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Artificial intelligence is the key driver for digital pathology adoption<\/h1>Featured Articles<\/a>, Editors' Picks<\/a> <\/span><\/span><\/header>\n<\/div><\/section>
\nby Dr Mustafa Yousif, Dr David S. McClintock and Dr Keluo Yao<\/em><\/p>\n
Artificial intelligence (AI) has the potential to optimize anatomic pathology (AP) laboratory efficiency, enhance pathologists\u2019 diagnostic skills, elevate case reimbursement and, ultimately, improve patient care. To realize this potential, AP laboratories must overcome the barriers to adopting digital pathology (DP) while DP vendors concurrently embrace whole slide imaging system standardization, interoperability and integration with AI platforms. We describe here how AI will drive DP adoption and overall add value to the practice of pathology.<\/strong><\/p>\n
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Introduction to artificial intelligence and digital pathology<\/h3>\nArtificial intelligence (AI) is defined as creating machines that think the way humans think, i.e. they can understand the world, make predictions, choose appropriate actions and perform judgmental processes associated with human intelligence [1]. Although this definition of strong\/general AI lends itself well to science fiction, which often seems to progress to machines achieving intelligence far surpassing that of humans (super AI) and ultimately deciding to destroy the human race, the truth of AI\u2019s current use in the world is fortunately much simpler. Instead of strong or super AI, the machine learning (ML) algorithms driving AI today are collectively known as weak, or narrow AI. They are focused algorithms designed to answer specific questions or solve distinct problems and are applied to narrowly defined subject domains, such as virtual assistants, predicting traffic patterns, self-driving cars, clinical decision support, etc.<\/p>\n
As mentioned above, ML algorithms form the underpinnings of modern AI \u2013 they minimize the manual input necessary to program an AI construct. In general, ML is a collection of different technological approaches allowing computers to solve problems without explicitly being programmed to learn and improve automatically through experience [2]. Although there are almost a hundred different ML methods available, the primary ML subdivisions most pertinent to pathology are shown in Figure 1 [3]. Of note, pathology is no stranger to AI, with many non-ML-based AI image analysis algorithms widely deployed in both anatomic and clinical pathology before the popularization of ML [4, 5]. However, it is only recently, with the advent of high-throughput digital pathology (DP), that AI has truly gained ground in anatomic pathology (AP) [6].<\/p>\n
DP is best described as the tools and systems required to digitize pathology slides and other related pathology images, including not only the image data, but also all associated metadata, storage, analysis and enabling infrastructures [7]. Currently, DP is typically equated with whole slide imaging (WSI), with many groups using the terms interchangeably. Over the past 20 years, as technological and regulatory barriers have diminished, WSI has moved beyond its initial education and research use cases and has found significant clinical roles with primary diagnosis, secondary diagnosis (2nd opinions\/consults), intraoperative consultation, multidisciplinary conferences, telepathology and telecytology.<\/p>\n<\/div><\/section>
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by Dr Mustafa Yousif, Dr David S. McClintock and Dr Keluo Yao<\/em><\/p>\n
Artificial intelligence (AI) has the potential to optimize anatomic pathology (AP) laboratory efficiency, enhance pathologists\u2019 diagnostic skills, elevate case reimbursement and, ultimately, improve patient care. To realize this potential, AP laboratories must overcome the barriers to adopting digital pathology (DP) while DP vendors concurrently embrace whole slide imaging system standardization, interoperability and integration with AI platforms. We describe here how AI will drive DP adoption and overall add value to the practice of pathology.<\/strong><\/p>\n
<\/p>\n
Introduction to artificial intelligence and digital pathology<\/h3>\nArtificial intelligence (AI) is defined as creating machines that think the way humans think, i.e. they can understand the world, make predictions, choose appropriate actions and perform judgmental processes associated with human intelligence [1]. Although this definition of strong\/general AI lends itself well to science fiction, which often seems to progress to machines achieving intelligence far surpassing that of humans (super AI) and ultimately deciding to destroy the human race, the truth of AI\u2019s current use in the world is fortunately much simpler. Instead of strong or super AI, the machine learning (ML) algorithms driving AI today are collectively known as weak, or narrow AI. They are focused algorithms designed to answer specific questions or solve distinct problems and are applied to narrowly defined subject domains, such as virtual assistants, predicting traffic patterns, self-driving cars, clinical decision support, etc.<\/p>\n
As mentioned above, ML algorithms form the underpinnings of modern AI \u2013 they minimize the manual input necessary to program an AI construct. In general, ML is a collection of different technological approaches allowing computers to solve problems without explicitly being programmed to learn and improve automatically through experience [2]. Although there are almost a hundred different ML methods available, the primary ML subdivisions most pertinent to pathology are shown in Figure 1 [3]. Of note, pathology is no stranger to AI, with many non-ML-based AI image analysis algorithms widely deployed in both anatomic and clinical pathology before the popularization of ML [4, 5]. However, it is only recently, with the advent of high-throughput digital pathology (DP), that AI has truly gained ground in anatomic pathology (AP) [6].<\/p>\n
DP is best described as the tools and systems required to digitize pathology slides and other related pathology images, including not only the image data, but also all associated metadata, storage, analysis and enabling infrastructures [7]. Currently, DP is typically equated with whole slide imaging (WSI), with many groups using the terms interchangeably. Over the past 20 years, as technological and regulatory barriers have diminished, WSI has moved beyond its initial education and research use cases and has found significant clinical roles with primary diagnosis, secondary diagnosis (2nd opinions\/consults), intraoperative consultation, multidisciplinary conferences, telepathology and telecytology.<\/p>\n<\/div><\/section>
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