From Missed Cases to Machine Insight: Evaluating AI for Intracranial Haemorrhage Diagnosis
Discover how intracranial haemorrhage detection can be enhanced with AI: a breakthrough in emergency neuroradiology.
Open MedScience undertakes structured editorial reviews across medical imaging, therapy and radiotheranostics, offering critical evaluation of published research to support clarity, credibility and clinical relevance. These reviews examine study design, methodology, statistical interpretation and reported outcomes, helping readers assess the strength and applicability of findings. In medical imaging, topics include MRI, CT and ultrasound, with analysis focused on diagnostic performance and translational value. Therapeutic reviews explore pharmaceutical, interventional and emerging biological approaches, particularly within oncology and neurology. In radiotheranostics, attention is given to integrated diagnostic and targeted treatment strategies. By identifying limitations, research gaps and future directions, Open MedScience strengthens professional understanding and supports evidence-informed practice across the imaging and therapeutic sciences.
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Discover how intracranial haemorrhage detection can be enhanced with AI: a breakthrough in emergency neuroradiology.
Discover the benefits of AI echocardiography mitral stenosis diagnosis, combined with advanced digital processing methods.
Uncover the role of AI intracranial haemorrhage detection in revolutionising emergency medicine and its clinical implications.
Understand the strengths and limitations of Congenital neuroblastoma PET in assessing rare childhood tumors in this critical study.
Stathopoulos et al. demonstrate that combining deep learning with MRI sequences significantly improves brain tumour detection, achieving up to 98.4% accuracy.
Deep learning-based SR-DLR significantly enhances coronary CT angiography image quality by improving spatial resolution and reducing noise in phantom studies.
Ultrafast Angio-PL.U.S. surpasses Colour Doppler in sensitivity for detecting subtle intramuscular blood flow disparities, particularly in upper limbs.
Machine learning with MRI radiomics offers promise for non-invasive lymphovascular invasion prediction in breast cancer, but limitations require further refinement.
Algorithmic shortcutting in medical imaging highlights critical risks where deep learning models exploit confounding variables, demanding rigorous oversight and robust validation frameworks.
The study critically evaluates 3D-to-2D knowledge distillation in neuroimaging classification, balancing volumetric insights with computational efficiency for real-world applications.
The study validates an AI-guided prognostic tool for early dementia detection, leveraging non-invasive clinical data, achieving generalisability across diverse, multicentre settings.
Advancing cancer diagnostics, the study evaluates Ga-68 FAPi-46 PET imaging’s potential to map FAP expression non-invasively in solid tumours.
The REAL-LU study highlights Lutetium-177 DOTATATE’s real-world effectiveness, safety, and quality-of-life impact in Italian patients with GEP-NETs.