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AI and Digital Pathology

Mike McNamara
Mike McNamara

Technology has transformed the healthcare industry. Discover how AI can improve digital pathology and accelerate patient diagnosis.Artificial intelligence (AI) has been slower to take off in the field of pathology than in other areas of medicine. Other than in research settings, the road to fully digitized clinical pathology departments incorporating whole slide imaging (WSI), convolutional neural networks (CNNs), and cost-effective, high-performance computing and data storage is a work in progress. The technology is still emerging and evolving, best practices surrounding AI vary, and data issues can create roadblocks.

However, progress is being made. The digitization trend in pathology is accelerating. Productivity gains, as well as new insights into the detection of cancer and other abnormalities, are helping to increase overall enthusiasm for digitization.

When an organization is ready to make the leap to digitize their pathology slides and workflows, there are many available solutions to improve outcomes. One is the capability for telepathology, to distribute and centralize workloads dynamically as needed. Another solution is computational pathology, with many proven machine learning approaches that are improving the accuracy and automation of slide analysis. Also,  CNNs are an advanced way to build decision-making workflows in digital pathology.

Although pathologists are the only ones who can make a cancer diagnosis, CNNs help increase the accuracy and efficiency of a diagnosis. And they help doctors identify benign or normal tissue more quickly, which can reduce the need for human intervention. To support CNNs in practice, organizations need a variety of hardware, software, and infrastructure, and the advances have been rapid.

Advances in the computational power and memory bandwidth of GPUs are continually reducing the compute-related bottlenecks of computational pathology. If data access needs are not met, storage can become a bottleneck, and compute nodes might starve for input data without being able to use resources to their full potential.

To support such high-performance I/O requirements, organizations can use BeeGFS, a parallel HPC file system. NetApp® E-Series storage with BeeGFS gives you consistent, near-real-time access to your data. To prevent bottlenecks and to support continuous high-performance workloads like AI, BeeGFS transparently spreads data across multiple servers and their back-end storage. And in addition to being open source, BeeGFS comes with graphical administration and monitoring, unlike complex legacy open-source parallel file systems.

To see how high-performance and low-latency NetApp E-Series storage systems facilitate WSI analysis with Apache Spark and BeeGFS, you can find the setup instructions and code used for this demonstration on GitHub.

The generation of high-resolution digital images and the intricate, complex patterns required for disease recognition provides important opportunities to apply AI in pathology for better patient outcomes. To learn about NetApp AI in healthcare, see Unlock the potential of AI in healthcare.

Mike McNamara

Mike McNamara

Mike McNamara 是 NetApp 產品和解決方案行銷的資深主管,在資料管理和雲端儲存行銷領域擁有超過 25 年的豐富經驗。在十年前加入 NetApp 之前,Mike 曾任職於 Adaptec、Dell EMC 和 HPE 等公司。Mike 是推出第一方雲端儲存產品和業界第一款雲端連線 AI/ML 解決方案 (NetApp)、統一化橫向擴充和混合雲儲存系統與軟體 (NetApp)、iSCSI 和 SAS 儲存系統與軟體 (Adaptec),以及光纖通道儲存系統 (EMC CLARiiON) 的重要團隊領導者。此外他曾經擔任「光纖通道產業協會 (Fibre Channel Industry Association,FCIA)」的行銷主席,也是乙太網路技術高峰會議顧問委員會、乙太網路聯盟的成員,現在仍定期為業界期刊撰稿,並經常擔任活動講師。Mike 還透過 FriesenPress 出版了一本名為《橫向擴充儲存設備 - 企業資料管理的未來樣貌》的書籍,並被 Kapos 列為值得關注的 50 名 B2B 產品行銷人員。查看 Mike McNamara 的所有文章

後續步驟

Improving Digital Pathology with AI | NetApp Blog