Casal-Guisande Manuel, Álvarez-Pazó Antía, Cerqueiro-Pequeño Jorge, Bouza-Rodríguez José-Benito, Peláez-Lourido Gustavo, Comesaña-Campos Alberto
Department of Design in Engineering, University of Vigo, 36208 Vigo, Spain.
Design, Expert Systems and Artificial Intelligent Solutions Group (DESAINS), Galicia Sur Health Research Institute (IIS Galicia Sur), SERGAS-UVIGO, 36213 Vigo, Spain.
Cancers (Basel). 2023 Mar 10;15(6):1711. doi: 10.3390/cancers15061711.
Breast cancer is the most frequently diagnosed tumor pathology on a global scale, being the leading cause of mortality in women. In light of this problem, screening programs have been implemented on the population at risk in the form of mammograms, starting in the 20th century. This has considerably reduced the associated deaths, as well as improved the prognosis of the patients who suffer from this disease. In spite of this, the evaluation of mammograms is not without certain variability and depends, to a large extent, on the experience and training of the medical team carrying out the assessment. With the aim of supporting the evaluation process of mammogram images and improving the diagnosis process, this work presents the design, development and proof of concept of a novel intelligent clinical decision support system, grounded on two predictive approaches that work concurrently. The first of them applies a series of expert systems based on fuzzy inferential engines, geared towards the treatment of the characteristics associated with the main findings present in mammograms. This allows the determination of a series of risk indicators, the , related to the risk of developing breast cancer according to the different findings. The second one implements a classification machine learning algorithm, which using data related to mammography findings as well as general patient information determines another metric, the , also linked to the risk of developing breast cancer. These risk indicators are then combined, resulting in a new indicator, the . This could then be corrected using a weighting factor according to the BI-RADS category, allocated to each patient by the medical team in charge. Thus, the is obtained, which after interpretation can be used to establish the patient's status as well as generate personalized recommendations. The proof of concept and software implementation of the system were carried out using a data set with 130 patients from a database from the School of Medicine and Public Health of the University of Wisconsin-Madison. The results obtained were encouraging, highlighting the potential use of the application, albeit pending intensive clinical validation in real environments. Moreover, its possible integration in hospital computer systems is expected to improve diagnostic processes as well as patient prognosis.
乳腺癌是全球范围内最常被诊断出的肿瘤病理类型,是女性死亡的主要原因。鉴于这一问题,自20世纪起,针对高危人群实施了以乳房X光检查形式的筛查项目。这大大减少了相关死亡人数,并改善了患此病患者的预后。尽管如此,乳房X光检查的评估并非没有一定的变异性,并且在很大程度上取决于进行评估的医疗团队的经验和培训。为了支持乳房X光图像的评估过程并改善诊断过程,本研究提出了一种新型智能临床决策支持系统的设计、开发和概念验证,该系统基于两种并行运行的预测方法。第一种方法应用了一系列基于模糊推理引擎的专家系统,用于处理与乳房X光检查中主要发现相关的特征。这使得能够确定一系列风险指标,这些指标与根据不同发现患乳腺癌的风险相关。第二种方法实施了一种分类机器学习算法,该算法使用与乳房X光检查结果以及患者一般信息相关的数据来确定另一个指标,该指标也与患乳腺癌的风险相关。然后将这些风险指标进行组合,得出一个新的指标。然后可以根据负责的医疗团队为每位患者分配的BI-RADS类别,使用加权因子对该指标进行校正。由此获得校正后的指标,经解释后可用于确定患者的状况并生成个性化建议。该系统的概念验证和软件实现是使用来自威斯康星大学麦迪逊分校医学院和公共卫生学院数据库的130名患者的数据集进行的。获得的结果令人鼓舞,突出了该应用的潜在用途,尽管在实际环境中还需要进行深入的临床验证。此外,预计其在医院计算机系统中的可能集成将改善诊断过程以及患者预后。