from Nasa's Gravity Recovery and Interior Laboratory (GRAIL) lunar mission – discuss the theories and evidence to-date. Are we Going Back? Settling the question of the Moon's origin seems likely to require more data – which, in turn, requires more missions. BBC Science correspondent Jonathan Amos tells us about the rationale and future prospects for a return to the Moon, including the Google Lunar XPrize. As the Moon's commercial prospects are considered, who controls conservation of our only natural satellite? If commerce is driving a return to the Moon, who owns any resources that may be found in the lunar regolith? Dr Saskia Vermeylen of the Environment Centre at Lancaster University is researching the legality of claiming this extra-terrestrial frontier. (Photo: Presenter Lucie Green. BBC copyright)

Original sourceDiscovery
BAGANBAZAR GRAPHSource-attributed newsSCIENCE desk
Science

Trauma at War

They call them 'The Unexpected Survivors'. The casualties from the war in Afghanistan whose injuries were so severe that they were not expected to survive, but who survived nevertheless. In October, after 13 years Britain and the United States officially brought their combat operations in Helmand Afghanistan to an end. Camp Bastion, the coalition stronghold – once one of the largest military bases in the world – has been dismantled leaving a handful of buildings that will now be handed over to the Afghan National Army.First established eight years ago in 2006, Camp Bastion came to host to one of the most extraordinary and successful trauma medical systems ever seen. Amongst the medics that went to and served in Afghanistan were doctors who trained with me in civilian hospitals. With the mission nearly at an end I had to see them and their system for myself, to try and understand just how it came to be and why it worked so well.Photo courtesy of Ministry of Defence

Original sourceDiscovery