Thank you for the enriching tour of MPQ, Seeing such a rich optical bench awakens my innate curiosity and gives me motivation to follow a research career in the fluid of cold atoms - Atomic and molecular Optics.
Thank you for a very interesting video. It is amazing how you can trap a single atom! Also, as you mentioned quantum systems are always in a state of superposition and fragile, so it always amazes me to see that what you are doing is even possible! Exciting work indeed!
Thank you for the enriching tour of MPQ, Seeing such a rich optical bench awakens my innate curiosity and gives me motivation to follow a research career in the fluid of cold atoms - Atomic and molecular Optics.
Extremely easy to follow way to understand how Quantum Computers are build! Congratulations Pau and MPQ for the video.
Thank you for a very interesting video. It is amazing how you can trap a single atom! Also, as you mentioned quantum systems are always in a state of superposition and fragile, so it always amazes me to see that what you are doing is even possible! Exciting work indeed!
Thank you for this wonderful video. I wonder how a single atom is isolated and trapped, and how do you know that there's only one atom in the cavity.
Thanks for the fascinating tour and explanation!
A map for space travel! finally , so we will be developing travel and life in space before interfering with any planetary resources
Amazing presenter and very interesting work.
so this is for maybe chemical specific lasers that can be used for storage of resources rather than any actual quantum or Planck length research.
How long does it take to set up such a complicated optical system? And do you usually make big changes to the system?
input and output instructions for chemical sorting
So cool🔥
thinkpad is so popular for graduate students
physical traps rather than optical traps
Refrigeration , storage , and recycling