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Application of a Deep Learning System to Detect Papilledema on Nonmydriatic Ocular Fundus Photographs in an Emergency Department Publisher Pubmed



Biousse V1, 2, 39 ; Najjar RP6, 7, 8, 9, 33 ; Tang Z6, 33, 34 ; Lin MY1, 39 ; Wright DW3 ; Keadey MT3 ; Wong TY6, 7, 10, 33 ; Bruce BB1, 2, 5 ; Milea D6, 7, 33 ; Newman NJ1, 2, 4, 39 ; Fraser CL11 ; Micieli JA12 ; Costello F13 ; Benardseguin E13 Show All Authors
Authors
  1. Biousse V1, 2, 39
  2. Najjar RP6, 7, 8, 9, 33
  3. Tang Z6, 33, 34
  4. Lin MY1, 39
  5. Wright DW3
  6. Keadey MT3
  7. Wong TY6, 7, 10, 33
  8. Bruce BB1, 2, 5
  9. Milea D6, 7, 33
  10. Newman NJ1, 2, 4, 39
  11. Fraser CL11
  12. Micieli JA12
  13. Costello F13
  14. Benardseguin E13
  15. Yang H14
  16. Chan CKM15
  17. Cheung CY15
  18. Chan NC15
  19. Hamann S16
  20. Gohier P17
  21. Vautier A17
  22. Rougier MB18
  23. Chiquet C19
  24. Vignalclermont C20
  25. Hage R20
  26. Khanna RK20
  27. Tran THC21
  28. Lagreze WA22
  29. Jonas JB23
  30. Ambika S24
  31. Fard MA25
  32. La Morgia C26
  33. Carbonelli M26
  34. Barboni P26
  35. Carelli V26
  36. Romagnoli M26
  37. Amore G26
  38. Nakamura M27
  39. Fumio T27
  40. Petzold A28
  41. Wenniger Lj MDB28
  42. Kho R29
  43. Fonseca PL30
  44. Bikbov MM31
  45. Ting D32, 33, 34
  46. Loo JL32, 33, 34
  47. Tow S32, 33, 34
  48. Singhal S32, 33, 34
  49. Vasseneix C32, 33, 34
  50. Lamoureux E32, 33, 34
  51. Yu Chen C32, 33, 34
  52. Aung T32, 33, 34
  53. Schmetterer L32, 33, 34
  54. Sanda N35
  55. Thuman G35
  56. Hwang JM36
  57. Vanikieti K37
  58. Suwan Y37
  59. Padungkiatsagul T37
  60. Yuwaiman P38
  61. Jurkute N38
  62. Hong EH38
  63. Peragallo JH39
  64. Datillo M39
  65. Kedar S39
  66. Patil A39
  67. Aung A39
  68. Boyko M39
  69. Alsakran WA39
  70. Zayani A39
  71. Bouthour W39
  72. Banc A39
  73. Mosley R39
  74. Labella F39
  75. Miller NR40
  76. Chen JJ41
  77. Mejico LJ42, 43
  78. Kilangalanga JN44

Source: American Journal of Ophthalmology Published:2024


Abstract

Purpose: The Fundus photography vs Ophthalmoscopy Trial Outcomes in the Emergency Department (FOTO-ED) studies showed that ED providers poorly recognized funduscopic findings in patients in the ED. We tested a modified version of the Brain and Optic Nerve Study Artificial Intelligence (BONSAI) deep learning system on nonmydriatic fundus photographs from the FOTO-ED studies to determine if the deep learning system could have improved the detection of papilledema had it been available to ED providers as a real-time diagnostic aid. Design: Retrospective secondary analysis of a cohort of patients included in the FOTO-ED studies. Methods: The testing data set included 1608 photographs obtained from 828 patients in the FOTO-ED studies. Photographs were reclassified according to the optic disc classification system used by the deep learning system (“normal optic discs,” “papilledema,” and “other optic disc abnormalities”). The system's performance was evaluated by calculating the area under the receiver operating characteristic curve (AUC), sensitivity, and specificity using a 1-vs-rest strategy, with reference to expert neuro-ophthalmologists. Results: The BONSAI deep learning system successfully distinguished normal from abnormal optic discs (AUC 0.92 [95% confidence interval {CI} 0.90-0.93]; sensitivity 75.6% [73.7%-77.5%] and specificity 89.6% [86.3%-92.8%]), and papilledema from normal and others (AUC 0.97 [0.95-0.99]; sensitivity 84.0% [75.0%-92.6%] and specificity 98.9% [98.5%-99.4%]). Six patients with missed papilledema in 1 eye were correctly identified by the deep learning system as having papilledema in the other eye. Conclusions: The BONSAI deep learning system was able to reliably identify papilledema and normal optic discs on nonmydriatic photographs obtained in the FOTO-ED studies. Our deep learning system has excellent potential as a diagnostic aid in EDs and non-ophthalmology clinics equipped with nonmydriatic fundus cameras. © 2023 Elsevier Inc.
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