Atomically thin materials developed by Stanford researchers could create heat shields for cell phones or laptops that would protect people and temperature-sensitive components and make future electronic gadgets even more compact.
A recipe for creating a microscopic crystal structure that can hold two wavelengths of light at once is a step toward faster telecommunications and quantum computers.
By analyzing single particles of light, this camera system can reconstruct room-size scenes and moving objects that are hidden around a corner. This work could someday help autonomous cars and robots see better.
Researchers are designing a nanoscale photon diode – a necessary component that could bring us closer to faster, more energy-efficient computers and communications that replace electricity with light.
Scientific discovery games have been speeding otherwise time-consuming biomedical research. Players also experience real-world science, which is often otherwise hidden behind laboratory doors.
Only supercomputers have the oomph to tackle the grandest challenges facing science, but the difficulty of programming these machines impedes discovery.
A swarm of 105 tiny satellites the size of computer chips, costing under $100 each, recently launched into Earth’s orbit. Stanford scientist Zac Manchester, who dreamed up the ChipSats, said they pave the way for cheaper and easier space exploration.
In the course CS 181: Computers, Ethics and Public Policy, Stanford students become computer programmers, policymakers and philosophers to examine the ethical and social impacts of technological innovation.
Three high schoolers and a Stanford lab found that, when file size is restricted, humans are better at representing images than traditional algorithms.
Scientists are training machine learning algorithms to help shed light on earthquake hazards, volcanic eruptions, groundwater flow and longstanding mysteries about what goes on beneath the Earth’s surface.
Stanford bioinformatics researchers are working on a smartphone app that could help diagnose autism in minutes – and provide ongoing therapy as well, all with fewer visits to specialized clinics.
Computers have shrunk to the size of laptops and smartphones, but engineers want to cram most of the features of a computer into a single chip that they could install just about anywhere. A Stanford-led engineering team has developed the prototype for such a computer-on-a-chip.
Stanford researchers have identified the GPS locations and sizes of almost all U.S. solar power installations from a billion images. Using the data, which are public, they identified factors that promote the use of solar energy and those that discourage it.
Many devices that are now a part of our daily lives collect information about how we use them. Computer scientists Dan Boneh and Henry Corrigan-Gibbs have created a new method for keeping that collected data private.
Cash-strapped environmental regulators have a powerful and cheap new weapon. Machine learning methods could more than double the number of violations detected, according to Stanford researchers.
Like its predecessor, JackRabbot 2 is learning how to navigate safely through spaces occupied by people, following the rules of human etiquette. What it learns could help it move comfortably among us in the future.
Sounds accompanying computer-animated content are usually created with recordings. Now, a new system synthesizes synchronized sound at the push of a button.
The Stanford Data Challenge Lab class meets every day and requires nearly 100 homework assignments. But innovative instruction has students clamoring to take the class, which teaches professional-level data skills.
Because the internet is constantly changing, it is tough to have regulations that will benefit consumers in terms of price and innovation, says Stanford scholar about the challenges of regulating the web.
The physics involved with stirring a liquid operate the same way as the mathematical functions that secure digital information. This parallel could help in developing even more secure ways of protecting digital information.
Virtually all tablets, phones and smart devices run on a computer architecture developed by former Stanford President John Hennessy and his collaborator David Patterson. They won the 2017 Turing Award for their contribution.