论文标题
认识论计量学中光学相干断层扫描的批评
Critique of optical coherence tomography in epistemological metrology
论文作者
论文摘要
该条约旨在引入一个投机框架来理解现代计量学。从经典的意义上讲,测量值衡量物理上存在的数量,例如长度,质量和时间。相比之下,现代测量值测量了广泛的对象,例如,成像生物标志物是一种用户定义的模式。基于人工智能(基于AI)的诊断是另一个例子。如果我们将配备诊断AI的光学相干断层扫描(OCT)设备视为一种全面的“测量系统”,那么所测量的对象是一种“疾病”,这不是物理数量,而是概念。 为了理解广泛的现代测量,我们引入了一种投机性,即哲学和理论模型,称为“认识论 - 量学学模型”。在此模型中,我们将测量的行为描述为编码和描述过程的级联。在编码过程中,考虑了三种准对象,包括实质,存在和概念。然后,我们将测量的行为分别为“感应”,“理解”和“推理”,分别测量了实质,存在和概念。 我们注意到,理解和推理类中的测量是建设性的。也就是说,他们主动定义了测量方式本身对要确定的数量。提出了一种保证这种建设性测量相关性的推测方法。 我们使用我们的理论框架研究了几种现代OCT相关的测量,包括基于AI的诊断,极化敏感OCT的类型以及衰减系数成像。
This treaties aims to introduce a speculative framework to comprehend modern metrology. In a classical sense, measurement measures physically existing quantities, such as length, mass, and time. By contrast, modern measurement measures a wide spectrum of objects, for example, an imaging biomarker, which is a user-defined pattern. Artificial-intelligence (AI)-based diagnosis is another example. If we regard an optical coherence tomography (OCT) device equipped with diagnostic AI as a comprehensive "measurement system," the object being measured is a "disease," which is not a physical quantity but a concept. To comprehend the wide range of modern measurements, we introduce a speculative, i.e., philosophical and theoretical, model called the "epistemological-metrology model." In this model, we describe the act of measurement as cascading encoding-and-decoding processes. In the encoding processes, three types of objects-to-be measured are considered, which include substance, existence, and concept. Then we classify acts of measurement into "sensing," "understanding," and "reasoning," which measure the substance, existence, and concept, respectively. We note that the measurements in the understanding and reasoning classes are constructive. Namely, they proactively define the quantity-to-be-measured by the measurement modalities themselves. A speculative method to warrant the relevance of such constructive measurements is presented. We investigate several modern OCT-related measurements, including AI-based diagnosis, types of polarization sensitive OCT, and attenuation coefficient imaging, using our theoretical framework.