Nvidia CEO Jensen Huang.
Ritchie B Tongo / EPA
Arm defied the traditional notion of how a technology company competes in the global market place. That could all change.
Red quantum dots glow inside a rat brain cell.
Nanoscale Advances, 2019, 1, 3424 - 3442
These tiny nanoparticles might provide a new way to see what's happening in the brain and even deliver treatments to specific cells – if researchers figure out how to use them safely and effectively.
The semiconductor industry sits at the centre of the modern world.
US actions do more than just keep Huawei away from critical infrastructure. They choke off the supply of semiconductors to China.
Historical grievances, domestic politics, the US-China trade war and a looming global recession are all at play.
It takes a giant piece of equipment to look deep inside a tiny atom.
Advanced Photon Source at Argonne National Lab
It turns out to be fairly complicated to figure out how electricity will flow through materials – a crucial question for designing new electronics and semiconductor materials.
What if it were a lot easier to install solar power?
Silicon is cheap and a good semiconductor, but it's bulky and rigid. Using organic polymers as semiconductors could yield solar panels with the physical characteristics of plastics.
Ready layer one.
Layering substances like graphene in new ways could help us to build quantum computers or transmit electricity over long distances.
Could this monitor and window be combined with a solar panel?
Organic semiconductors could make possible energy-generating windows that double as movie screens or computer displays.
Aerial view of San Jose, California, 2016.
Silicon Valley brought together natural surroundings, suburban homes and futuristic high-tech work. But industrial pollution betrayed the California dream.
ARM gets ready to grapple with a Japanese adventure.
The Cambridge-based chip designer offers a useful blueprint for others.
Materials science has lots of options for building.
Molybdenum disulphide, hexagonal boron nitride and other materials yet to be discovered will be used to build the electronics of the future.
A molecular beam epitaxy machine used to create semiconductor samples.
John C. Bean (University of Virginia) and Tom Vandervelde (Tufts University)
As we reach the limits of what can be done with silicon, the search for new and improved superconductors is on.
Adrian Cansell loading a 100mm silicon wafer into a 200 kV ion implanter.
University of Surrey Ion Beam Centre
Rutherford backscattering spectrometry has been a success in fields ranging from astronomy to art. Now it has even been proven accurate to the satisfaction of the metrologists
Silicon isn't the perfect semiconductor, it's just the one we're using. How can we ensure our electronics keep get getting faster in the face of silicon's natural physical limits?
The beauty of stained glass – all down to electron oscillations.
The field of plasmonics has implications for integrated circuits, biosensors, other light-based technologies – even invisibility cloaks.
Graphene powder can be manufactured.
Dr Mohammad Choucair
There is much excitement about graphene, a material only a single carbon-atom thick, but finding ways to do something with it that's affordable have always been a challenge.
American researchers have found a new solvent to safely turn semiconductors, which are materials that conduct their own energy…
This beautiful symmetrical structure also holds the key to make better smartphones.
Graphene, a single layer of carbon atoms, is being touted as the material that could change how electronics are made. But it’s difficult to make graphene in forms needed for electronics. Now, researchers…