Undoubtedly, ours is a quantum world and it is getting more quantum with each passing day. The quantum nature of our world is firmly based on the transistor, the universal classical computer, the laser and its innumerable applications, the atomic clock, quantum chemistry, NMR, MRI, and numerous other quantum based medical technologies. And now we should add quantum cryptography, quantum teleportation, and quantum computing. These are all tangible utilitarian technologies that we already have at hand. Adding all the coming discoveries in quantum chemistry and quantum biology will certainly, and surely, seal the character of this world… as a quantum world.Undoubtedly, ours is a quantum world and it is getting more quantum with each passing day. The quantum nature of our world is firmly based on the transistor, the universal classical computer, the laser and its innumerable applications, the atomic clock, quantum chemistry, NMR, MRI, and numerous other quantum based medical technologies. And now we should add quantum cryptography, quantum teleportation, and quantum computing. These are all tangible utilitarian technologies that we already have at hand. Adding all the coming discoveries in quantum chemistry and quantum biology will certainly, and surely, seal the character of this world… as a quantum world.

CRC Press eBooksApr 10, 20260 citations

Ideas of Quantum Chemistry

Elsevier eBooksJan 1, 2007134 citations

Many-Worlds QM Tested by Quantum Chemistry: a New Kind of Reaction Rate

Frank J. Tipler

Quantum chemists have recorded a huge number of data points which standard quantum mechanics cannot interpret. Many-Worlds quantum mechanics can. Many-Worlds quantum mechanics differs from standard quantum mechanics because in Many-Worlds, the wave function is a relative density of universes in the multiverse amplitude rather than a probability amplitude. In Many-Worlds, the Born frequencies are approached rather than given a priori. Thus in Many-Worlds, the rate of approach to the final frequencies can be calculated and compared with observation. This is a new type of reaction rate. I show how to use Many-Worlds to analyze the breakup of ${\rm Br}_2$ . Such analysis will experimentally test Many-Worlds fermionic and time-dependent quantum mechanics. Conversely, experimental quantum chemistry has become too sophisticated to be analyzed by standard quantum mechanics. Only Many-Worlds can do the jobQuantum chemists have recorded a huge number of data points which standard quantum mechanics cannot interpret. Many-Worlds quantum mechanics can. Many-Worlds quantum mechanics differs from standard quantum mechanics because in Many-Worlds, the wave function is a relative density of universes in the multiverse amplitude rather than a probability amplitude. In Many-Worlds, the Born frequencies are approached rather than given a priori. Thus in Many-Worlds, the rate of approach to the final frequencies can be calculated and compared with observation. This is a new type of reaction rate. I show how to use Many-Worlds to analyze the breakup of ${\rm Br}_2$. Such analysis will experimentally test Many-Worlds fermionic and time-dependent quantum mechanics. Conversely, experimental quantum chemistry has become too sophisticated to be analyzed by standard quantum mechanics. Only Many-Worlds can do the job

Jul 18, 20211 citation

Ideas of Quantum Chemistry

Elsevier eBooksJan 1, 201425 citations

{\rm Br}_2

. Such analysis will experimentally test Many-Worlds fermionic and time-dependent quantum mechanics. Conversely, experimental quantum chemistry has become too sophisticated to be analyzed by standard quantum mechanics. Only Many-Worlds can do the job