1IT Security Expert, Technology and Banking Industry, United Kingdom
2Senior Social Media Executive, Barchester Healthcare Ltd, United Kingdom
3Neurology Clinic, University First MHAT, Bulgaria
4Yordanka Filaretova Medical College, Medical University-Sofia, Bulgaria
*Corresponding author:Dimitar Maslarov, Neurology Clinic, University First MHAT, and Yordanka Filaretova Medical College, Medical University-Sofia, Bulgaria
Submission: May 20, 2026; Published: June 03, 2026
ISSN: 2689-2707Volume6 Issue 5
Background: Tele-neurodiagnostics has emerged as a transformative paradigm integrating telemedicine,
Artificial Intelligence (AI), robotics, digital biomarkers and portable diagnostic technologies into
neurological care. The rapid evolution of remote neurodiagnostic systems has accelerated particularly
in stroke medicine, where timely diagnosis and intervention remain critically associated with functional
outcomes and mortality reduction.
Objective: To systematically evaluate the clinical effectiveness, technological architecture and
implementation challenges of tele-neurodiagnostic systems in neurological disorders, with particular
emphasis on AI-assisted stroke diagnostics, robotic neurological assessment and digital neurovascular
monitoring.
Methods: A PRISMA-compliant systematic review was conducted using PubMed/MEDLINE, Scopus, Web
of Science and Cochrane Library databases. Studies published between January 2014 and March 2026
evaluating tele-neurodiagnostic interventions, AI-assisted neurological diagnostics, robotic assessment
systems and remote neurological monitoring were included. Randomized controlled trials, prospective
observational studies, multicenter cohort analyses and systematic reviews were eligible. Risk of bias was
assessed using Cochrane RoB 2, ROBINS-I and QUADAS-2 instruments.
Result: A total of 118 studies met inclusion criteria. Tele-neurodiagnostic systems demonstrated
substantial effectiveness in acute stroke triage, remote EEG interpretation, AI-assisted neuroimaging
analysis and wearable neurological monitoring. AI-based large vessel occlusion detection achieved
sensitivities between 82% and 96%, while tele-stroke systems reduced door-to-needle times by 18-
42 minutes. Portable neurodiagnostic devices improved access in rural and resource-limited settings.
Robotic neurological examination systems and digital biomarkers demonstrated increasing diagnostic
precision across stroke, Parkinson’s disease, epilepsy and neurodegenerative disorders. Integrated AIneurovascular
platforms improved triage efficiency, workflow automation and prediction of functional
outcomes.
Conclusion: Tele-neurodiagnostics represents a paradigm shift from episodic institution-based
neurology toward continuous, intelligent and distributed neurological care. Stroke medicine has emerged
as the leading field driving implementation of AI-assisted tele-neurology systems. Future directions
include multimodal AI integration, autonomous neurovascular triage, federated learning architectures,
digital twin modeling and large-scale validation of remote neurological diagnostics.
Keywords:Tele-neurodiagnostics; Stroke; Artificial intelligence; Tele-stroke; Digital neurology; Neuroimaging; Remote EEG; Robotics; Digital biomarkers; Wearable neurology; AI-assisted diagnostics; Portable neurodiagnostics
a Creative Commons Attribution 4.0 International License. Based on a work at www.crimsonpublishers.com.
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