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EE 539: Applied Quantum Mechanics Spring 2014

Martin A. Gundersen, Claude Cohen‐Tannoudji, Bernard Diu, Franck Laloë

Published Jan 1, 2014• 14 citations
OpenAlex

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In a series of notes we examined a 2x2 matrix model which is naturally incorporated into Einstein´s 1905 energy momentum equation p2 + m2 = E2 (1). We showed that it was possible to obtain energy, velocity and momentum matrices, calculate expectation, dispersion values and establish exp(-iHt) as the time evolution operator. From this, we calculated zitterbewegung and the time dependence of other matrices. The purpose of this note is to see if this formalism, established for a relativistic model can also be applied to the nonrelativistic case. Several cases are considered. Next, we try to apply the model to the case of a classical spring, which is related to the production of phonons.In this case, we apply the mathematics of the model to the classical spring, not the model itself. It is found that one can obtain a velocity matrix and find an energy matrix with time evolution of exp(-iHt). Furthermore, it appears that time dependent operator calculations predict classical periodic motion with a period of sqrt(k/m), where k is the spring constant and m the mass.
This paper introduces the Entanglement Phase Spring (EPS), a theoretical framework proposing a fundamentally new understanding of quantum mechanics. The EPS posits that entangled quantum systems, when perturbed from their equilibrium states, exhibit an inherent tendency towards recovery, driven by an external force proportional to the phase difference between the entangled components. This concept, formulated mathematically as `F_E=-k_E\Delta\phi`, represents a novel interpretation of quantum forces and offers a potential pathway towards a more intuitive and experimentally accessible quantum theory. The EPS is conceptualized within an artificial quantum system framework, drawing parallels with classical spring-mass systems, and is presented as a potentially groundbreaking concept with significant implications for the future of quantum research and potentially deserving of consideration for Nobel Prize recognition. The core of the EPS lies in establishing a new "entanglement mechanics" that moves beyond the established interpretations of quantum entanglement.