Information theory is built on probability measures and by definition a probability measure has total mass 1. Probability measures are used to model uncertainty, and one may ask how important it is that the total mass is one. We claim that the main reason to normalize measures is that probability measures are related to codes via Kraft's inequality. Using a minimum description length approach to statistics we will demonstrate with that measures that are not normalized require a new interpretation that we will call the Poisson interpretation. With the Poisson interpretation many problems can be simplified. The focus will shift from from probabilities to mean values. We give examples of improvements of test procedures, improved inequalities, simplified algorithms, new projection results, and improvements in our description of quantum systems.
翻译:依据概率计量法,根据定义,概率计量法具有整体质量。1. 概率计量法用于模拟不确定性,人们可能会问,总体质量有多重要。我们声称,标准化计量法的主要理由是概率计量法与克拉夫特不平等的代码相关。我们用最低描述长度统计法来证明,未实现正常化的计量法需要一种新的解释,我们称之为普瓦松解释法。随着波瓦松解释法的诠释,许多问题可以简化。重点将从概率转向中值。我们举例说明了测试程序的改进、不平等的改善、简化算法、新的预测结果以及量子系统描述的改进。