Shreya Satsangi
@shreyasatsangi.bsky.social
21
MSc (Quantum Tech), UIMP Spain
BSc (Physics), DEI India
I am an aspiring quantum physicist, and I have too many hobbies.
https://www.linkedin.com/in/shreya-satsangi7/
MSc (Quantum Tech), UIMP Spain
BSc (Physics), DEI India
I am an aspiring quantum physicist, and I have too many hobbies.
https://www.linkedin.com/in/shreya-satsangi7/
Reposted by Shreya Satsangi
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Don't just hear about the future—understand it. Join the global community.
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#Leadership #Quantum #Tech #Innovation
November 10, 2025 at 4:00 AM
🎁 BONUS: Use code SPECIAL30 to get 30% off your registration!
Don't just hear about the future—understand it. Join the global community.
Details & Registration: www.eventbrite.com/e/quantum-co...
#Leadership #Quantum #Tech #Innovation
Don't just hear about the future—understand it. Join the global community.
Details & Registration: www.eventbrite.com/e/quantum-co...
#Leadership #Quantum #Tech #Innovation
Thanks, Chris, for the insightful thought. For molecules, things might be different, and I found this paper: science.org/doi/10.1126/...
which seems to make some sense; I'm still reading tho.
which seems to make some sense; I'm still reading tho.
science.org
November 3, 2025 at 11:57 AM
Thanks, Chris, for the insightful thought. For molecules, things might be different, and I found this paper: science.org/doi/10.1126/...
which seems to make some sense; I'm still reading tho.
which seems to make some sense; I'm still reading tho.
@christopher-k-long.bsky.social can you please elaborate on how exactly we can find T1 using Fermi's Golden rule? Our system is a diradical molecule, so I think we can't apply what you have mentioned in stack.
October 30, 2025 at 4:54 AM
@christopher-k-long.bsky.social can you please elaborate on how exactly we can find T1 using Fermi's Golden rule? Our system is a diradical molecule, so I think we can't apply what you have mentioned in stack.
thanks, I'll look into it
October 26, 2025 at 6:52 AM
thanks, I'll look into it
This seems so cool prof!
October 25, 2025 at 8:46 AM
This seems so cool prof!
T1 is spin-lattice relaxation time, which is the time it takes for a qubit's spin to return to its ground state after being excited.
T2 is coherence time, which is the time a qubit can maintain a superposition state before collapsing.
T2 is coherence time, which is the time a qubit can maintain a superposition state before collapsing.
October 25, 2025 at 8:45 AM
T1 is spin-lattice relaxation time, which is the time it takes for a qubit's spin to return to its ground state after being excited.
T2 is coherence time, which is the time a qubit can maintain a superposition state before collapsing.
T2 is coherence time, which is the time a qubit can maintain a superposition state before collapsing.
computational chemistry NOT experiments
October 18, 2025 at 4:42 AM
computational chemistry NOT experiments
Don't suggest a PhD because that would be the last thing I would like to do at this point.
October 8, 2025 at 7:19 AM
Don't suggest a PhD because that would be the last thing I would like to do at this point.
Reposted by Shreya Satsangi
a sneak peek from the presentation~~
September 27, 2025 at 9:38 AM
a sneak peek from the presentation~~
a sneak peek from the presentation~~
September 27, 2025 at 9:38 AM
a sneak peek from the presentation~~