Assistant Prof. @UniBo 🇮🇹, prior @TUM 🇩🇪, PhD @UoEdinburgh 🏴
Thanks again for the engagement! :)
p.s.: I take advantage of this post to tell you as a former coordination chemist that I really enjoyed your study on the 21 e- Co species!
Thanks again for the engagement! :)
p.s.: I take advantage of this post to tell you as a former coordination chemist that I really enjoyed your study on the 21 e- Co species!
photoisomerisation (i.e. no thermal equilibrium) and form diastereomeric intermediates upon substrate coordination.
In the end it all comes down to finding diastereomeric intermediates with markedly different photophysical parameters (easier said than done), but in theory it could work.
photoisomerisation (i.e. no thermal equilibrium) and form diastereomeric intermediates upon substrate coordination.
In the end it all comes down to finding diastereomeric intermediates with markedly different photophysical parameters (easier said than done), but in theory it could work.
Hi Satoshi, thanks for your interest in our work!
Incorporating chiral diazene photoswitches/motors in ligand systems is definitely one of our future goals.
Ideally, what I see as a viabile option would be having photo-axially chiral catalysts that can interconvert just through
Hi Satoshi, thanks for your interest in our work!
Incorporating chiral diazene photoswitches/motors in ligand systems is definitely one of our future goals.
Ideally, what I see as a viabile option would be having photo-axially chiral catalysts that can interconvert just through
#molecularmachines #photomotors
#backandforth
#molecularmachines #photomotors
#backandforth