Fatih Gölgelioğlu, Aydoğan Aşkin, Mehmet Cihat Gündoğdu, Mehmet Fatih Uzun, Bige Kağan Dedetürk, Mustafa Yalın
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Evaluation metrics included accuracy and F1 score, and we developed the software in Python using the TensorFlow library for the CNN method. A computer scientist with AI expertise managed data processing and testing, calculating specificity, sensitivity, and accuracy to assess CNN performance. Results: In this study, a total of 282 AP and lateral X-rays from 141 patients were examined, encompassing 10 distinct knee prosthesis models from various manufacturers, each with varying X-ray counts. The CNN technique exhibited flawless accuracy, achieving a 100% identification rate for both the manufacturer and model of TKA across all 10 different models. Furthermore, the CNN method demonstrated exceptional specificity and sensitivity, consistently reaching 100% for each individual implant model. Conclusion: This study underscores the impressive capacity of deep learning AI algorithms to precisely identify knee arthroplasty implants from X-ray radiographs. It highlights AI’s ability to detect subtle changes imperceptible to humans, execute precise computations, and handle extensive data. The accurate recognition of knee replacement implants using AI algorithms prior to revision surgeries promises to enhance procedure efficiency and outcomes.","PeriodicalId":307693,"journal":{"name":"Anatolian Current Medical Journal","volume":"32 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2023-10-27","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Can artificial intelligence algorithms recognize knee arthroplasty implants from X-ray radiographs?\",\"authors\":\"Fatih Gölgelioğlu, Aydoğan Aşkin, Mehmet Cihat Gündoğdu, Mehmet Fatih Uzun, Bige Kağan Dedetürk, Mustafa Yalın\",\"doi\":\"10.38053/acmj.1356979\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Aims: This study aimed to investigate the use of a convolutional neural network (CNN) deep learning approach to accurately identify total knee arthroplasty (TKA) implants from X-ray radiographs. Methods: This retrospective study employed a deep learning CNN system to analyze pre-revision and post-operative knee X-rays from TKA patients. We excluded cases involving unicondylar and revision knee replacements, as well as low-quality or unavailable X-ray images and those with other implants. Ten cruciate-retaining TKA replacement models were assessed from various manufacturers. The training set comprised 69% of the data, with the remaining 31% in the test set, augmented due to limited images. Evaluation metrics included accuracy and F1 score, and we developed the software in Python using the TensorFlow library for the CNN method. A computer scientist with AI expertise managed data processing and testing, calculating specificity, sensitivity, and accuracy to assess CNN performance. Results: In this study, a total of 282 AP and lateral X-rays from 141 patients were examined, encompassing 10 distinct knee prosthesis models from various manufacturers, each with varying X-ray counts. The CNN technique exhibited flawless accuracy, achieving a 100% identification rate for both the manufacturer and model of TKA across all 10 different models. Furthermore, the CNN method demonstrated exceptional specificity and sensitivity, consistently reaching 100% for each individual implant model. Conclusion: This study underscores the impressive capacity of deep learning AI algorithms to precisely identify knee arthroplasty implants from X-ray radiographs. It highlights AI’s ability to detect subtle changes imperceptible to humans, execute precise computations, and handle extensive data. 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引用次数: 0
摘要
目的:本研究旨在调查卷积神经网络 (CNN) 深度学习方法的使用情况,以便从 X 光片中准确识别全膝关节置换术 (TKA) 植入物。 方法:这项回顾性研究采用深度学习 CNN 系统分析了 TKA 患者术前和术后的膝关节 X 光片。我们排除了涉及单髁膝关节置换术和翻修膝关节置换术的病例、低质量或无法获得的 X 光图像以及使用其他植入物的病例。我们评估了来自不同制造商的十种十字韧带固定 TKA 置换模型。训练集包括 69% 的数据,其余 31% 的数据为测试集,由于图像有限,测试集的数据有所增加。评估指标包括准确率和 F1 分数,我们使用 TensorFlow 库在 Python 中开发了用于 CNN 方法的软件。一位具有人工智能专业知识的计算机科学家负责管理数据处理和测试,计算特异性、灵敏度和准确性,以评估 CNN 的性能。 结果本研究共检查了 141 名患者的 282 张 AP 和侧位 X 光片,包括来自不同制造商的 10 种不同膝关节假体型号,每种型号的 X 光片数量各不相同。CNN 技术表现出完美无瑕的准确性,对所有 10 种不同型号的 TKA 制造商和型号的识别率均达到 100%。此外,CNN 方法还表现出卓越的特异性和灵敏度,对每种假体型号的识别率始终保持在 100%。 结论本研究强调了深度学习人工智能算法从 X 光片中精确识别膝关节置换植入物的惊人能力。它凸显了人工智能检测人类难以察觉的细微变化、执行精确计算和处理大量数据的能力。在翻修手术前使用人工智能算法准确识别膝关节置换植入物有望提高手术效率和效果。
Can artificial intelligence algorithms recognize knee arthroplasty implants from X-ray radiographs?
Aims: This study aimed to investigate the use of a convolutional neural network (CNN) deep learning approach to accurately identify total knee arthroplasty (TKA) implants from X-ray radiographs. Methods: This retrospective study employed a deep learning CNN system to analyze pre-revision and post-operative knee X-rays from TKA patients. We excluded cases involving unicondylar and revision knee replacements, as well as low-quality or unavailable X-ray images and those with other implants. Ten cruciate-retaining TKA replacement models were assessed from various manufacturers. The training set comprised 69% of the data, with the remaining 31% in the test set, augmented due to limited images. Evaluation metrics included accuracy and F1 score, and we developed the software in Python using the TensorFlow library for the CNN method. A computer scientist with AI expertise managed data processing and testing, calculating specificity, sensitivity, and accuracy to assess CNN performance. Results: In this study, a total of 282 AP and lateral X-rays from 141 patients were examined, encompassing 10 distinct knee prosthesis models from various manufacturers, each with varying X-ray counts. The CNN technique exhibited flawless accuracy, achieving a 100% identification rate for both the manufacturer and model of TKA across all 10 different models. Furthermore, the CNN method demonstrated exceptional specificity and sensitivity, consistently reaching 100% for each individual implant model. Conclusion: This study underscores the impressive capacity of deep learning AI algorithms to precisely identify knee arthroplasty implants from X-ray radiographs. It highlights AI’s ability to detect subtle changes imperceptible to humans, execute precise computations, and handle extensive data. The accurate recognition of knee replacement implants using AI algorithms prior to revision surgeries promises to enhance procedure efficiency and outcomes.