论文标题
问题顺序效应,响应可复制性效果和QQ-equality与量子仪器的建模组合
Modeling combination of question order effect, response replicability effect, and QQ-equality with quantum instruments
论文作者
论文摘要
我们继续从量子测量理论(QMT)的角度分析人类决策的基本限制。正如已经发现的那样,基于投影的常规QMT无法解释问题顺序效应(QOE)和响应可复制性效应(RRE)的组合。对于决策制定的量子样建模,这是令人震惊的发现。最近,结果表明,可以通过基于量子仪器的一般QMT来解决此困难。在本文中,我们分析了QoE,RRE和著名QQ-EQUITY(QQE)的组合问题。这种平等是由Busemeyer和Wang得出的,并且在与Solloway和Shiffrin的一份联合报纸中表明,来自许多社会意见民意调查的统计数据满足了这一点。在这里,我们构建满足Qoe,RRE和QQE的量子仪器。我们方法的一般特征是正式的,假设(Wang-Busemeyer)假定的假设是对决策制定的量子样建模。此外,我们表明,我们的模型密切复制了众所周知的克林顿 - 戈尔 - 戈尔民意调查数据的统计数据,其先前的信念状态与问题顺序无关。该模型成功地纠正了数据中的顺序效应,以确定民意调查中观点的“真实”分布。本文还提供了量子仪器理论的访问介绍 - 量子测量的最通用数学框架。
We continue to analyze basic constraints on the human decision making from the viewpoint of quantum measurement theory (QMT). As it has been found, the conventional QMT based on the projection postulate cannot account for the combination of the question order effect (QOE) and the response replicability effect (RRE). This was alarming finding for quantum-like modeling of decision making. Recently, it was shown that this difficulty can be resolved by using of the general QMT based on quantum instruments. In the present paper we analyse the problem of the combination of QOE, RRE, and the well-known QQ-equality (QQE). This equality was derived by Busemeyer and Wang and it was shown (in a joint paper with Solloway and Shiffrin) that statistical data from many social opinion polls satisfy it. Here we construct quantum instruments satisfying QOE, RRE and QQE. The general features of our approach are formalized with postulates that generalize (the Wang-Busemeyer) postulates for quantum-like modeling of decision making. Moreover, we show that our model closely reproduces the statistics of the well-known Clinton-Gore Poll data with a prior belief state independent of the question order. This model successfully corrects for the order effect in the data to determine the "genuine" distribution of the opinions in the Poll. The paper also provides an accessible introduction to the theory of quantum instruments - the most general mathematical framework for quantum measurements.