
Research group of Prof. Aaron Lindenberg @StanfordMSE & @SLAClab. We make atomic-scale movies of materials and devices in motion and in situ.
Stanford, CA
Joined July 2020
- Tweets53
- Following238
- Followers541
- Likes24
Lindenberg Ultrafast Group retweeted
A #battery’s hopping ions remember where they’ve been
Seen in atomic detail, the seemingly smooth flow of ions through a battery’s #electrolyte is a lot more complicated.
Read the news @SLAClab:
www6.slac.stanford.edu/news/…
Lindenberg Ultrafast Group retweeted
📢Happy to share our paper in @Nature: 'The persistence of memory in ionic conduction probed by nonlinear optics'.
Study led by @apoletayev at @OxfordMaterials @SLAClab in collaboration with @LindenbergLab at @StanfordMSE & @jad5888 at @ChemistryNCL
Link
nature.com/articles/s41586-0…
Lindenberg Ultrafast Group retweeted
Time-resolved measurements show that coupling between electrons and phonons in lead halide perovskites can mediate attractive interactions between excitons, although the interaction strength depends on the specific material.
go.nature.com/40CjjmU
Lindenberg Ultrafast Group retweeted
🔬 Visualizing ferroelectric domains at lightning speed and tiny scales? Using nanoprobe hard X-ray diffraction and X-ray diffuse scattering @advancedphoton, we've achieved 100 ps time and 25 nm spatial resolution imaging. Now out in Advanced Materials: onlinelibrary.wiley.com/doi/…
Lindenberg Ultrafast Group retweeted
How is energy dissipated when electrons hop across an interface? My postdoc work on visualizing #ultrafast heating with atomic precision in #2Dmaterials is now out in @NatureNano!
Paper: rdcu.be/c12DJ
@SLAClab @StanfordMSE @BerkeleyLab funded by @doescience (1/n)
Lindenberg Ultrafast Group retweeted
Quantum dots and #nanophotonics enable a new kind of CMOS-based #terahertz camera:
@NatureNano by Nelson & Bawendi teams @ChemistryMIT Bulović @MITEECS Peraire group @MITAeroAstro @LindenbergLab @Samsung @UMNCSE
nature.com/articles/s41565-0…
Lindenberg Ultrafast Group retweeted
Faculty search underway! We have a broad, open rank, search for the Photon Science Department at @SLAClab and @Stanford to drive research that makes use of our amazing science facilities - such as LCLS, SSRL, and more! Deadline 31 December. See: academicjobsonline.org/ajo?j…
Lindenberg Ultrafast Group retweeted
Read our latest work in @ScienceMagazine on creating active sites for methane activation in Pd catalysts! Wonderful science led by Weixin and collaboration with @StanfordMSE, @NIST, @UWMadCBE science.org/doi/full/10.1126…
Lindenberg Ultrafast Group retweeted
Grateful to be a part of this @SLAClab beamtime team with (L to R) @adusood @FelipedeQuesad1 @DuanL10 @PhilippMuscher @LindenbergLab and Xiaozhe! (and amazing optics from Patrick and Matthias)
Lindenberg Ultrafast Group retweeted
SLAC, @Stanford and @Stockholm_Uni researchers capture a 'quantum tug' between water molecules, shedding light on the web of hydrogen bonds that gives water some of its anomalous properties. stanford.io/3DcorlL
Lindenberg Ultrafast Group retweeted
Our perspective letter with @LindenbergLab on ultrafast electron diffraction measurements for gaining structural insights into dynamic energy conversion processes in solar energy materials is out @MRSBulletin
Link: doi.org/10.1557/s43577-021-0…
Lindenberg Ultrafast Group retweeted
What happens on an atomic scale at the very moment a material is shocked with an electrical pulse? Researchers @SLAClab + collaborators built an instrument to find out, and what they found sheds new light on the fundamental limits of electric switching.
ow.ly/lk6W50FLSv0
Lindenberg Ultrafast Group retweeted
Congrats to Philipp Muscher who led these crazy hard experiments. Imagine placing a micron-scale crystal at the center of a #synchrotron goniometer + pumping it with #ions by turning a knob. Loved being part of this effort #battchat #batterytwitter @SLAClab
Just published in Advanced Materials at onlinelibrary.wiley.com/doi/…: Read about new ways for achieving dynamic in-plane uniaxial strain in 2D materials via lithium intercalation. New crystallographic phase of WTe2 discovered in the process!
Lindenberg Ultrafast Group retweeted
Join @LindenbergLab's SLAC public lecture this evening! My colleague Jun Xiao and I will join as panelists for the live Q&A.
Don't miss tomorrow’s virtual #SLACPublicLecture at 5 pm PT! SLAC scientist Aaron Lindenberg will share how SLAC's X-rays can capture ultrafast atomic motions and how this works toward developing brain-inspired computers, followed by a live Q&A. stanford.io/3w6fm9p
Lindenberg Ultrafast Group retweeted
Delighted to share our new paper in @ScienceMagazine! For the first time, we have created stop-motion movies of atoms moving inside tiny #electronic devices on very fast timescales. (1/n)
Paper: tinyurl.com/wyntu42k
Press release: stanford.io/3koASnC
Lindenberg Ultrafast Group retweeted
#compchem #batterytwitter preprint: "Defect-driven Anomalous Transport in Fast-Ion Conducting Solid Electrolytes" with @SaifulChemistry, @jad5888, and @LindenbergLab. We discuss conductivity ↔️ memory ↔️ defects ↔️ processing in the classic β"/β-aluminas: arxiv.org/abs/2105.08761
Lindenberg Ultrafast Group retweeted
What do #batteries, #neuron-like #computers and the #Dreamliner have in common? Ans: Ion-driven functionality!
Our new @NatRevMater paper attempts to unify these fields: go.nature.com/3yz8FPj
Delighted to lead this perspective with colleagues @Stanford @MIT @SLAClab.
(1/n)
Lindenberg Ultrafast Group retweeted
How does #heat move through a disordered solid? In our new @NanoLetters paper led by @JamesKUtterback we find that “normal” diffusion laws are violated as heat navigates tortuous pathways. Lots of fun thinking about this! pubs.acs.org/doi/10.1021/acs…
My first postdoc paper is published in @NanoLetters! Big thanks to my excellent co-authors @adusood, Igor Coropceanu, @BGuzelturk, the @LindenbergLab and the Talapin group, and big thanks to @BeckmanFnd and the PTL-EFRC! pubs.acs.org/doi/10.1021/acs… #research #chemistry #published
Lindenberg Ultrafast Group retweeted
My latest for @PhysicsWorld reporting on an experiment from @SLAClab that could improve quantum dots in the future, making them semiconductors 2.0 for many light-based applications
Some quantum dots are much dimmer than others, and efforts to make them brighter often backfire. That creates headaches for device-makers and materials scientists alike – but thanks to the first direct measurements, we now know why it happens. ow.ly/CUui50ErRpT























