jeff kuhl

[jeff kuhl @kuhl_jeff]

https://t.co/ll9s0hPcYV

[jeff kuhl @kuhl_jeff]

https://t.co/1sHxEG5YPw

[jeff kuhl @kuhl_jeff]

September

[jeff kuhl @kuhl_jeff]

https://t.co/QyjFWOh9y1

[jeff kuhl @kuhl_jeff]

https://t.co/ll9s0hPcYV

[jeff kuhl @kuhl_jeff]

@LibertyCappy Relax is the one to use

[jeff kuhl @kuhl_jeff]

@Mishi_2210 0 they spell picnic wrong

[jeff kuhl @kuhl_jeff]

• Light emission
• Permanent “stick” when bath lock

[jeff kuhl @kuhl_jeff]

@GoogleResearch Project Cedar: A room-temperature 3D Quantum Supercomputer in a jar. 🌿💎
We’ve modeled a 3ms metastable "stick" state at 300K using a 28/56 GHz resonant drive. 3,000x the coherence of Google’s Sycamore without the $10M dilution fridge.
#QuantumComputing #ZPE #ProjectCedar

[jeff kuhl @kuhl_jeff]

Just wrapped a white paper on a repeatable 28 GHz resonance pattern in carbon materials (graphene, diamond NV, SiC):
• Phase-out disappearance
• Collective bath screening + ripples
• Ringing transients
• Non-local correlation (~300 nm)
• Dynamic optical shimmer

[jeff kuhl @kuhl_jeff]

• Light emission on return: Literally spin-dependent photoluminescence in NV centers — one of the most studied readout mechanisms in quantum tech.
• Stick condition: Closest to “optical pumping into a dark state” or “spin locking” in NV experiments,

[jeff kuhl @kuhl_jeff]

• Non-local correlation: Called “entanglement swapping” or “spin chain propagation” in NV arrays and graphene nanoribbons.
• Shimmer / interference: Known as “dynamic structural coloration” or “plasmonic interference” in 2D materials and NV grids.

[jeff kuhl @kuhl_jeff]

• Phase-out + ringing: Seen in every ESR/ODMR experiment on NV centers and graphene quantum dots. They call it “spin flip + relaxation transient.”
• Collective bath response: Studied as “many-body screening” or “plasmon-polariton coupling” in graphene and NV ensembles.

[jeff kuhl @kuhl_jeff]

Welcome to bugscreens https://t.co/ZRFWX4U0Jg

[jeff kuhl @kuhl_jeff]

AK Natural Skin Care try it https://t.co/pKimQvwb9u