Morpheus

From The Future of Everything

The future of ultrafast materials and devices

Published
June 5, 2026
Length
37:16
Starts at
17:43

Audio is streamed from the publisher.

Chapters

Read from the show notes

  1. 0:00 **Introduction**
  2. 3:26 **Path into Materials Science**
  3. 5:34 **What Materials Scientists Study**
  4. 6:44 **Seeing Atoms in Motion**
  5. 8:59 **Femtosecond Timescales**
  6. 10:25 **Making Atomic Movies**
  7. 13:08 **Speed Limits in Materials**
  8. 15:32 **Faster and More Efficient Devices**
  9. 17:43 **The Energy Cost of Switching**
  10. 19:10 **Speed, Energy, and Reliability**
  11. 21:29 **Solar Cells at the Atomic Scale**
  12. 23:40 **Capturing Energy Before It Becomes Heat**
  13. 26:13 **Randomness in Materials**
  14. 28:20 **Measuring Dynamic Complexity**
  15. 30:26 **AI for Materials Research**
  16. 32:56 **Future In a Minute**
  17. 36:13 **Conclusion**

Not from the publisher — times may be approximate.

Show notes

Engineer [https://mse.stanford.edu/people/aaron-lindenberg"]( Aaron Lindenberg is an expert in the ways atoms and electrons move through materials. He uses X-ray “flash photography” to make movies of atoms moving at ultrafast speeds to predict the fundamental limits of electronics in future consumer devices, solar cells, and AI chips. He estimates we are “many orders of magnitude away” from the physical limits of both speed and energy efficiency in our electronics. Today’s computers are at least a thousand times slower than they could be, Lindenberg tells host [https://bioengineering.stanford.edu/people/russ-altman"]( Russ Altman on this episode of Stanford Engineering’s _The Future of Everything_ podcast. _Have a question for Russ? Send it our way in writing or via voice memo, and it might be featured on an upcoming episode. Please introduce yourself, let us know where you're listening from, and share your question. You can send questions to_ [_thefutureofeverything@stanford.edu_](mailto:thefutureofeverything@stanford.edu)_._ **Episode Reference Links:** - Stanford Profile: [https://profiles.stanford.edu/aaron-lindenberg?releaseVersion=11.5.3"]( Aaron Lindenberg **Connect With Us:** - Episode Transcripts >>> [https://engineering.stanford.edu/magazine/collection/future-everything-podcast"]( The Future of Everything Website - Connect with Russ >>> [https://www.threads.net/@russbaltman"]( Threads / [https://bsky.app/profile/rbaltman.bsky.social"]( Bluesky / [https://mastodon.social/@rbaltman"]( Mastodon - Connect with School of Engineering >>> [https://twitter.com/stanfordENG"]( Twitter/X / [https://www.instagram.com/stanfordeng/"]( Instagram / [https://www.linkedin.com/school/stanford-university-school-of-engineering/posts/?feedView=all&viewAsMember=true"]( LinkedIn / [https://www.facebook.com/stanford.engineering/"]( Facebook **Chapters:** (00:00:00) **Introduction** Russ Altman introduces guest Aaron Lindenberg, a professor of Material Science & Photon Science at Stanford University. (00:03:26) **Path into Materials Science** How a biology problem inspired Lindenberg’s interest in atomic-scale dynamics. (00:05:34) **What Materials Scientists Study** Understanding how atoms, electrons, and ions create useful material properties. (00:06:44) **Seeing Atoms in Motion** How X-ray scattering and diffraction reveal atomic structure and dynamics. (00:08:59) **Femtosecond Timescales** Why ultra-fast measurements are needed to capture atomic motion. (00:10:25) **Making Atomic Movies** How researchers use snapshots to study materials as they change. (00:13:08) **Speed Limits in Materials** What determines how fast a material can switch between states. (00:15:32) **Faster and More Efficient Devices** Why electronics still have room to improve in speed and energy use. (00:17:43) **The Energy Cost of Switching** How fundamental energy limits shape future computing devices. (00:19:10) **Speed, Energy, and Reliability** The trade-offs that govern how materials perform in real devices. (00:21:29) **Solar Cells at the Atomic Scale** How materials convert light into electricity inside a solar cell. (00:23:40) **Capturing Energy Before It Becomes Heat** Why ultra-fast dynamics matter for improving solar cell efficiency. (00:26:13) **Randomness in Materials** How stochastic atomic motion affects material performance. (00:28:20) **Measuring Dynamic Complexity** Why nanoscale materials do not behave the same way every time. (00:30:26) **AI for Materials Research** How AI helps in Lindenberg's research (00:32:56) **Future In a Minute** Rapid-fire Q&A: science, collaboration, and future materials. (00:36:13) **Conclusion** **Connect With Us:** Episode Transcripts >>> [The">https://engineering.stanford.edu/magazine/collection/future-everything-podcast">The]( >> [Threads]( https://www.threads.net/@russbaltman">Threads / [Bluesky]( https://bsky.app/profile/rbaltman.bsky.social">Bluesky / [Mastodon]( https://mastodon.social/@rbaltman">Mastodon Connect with School of Engineering >>>[Twitter/X]( https://twitter.com/stanfordENG">Twitter/X / [Instagram]( https://www.instagram.com/stanfordeng/">Instagram / [LinkedIn]( https://www.linkedin.com/school/stanford-university-school-of-engineering/posts/?feedView=all&viewAsMember=true">LinkedIn / [Facebook]( https://www.facebook.com/stanford.engineering/">Facebook Hosted by Simplecast, an AdsWizz company. See [pcm.adswizz.com]( https://pcm.adswizz.com">pcm.adswizz.com for information about our collection and use of personal data for advertising.