In previous notes we discussed quantum mechanics as a statistical theory and also the idea of losing information i.e. exp(ik1 x) exp(ik2 x) = exp(i (k1+k2) x) for a product of free particle “probabilities” (1). In this note we wish to continue the investigation of the statistical behaviour of quantum bound states in terms of A= px - Et = classical action which treats x,t,p and E as independent variables. This leads to P(p) with no x information or P(x) with no p information and we argue is also responsible for features of entanglement in the quantum mechanic bound state which do not appear in classical statistical mechanics which retains pp/2m + V(x) = E for a single particle which is not colliding in an ideal gas
In information theory, ln(probability(i)) equals information. The approach of maximization of Shann...
In a previous note (1), we argued that quantum bound states may follow from a postulate regarding re...
Quantum mechanics is basically a mathematical recipe on how to construct physical models. Historical...
Classical mechanics is often concerned with the variables x and t, especially their relationship x(t...
In statistical mechanics it seems one has additive quantities (e.g. e=.5mvv) which when placed in th...
In a previous note (1), we tried to present a statistical view of quantum mechanics for a bound stat...
Historically, thermodynamics was formulated for macroscopic systems followed by the development of s...
Abstract: After reviewing a brief history of information, we show that information, the negative exp...
In classical statistical mechanics there exists the idea of maximum entropy subject to constraints w...
In this note, we try to develop bound state quantum mechanics directly from statistical arguments. T...
In Part I of this note, we argued that in classical statistical mechanics, the probability P(p), whe...
Quantum information theory is a branch of science at the frontier of physics, mathematics, and infor...
In previous notes, we argued one may formulate bound state quantum mechanics by assuming a stochasti...
Note (March 8, 2022) von Neumann's entropy may be written in Shannon's form for the eigenvalues of t...
The capabilities of a new approach towards the foundations of Statistical Mechanics are explored. Th...
In information theory, ln(probability(i)) equals information. The approach of maximization of Shann...
In a previous note (1), we argued that quantum bound states may follow from a postulate regarding re...
Quantum mechanics is basically a mathematical recipe on how to construct physical models. Historical...
Classical mechanics is often concerned with the variables x and t, especially their relationship x(t...
In statistical mechanics it seems one has additive quantities (e.g. e=.5mvv) which when placed in th...
In a previous note (1), we tried to present a statistical view of quantum mechanics for a bound stat...
Historically, thermodynamics was formulated for macroscopic systems followed by the development of s...
Abstract: After reviewing a brief history of information, we show that information, the negative exp...
In classical statistical mechanics there exists the idea of maximum entropy subject to constraints w...
In this note, we try to develop bound state quantum mechanics directly from statistical arguments. T...
In Part I of this note, we argued that in classical statistical mechanics, the probability P(p), whe...
Quantum information theory is a branch of science at the frontier of physics, mathematics, and infor...
In previous notes, we argued one may formulate bound state quantum mechanics by assuming a stochasti...
Note (March 8, 2022) von Neumann's entropy may be written in Shannon's form for the eigenvalues of t...
The capabilities of a new approach towards the foundations of Statistical Mechanics are explored. Th...
In information theory, ln(probability(i)) equals information. The approach of maximization of Shann...
In a previous note (1), we argued that quantum bound states may follow from a postulate regarding re...
Quantum mechanics is basically a mathematical recipe on how to construct physical models. Historical...