Lew Lab @ WashU
@Lew_Lab
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Playing with #singlemolecules, bending light, and algorithms to see really small things. Led by Matthew Lew, Associate Professor @WashUESE @WashUengineers
St Louis, MO
Joined October 2015
Very happy to share this news of my election to become an #OpticaFellow. I'm grateful to my many students and mentors over the years. Happy Thanksgiving!
Meet the new #OpticaFellows! The Optica Board of Directors is pleased to announce that 121 members from 23 countries have been elected as Fellows for their outstanding contributions and service to Optica and the community. Find the full class: https://t.co/eFFa5yjRdk
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How do discoveries in the lab become lifesaving treatments? This updated infographic provides a big-picture view of the R&D pipeline, illustrating the public-private sector continuum from discovery to delivery. It visualizes just how much innovation depends on collaboration
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"A new polarized dual-view inverted selective-plane illumination microscope (pol-diSPIM), coupled with engineering insights provided by its imaging model, offers an exciting way forward." My commentary is online in PNAS
pnas.org
Painting rich six-dimensional pictures using polarized fluorescence microscopy
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Differential interactions determine anisotropies at interfaces of RNA-based biomolecular condensates:
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Experiments confirm the prediction that fluid-like biomolecular condensates are defined by spatially inhomogeneous organization of the underlying molecules. https://t.co/SZ41R6OEmc
nature.com
Nature Physics - Experiments confirm the prediction that fluid-like biomolecular condensates are defined by spatially inhomogeneous organization of the underlying molecules.
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nature.com
Nature Physics - Experiments confirm the prediction that fluid-like biomolecular condensates are defined by spatially inhomogeneous organization of the underlying molecules.
A team of #WashUEngineers researchers has developed a new method to study biomolecular condensates — tiny, shifting blobs in our cells that help organize important molecules. Learn more. {link} https://t.co/DvM8oDHodb
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Matthew Lew of @WashUESE & grad student Yiyang Chen developed a new method to improve precision in molecular imaging. Their technique boosts accuracy, with potential to transform studies in protein interactions & more. #WashUEngineers
https://t.co/dAKbDzsWXD
engineering.washu.edu
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This semesters Biophysical Evening seminar will be given by Matthew Lew, Professor in Electrical & Systems Engineering at WashU "Single-Molecule Orientation-Localization Microscopy: New Challenges and Biophysical Insights" Thurs, March 20th 4-5 PM, Connor Auditorium
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Out today from the Lee lab @SteveTheChemist In the POLCAM paper, they make polarization cameras compatible with single-molecule detection for instant molecular orientation microscopy. https://t.co/b9XUHa5a2M
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News coverage of our JPC article https://t.co/hTi7GXHqj0 "Wobbly molecules get a closer look" https://t.co/UlZtRTauVW via @WashUengineers @shawncballard
engineering.washu.edu
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We made the cover! Check out Weiyan's work exploring the "Fundamental Limits in Measuring the Anisotropic #RotationalDiffusion of #SingleMolecules" in @JPhysChem
https://t.co/YECkl8vsYV
@WashUESE @WashUengineers
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Brian's study on using the #binding #orientations of Nile blue to decipher the architectures of growing, decaying, and remodeling #amyloid #fibrils is now online in @NanoLetters ! #singlemolecule @WashUESE @WashUengineers
https://t.co/uyXgei98zc
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Congratulations Dr. O! @wuimgsci_stuco @WashUengineers
Congratulations to Joseph O’Sullivan, the Samuel C. Sachs Professor of Electrical Engineering! He was among 12 faculty and staff awarded at the 25th Annual Outstanding Faculty and Staff Awards. Read more here: https://t.co/AGf6ihddBf
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Our work with @JaiRudra4 is online here
pubs.acs.org
Synthetic peptides that self-assemble into cross-β fibrils are versatile building blocks for engineered biomaterials due to their modularity and biocompatibility, but their structural and morpholog...
Matthew Lew & Jai Rudra's teamwork brings forth a new imaging method. Their technique highlights interlocking peptides, crucial in identifying toxic strains in Alzheimer’s. #WashUEngineers #Imaging @WashUBME @WashUESE
https://t.co/WKCWT9mF3j
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Resharing our recent cover article on imaging the architecture of peptide assemblies using #singlemolecule #orientation imaging!
From the cover of our new issue: Researchers led by @Lew_Lab & @WashUengineers show the nanostructure of β-Sheet #peptide self-assemblies using Nile red (NR) & single-molecule orientation–localization microscopy (SMOLM). Read more 👉 https://t.co/2xCrps78gn
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Excited to share Weiyan's work with @JaiRudra4 on using #singlemolecule orientation-localization microscopy to visualize these helical assemblies! @WashUESE @WashUengineers
pubs.acs.org
Synthetic peptides that self-assemble into cross-β fibrils are versatile building blocks for engineered biomaterials due to their modularity and biocompatibility, but their structural and morpholog...
Thanks to a wonderful collaboration with Matt Lew @Lew_Lab helping us visualize polymorphisms in amyloid-inspired peptide assemblies using Single Molecule Orientation-Localization Microscopy.
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Happy to see @Tingting_Wu_'s review chapter on 6D dipole-spread function engineering now online https://t.co/4kF2BXJtC9
@WashUengineers @WashUESE A big thanks to @JinyangLiang for putting such a great volume together! https://t.co/ejJY2Dg6am
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Our work has made the inside cover! Check out "#singlemolecule #electrochemical imaging resolves the midpoint potentials of individual fluorophores..." in the latest issue of @ChemicalScience! https://t.co/XfH5Ty89fs
@WashUengineers @WashUESE
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Congratulations to Prof. Jin Lu, now at the National Center for Nanoscience, whose work on single-molecule electrochemical imaging is now online in @ChemicalScience! #MyFirstChemSci
https://t.co/lw1Oc0eK12
Single-Molecule Electrochemical Imaging Resolves the Midpoint Potentials of Individual Fluorophores on Nanoporous Antimony-Doped Tin Oxide
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