Spiking Neural Networks And Ai-Driven Vision Systems: The Future Of Ophthalmology?
Published 2025 - 43rd Congress of the ESCRS
Reference: PO794 | Type: Poster | DOI: 10.82333/1v4f-2n59
Authors: Soheil Adib-Moghaddam* 1 , Kourosh Sheibani 2 , Nader Nassiri 3 , Mohammad Mehrab Shaabairad 4 , Siamak Farkoush 5
1Founder, Universal Council of Ophthalmology (UCO),Tehran,Iran, Islamic Republic Of, 2Basir Eye Health Research Center, Iran University of Medical Sciences,Tehran,Iran, Islamic Republic Of, 3Imam Hossein Medical Center, Shahid Beheshti University of Medical Sciences,Tehran,Iran, Islamic Republic Of, 4Department of Computer Science, Kharazmi University ,Tehran,Iran, Islamic Republic Of, 5CEO at Hash-Tech GmbH,Tehran,Iran, Islamic Republic Of
Purpose
This abstract introduces an advanced vision system integrating spiking neural networks (SNNs) to enhance real-time corneal imaging, disease detection, and AI-assisted diagnostics. By mimicking the human visual system, this bioinspired approach offers unprecedented precision in ophthalmic imaging and analysis. It uses a spiking neural networks (SNNs) algorithm fine-tuned to power a robotic platform assisting elderly residents in nursing homes with tasks such as cleaning, feeding, and physiotherapy by leveraging its real-time, human-like environmental perception to revolutionize ophthalmic care.
Setting
Universal Council of Ophthalmology, Tehran, Iran.
Methods
We developed a novel imaging system combining advanced cameras, artificial intelligence, and computer vision to enable real-time environmental perception. The system recognizes and tracks ocular structures, assesses spatial dimensions, and interprets dynamic changes with precision comparable to human vision. To enhance its functionality, we fine-tuned these algorithms to drive a versatile robotic platform capable of real-time responses in complex caregiving environments. For ophthalmic applications, we further integrated SNNs to replicate the temporal dynamics of biological vision, facilitating robust analysis of corneal topography, biomechanical behavior, early disease detection, and adaptive stimulation in smart corneal implants.
Results
The AI-driven imaging system, augmented by SNNs, significantly improved the resolution, contrast, and temporal accuracy of corneal imaging. This advancement enables earlier and more precise detection of corneal pathologies, enhanced biomechanical analysis, and personalized vision restoration strategies. Additionally, the robotic platform's real-time vision capabilities highlight the system’s adaptability and its potential for future applications in multimodal imaging, wearable diagnostics, and augmented reality-assisted surgeries.
Conclusions
As artificial intelligence reshapes medical practice, ophthalmologists must be prepared to integrate AI-driven innovations into clinical workflows. This article presents a paradigm shift in corneal diagnostics and treatment, demonstrating how advanced vision systems, SNNs, and versatile robotic platforms can enhance precision, efficiency, and patient outcomes. The dual application of our technology—in both elderly care and ophthalmology—reinforces that AI is not merely an innovation but a necessity in modern healthcare.