Excited to see that my blender artwork made it to the cover of @ACSPublications - Applied Materials & Interfaces (out today)! More here: https://t.co/c4C3lG9wNh
#sciart#b3d#nanotechnology
Beyond excited! I'll be a Momentum Marie Skłodowska Curie Action fellow starting in January '26, working on moiré superlattices with rhombohedral graphite in the group of @peternemes at the KFKI @ek_cer_hu in Budapest 🔬⚛️
https://t.co/rv766EyYRz
It's been a while, but I'm back on YouTube! 👋
Restarting things with a tutorial on 3D visualisations of atomic force microscopy data in Blender.
🔗https://t.co/47MYktpmkJ
#b3d#sciart#sciviz
🪙 Congratulations to David Baker, Demis Hassabis, and John M. Jumper for winning the #NobelPrize in Chemistry!
As a former scientist working in biocatalysis, it’s fascinating to me how protein design & prediction have evolved so rapidly in recent years. So well deserved!
New publication in Elsevier's Ultramicroscopy (open access) out this week - Fourier transform technique to correct for the drift in STM/AFM images.
https://t.co/6tSVhK2lH3
@xuanfuzi_001 I'm not aware of such nanostructures, sorry. I don't think there is an obvious answer. What is the nature of the bonds between the successive atomic planes? You could look into performing LAMMPS simulations, should provide some insight.
@19megaman I don't intend to publish how-to videos, sorry. If you're familiar with python I encourage to dig into the scripting options in blender. Use loops while reading your trajectory files and spawn spheres at atom positions.