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The Role of Artificial Intelligence-Powered Imaging in Cerebrovascular Accident Detection
Natasha Hastings1, Dany Samuel2, Aariz N Ansari3
1School of Medicine, St. George's University School of Medicine, St. George's, GRD.
Insights
Artificial intelligence (AI) in neuroimaging speeds up diagnosis for cerebrovascular accidents (CVAs), improving patient outcomes. Overcoming implementation barriers is key to making AI-assisted CVA diagnosis standard practice.
Area of Science:
- Neurology
- Medical Imaging
- Artificial Intelligence
Background:
- Cerebrovascular accidents (CVAs) cause sudden, severe disabilities due to blocked blood flow to the brain, leading to ischemia and tissue damage.
- Timely diagnosis and treatment are critical for improving prognosis in CVA patients.
- Traditional neuroimaging analysis is time-consuming, potentially delaying crucial treatment.
Purpose of the Study:
- To review the advancements in AI-powered neuroimaging for CVA diagnosis.
- To compare AI-assisted techniques with traditional imaging methods.
- To identify and suggest solutions for barriers hindering AI adoption in clinical practice.
Main Methods:
- Review of recent studies on AI-assisted neuroimaging accuracy and efficiency in CVA diagnosis.
- Analysis of challenges in implementing AI technologies in healthcare settings.
- Discussion of data standardization, harmonization, and AI explainability requirements.
Main Results:
- AI-assisted neuroimaging demonstrates increased accuracy and processing speed compared to traditional methods.
- Significant barriers, including a steep learning curve and implementation challenges, impede widespread AI adoption.
- Data standardization and transparency in AI algorithms are crucial for physician trust and effective integration.
Conclusions:
- AI holds significant potential to revolutionize CVA diagnosis and improve patient care by reducing diagnosis-to-treatment times.
- Addressing challenges related to data, standardization, explainability, and resource allocation is essential for integrating AI into routine CVA diagnostics.
- Further development and investment are needed to establish AI-assisted neuroimaging as a standard practice.
Abstract:
Cerebrovascular accidents (CVAs) often occur suddenly and abruptly, leaving patients with long-lasting disabilities that place a huge emotional and economic burden on everyone involved. CVAs result when emboli or thrombi travel to the brain and impede blood flow; the subsequent lack of oxygen supply leads to ischemia and eventually tissue infarction. The most important factor determining the prognosis of CVA patients is time, specifically the time from the onset of disease to treatment. Artificial intelligence (AI)-assisted neuroimaging alleviates the time constraints of analysis faced using traditional diagnostic imaging modalities, thus shortening the time from diagnosis to treatment. Numerous recent studies support the increased accuracy and processing capabilities of AI-assisted imaging modalities. However, the learning curve is steep, and huge barriers still exist preventing a full-scale implementation of this technology. Thus, the potential for AI to revolutionize medicine and healthcare delivery demands attention. This paper aims to elucidate the progress of AI-powered imaging in CVA diagnosis while considering traditional imaging techniques and suggesting methods to overcome adoption barriers in the hope that AI-assisted neuroimaging will be considered normal practice in the near future. There are multiple modalities for AI neuroimaging, all of which require collecting sufficient data to establish inclusive, accurate, and uniform detection platforms. Future efforts must focus on developing methods for data harmonization and standardization. Furthermore, transparency in the explainability of these technologies needs to be established to facilitate trust between physicians and AI-powered technology. This necessitates considerable resources, both financial and expertise wise which are not available everywhere.
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