Evolutionary Strategies AI Addresses Multiple Technical Challenges in Deep Learning Deployment: Proof-of-Principle Demonstration for Neuroblastoma Brain Metastasis Detection.

Two significant obstacles hinder the advancement of Radiology AI. The first is the challenge of overfitting, where small training data sets can result in unreliable outcomes. The second challenge is the need for more generalizability, the lack of which creates difficulties in implementing the techno...

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Publicado en:Journal of Digital Imaging Vol. 37; no. 6; pp. 2920 - 2931
Autores principales: Purkayastha, Subhanik, Shalu, Hrithwik, Gutman, David, Holodny, Andrei, Modak, Shakeel, Basu, Ellen, Kushner, Brian, Kramer, Kim, Haque, Sofia, Stember, Joseph N.
Formato: diagnostic images pictorial research tables/charts Journal Article
Publicado: Springer Nature Dec2024
Acceso en línea:Ver este registro en EBSCOhost
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        atl: Evolutionary Strategies AI Addresses Multiple Technical Challenges in Deep Learning Deployment: Proof-of-Principle Demonstration for Neuroblastoma Brain Metastasis Detection.
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        au:
          Purkayastha, Subhanik
          Shalu, Hrithwik
          Gutman, David
          Holodny, Andrei
          Modak, Shakeel
          Basu, Ellen
          Kushner, Brian
          Kramer, Kim
          Haque, Sofia
          Stember, Joseph N.
        affil: https://ror.org/02yrq0923 Department of Radiology, Memorial Sloan Kettering Cancer Center, 10065, New York, NY, USA
      sug:
        subj:
          Neuroblastoma Radiography
          Brain Neoplasms Radiography
          Neoplasm Metastasis Radiography
          Deep Learning
          Radiographic Image Interpretation, Computer-Assisted
          Human
          Retrospective Design
          Record Review
          Validation Studies
          Neural Networks (Computer)
          Picture Archiving and Communication Systems
          Magnetic Resonance Imaging
      ab: Two significant obstacles hinder the advancement of Radiology AI. The first is the challenge of overfitting, where small training data sets can result in unreliable outcomes. The second challenge is the need for more generalizability, the lack of which creates difficulties in implementing the technology across various institutions and practices. A recent innovation, deep neuroevolution (DNE), has been introduced to tackle the overfitting issue by training on small data sets and producing accurate predictions. However, the generalizability of DNE has yet to be proven. This paper strives to overcome this barrier by demonstrating that DNE can achieve satisfactory results in diverse external validation sets. The main innovation of the work is thus showing that DNE can generalize to varied outside data. Our example use case is predicting brain metastasis from neuroblastoma, emphasizing the importance of AI with limited data sets. Despite image collection and labeling advancements, rare diseases will always constrain data availability. We optimized a convolutional neural network (CNN) with DNE to demonstrate generalizability. We trained the CNN with 60 MRI images and tested it on a separate diverse collection of images from over 50 institutions. For comparison, we also trained with the more traditional stochastic gradient descent (SGD) method, with the two variants of (1) training from scratch and (2) transfer learning. Our results show that DNE demonstrates excellent generalizability with 97% accuracy on the heterogeneous testing set, while neither form of SGD could reach 60% accuracy. DNE's ability to generalize from small training sets to external and diverse testing sets suggests that it or similar approaches may play an integral role in improving the clinical performance of AI.
      pubtype: Academic Journal
      doctype:
        diagnostic images
        pictorial
        research
        tables/charts
        Journal Article
      ougenre: Article
    language: English
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