Correspondence Between Richard Feynman and Former Student on Coherence Theory Research
By
jxmorris12
Solid neighbourhood-bakery energy. Trustworthy and warm.
Summary
The article discusses a correspondence between Richard Feynman and his former student, Koichi Mano, regarding Mano's current research on the Coherence theory and its applications to electromagnetic wave propagation through turbulent atmosphere.
Key quotes
· 2 pulledstudying the Coherence theory with some applications to the propagation of electromagnetic waves through turbulent atmosphere… a humble and down-to-earth type of problem.
I was very happy to hear from you, and that you have such a position in the Research Laboratories.
You might also wanna read

Researchers decipher Feynman's restaurant problem, prove optimal solution, and reveal human decision-making strategies
Researchers have deciphered and solved a decision-making problem originally posed by physicist Richard Feynman in handwritten notes from the
Quantum Crosstalk Noise Modeling Reveals Higher Error Rates in Fault-Tolerant Computing
Researchers at The University of Melbourne and Monash University have modeled coherent quantum crosstalk noise in quantum computers using hy
Quantum Jamming and Causality: The Search for Post-Quantum Cryptography
The article discusses how quantum computers pose a threat to current encryption methods, and how cryptographers are responding by developing
Rice University physicists propose quantum light method to retrieve entanglement from strange metals
Rice University physicists, led by Qimiao Si, have proposed a method using quantum light to retrieve quantum entanglement from quantum criti
Debate over Bohmian mechanics and its potential disproof continues among physicists
The article discusses the ongoing debate surrounding Bohmian mechanics (pilot-wave theory), a deterministic alternative to the standard Cope
Researchers discover method to control quantum effect that could enable battery-free electronics
Scientists from QUT and Nanyang Technological University have discovered a way to control the nonlinear Hall effect (NLHE), a quantum phenom
