Application of Quantum Mechanics to cells

Background: The healing mechanism of highly diluted homoeopathic medicines (DHM) is not yet very clear. Objectives: Our objective is to apply the concepts of entropy, information, and quantum mechanical principle of entanglement to find a model for explaining the healing mechanism of DHM. Methodology: All living or non-living things are composed of dynamic microscopic quantum particles (electrons, protons, ions, etc.) which follow the basic properties of quantum mechanics such as quantum entanglement, superposition of quantum states and coherent interaction among these particles. The continuous change of thermodynamic entropies of the dynamic living cells leads to information change for cellular communication and to keep the cells living. It is assumed that the quantum particles associated with the medicine molecules are quantum mechanically entangled. Similar particles associated with the dynamic living cells are also quantum mechanically entangled. The entangled states of the particles associated with the medicinal molecules (ASMM) coherently interact with the corresponding entangled states of the quantum particles associated with the disease cells (AESDC). ‘Quantum swapping’ – a quantum mechanical technique, the entangled systems (states) may interact and produce a new entangled system (state). Results: The said interaction of ASMM and AESDC causes decoherence or breaking of relatively smaller number of AESDC states. This decoherence means no entropy change among the diseased cells. This means death of the disease cell leading to the cure of the disease. Conclusion: The quantum entangled states of the medicinal molecule itself carry the curative signatures of the medicine molecules and cure the disease.Background: The healing mechanism of highly diluted homoeopathic medicines (DHM) is not yet very clear. Objectives: Our objective is to apply the concepts of entropy, information, and quantum mechanical principle of entanglement to find a model for explaining the healing mechanism of DHM. Methodology: All living or non-living things are composed of dynamic microscopic quantum particles (electrons, protons, ions, etc.) which follow the basic properties of quantum mechanics such as quantum entanglement, superposition of quantum states and coherent interaction among these particles. The continuous change of thermodynamic entropies of the dynamic living cells leads to information change for cellular communication and to keep the cells living. It is assumed that the quantum particles associated with the medicine molecules are quantum mechanically entangled. Similar particles associated with the dynamic living cells are also quantum mechanically entangled. The entangled states of the particles associated with the medicinal molecules (ASMM) coherently interact with the corresponding entangled states of the quantum particles associated with the disease cells (AESDC). ‘Quantum swapping’ – a quantum mechanical technique, the entangled systems (states) may interact and produce a new entangled system (state). Results: The said interaction of ASMM and AESDC causes decoherence or breaking of relatively smaller number of AESDC states. This decoherence means no entropy change among the diseased cells. This means death of the disease cell leading to the cure of the disease. Conclusion: The quantum entangled states of the medicinal molecule itself carry the curative signatures of the medicine molecules and cure the disease.

Indian Journal of Research in HomoeopathyMar 28, 20252 citations

Quantum limit of hybrid atom-mechanical gyroscope based on electro-magnetically induced transparency

Sankar Davuluri, Yong Li

Application of hybrid atom-mechanical oscillator for absolute rotation detection is studied. The hybrid atom-mechanical oscillator consists of an atomic cell, filled with three level atoms, which is fixed on a mechanical oscillator. The atom-mechanical oscillator is placed on a rotating table such that the Coriolis force moves the atomic cell with respect to the incoming laser field. Thus the atomic resonance frequencies are Doppler shifted, and the phase of the laser field interacting with the atomic medium changes. Absolute rotation parameters are estimated by measuring the phase change in the laser field at the output of the atomic cell. Large dispersion is created in the atomic medium, using electromagnetically induced transparency, to enhance the phase change in the laser field interacting with the atomic medium. Contribution of the shot noise, the atomic noise and the noise due to the mechanical oscillation of the atomic cell are studied. We show that, under certain conditions, noise due to the mechanical oscillation of the atomic cell is on the same order of magnitude as the shot noise. The quantum limit of detectable rotation rate is estimated as $8.1\times10^{-19}$ \,rad/s.Application of hybrid atom-mechanical oscillator for absolute rotation detection is studied. The hybrid atom-mechanical oscillator consists of an atomic cell, filled with three level atoms, which is fixed on a mechanical oscillator. The atom-mechanical oscillator is placed on a rotating table such that the Coriolis force moves the atomic cell with respect to the incoming laser field. Thus the atomic resonance frequencies are Doppler shifted, and the phase of the laser field interacting with the atomic medium changes. Absolute rotation parameters are estimated by measuring the phase change in the laser field at the output of the atomic cell. Large dispersion is created in the atomic medium, using electromagnetically induced transparency, to enhance the phase change in the laser field interacting with the atomic medium. Contribution of the shot noise, the atomic noise and the noise due to the mechanical oscillation of the atomic cell are studied. We show that, under certain conditions, noise due to the mechanical oscillation of the atomic cell is on the same order of magnitude as the shot noise. The quantum limit of detectable rotation rate is estimated as $8.1\times10^{-19}$\,rad/s.

arXiv:1711.07247Nov 20, 20170 citations

8.1\times10^{-19}

\,rad/s.