Slater PB
ISBER, University of California, Santa Barbara, California 93106-2150, USA.
Phys Rev E Stat Phys Plasmas Fluids Relat Interdiscip Topics. 2000 Jun;61(6 Pt A):6087-90. doi: 10.1103/physreve.61.6087.
For certain infinite and finite-dimensional thermal systems, we obtain-incorporating quantum-theoretic considerations into Bayesian thermostatistical investigations of Lavenda-high-temperature expansions over inverse temperature beta induced by volume elements (quantum Jeffreys' priors) of Bures metrics. Similarly to Lavenda's results based on volume elements (Jeffreys' priors) of (classical) Fisher information metrics, we find that in the limit beta-->0 the quantum-theoretic priors either conform to Jeffreys' rule for variables over [0,infinity], by being proportional to 1/beta, or to the Bayes-Laplace principle of insufficient reason, by being constant. Whether a system adheres to one rule or to the other appears to depend upon its number of degrees of freedom.
对于某些无限维和有限维热系统,我们将量子理论考量纳入拉文达的贝叶斯热统计研究中,得到了由布雷斯度量的体积元素(量子杰弗里斯先验)引起的逆温度β的高温展开。与基于(经典)费希尔信息度量的体积元素(杰弗里斯先验)的拉文达结果类似,我们发现,在β→0的极限情况下,量子理论先验要么与[0,∞]上变量的杰弗里斯规则一致,即与1/β成比例,要么与贝叶斯-拉普拉斯不足理由原则一致,即保持恒定。一个系统遵循这一规则还是另一规则似乎取决于其自由度的数量。