With extensive expertise in drug development and medical affairs, Dr. Tania Small serves as head of the Medical Affairs organization and Senior Vice President at BMS. Her role encompasses overseeing the comprehensive medical strategy to develop and bring BMS' medicines to market. This includes driving early and late-stage medical evidence generation across all therapeutic areas, enhancing scientific and medical communication, managing access strategies, and fostering scientific engagement and partnerships. Her goal is to profoundly impact patient lives and influence the healthcare landscape. Prior to her current role, Dr. Small served as Global Head of Hematology and Oncology Medical Affairs and Vice President at GSK. Her career spans leadership roles in biotech and pharmaceutical firms of varying sizes, specializing in drug development for rare diseases, benign and malignant hematology, oncology, and radiopharmaceuticals. Her extensive background in basic and clinical research covers oncology, hematology, and stem cell transplants. Dr. Small is also dedicated to advancing diversity, equity, and inclusion initiatives, which have resulted in high-performing teams under her guidance. Throughout her career, she has been recognized with prestigious awards such as the Tigerlily Maverick Award, Philadelphia Business Journal’s Diversity in Business Award, PharmaVoice’s Disrupters Award, and the Women of Color in Pharma Trailblazer Award. She has also received accolades including a teaching award for fellows and a genetics research fellowship award. As a pediatric hematologist/ oncologist, Dr. Tania Small did both residency and fellowship at New York Presbyterian, Columbia University and earned her medical degree with distinction in hematology from the Albert Einstein College of Medicine.
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Severe Mental Health: Advances in Diagnosis, Biomarkers, and AI

Introduction
Severe mental health conditions—including schizophrenia, various forms of dementia, and psychosis—present profound challenges for patients, caregivers, and clinicians alike. Far from being “invisible,” these disorders involve measurable changes in brain function and structure. Over the past year, new discoveries have illuminated the biology of these conditions and accelerated the development of more precise, personalized interventions. From sophisticated imaging techniques to AI-driven diagnostics, this article explores the latest breakthroughs that are transforming our understanding of severe mental illness.
Neuroimaging Advances in Schizophrenia, Dementia, and Psychosis
Modern neuroimaging technologies are offering unprecedented glimpses into the living brain. High-resolution MRI and advanced functional MRI (fMRI) have revealed not only anatomical abnormalities but also functional disruptions in brain networks that underlie symptoms like hallucinations or delusions. Notably, integrated PET-MRI scans can map both structural changes and molecular pathologies—such as amyloid or tau proteins in dementia—in a single session. Novel PET tracers target inflammation, dopamine receptors, or other key molecules, enabling more accurate diagnoses and a refined approach to monitoring disease progression.
One recent fMRI study confirmed longstanding theories about psychosis, highlighting two core brain networks involved in filtering out irrelevant information and predicting rewards. When these networks malfunction, patients struggle to parse reality—leading to hallucinations, delusions, or both. In dementia research, combined PET-MRI protocols can detect molecular and structural changes early, paving the way for interventions before cognitive decline becomes severe.
Emerging Biomarkers for Early Detection and Precision Treatment
Beyond imaging, advances in biomarker research are driving forward a new era of “precision psychiatry.” Blood-based tests for psychosis and dementia are among the most exciting developments. In schizophrenia, for instance, a cutting-edge panel of biomarkers was shown to predict psychotic episodes and guide medication choices. Meanwhile, Alzheimer’s and related dementias can be detected by measuring phosphorylated tau (p-tau217) and other proteins in the blood or cerebrospinal fluid, enabling earlier intervention.
These biomarker discoveries allow clinicians to move past “one-size-fits-all” treatment approaches. By identifying distinct biological subtypes of conditions like schizophrenia or Alzheimer’s, healthcare providers can tailor therapies, monitor progress, and optimize outcomes, all while minimizing the trial-and-error currently associated with psychiatric care.
Gene Therapy and Genetic Insights in Severe Mental Illness
Recent large-scale genomic studies have pinpointed rare but powerful gene mutations that sharply increase the risk of disorders such as schizophrenia. While translating these insights into therapies is no small feat, CRISPR gene-editing technology has begun to make inroads in preclinical work. Scientists are testing ways to correct disease-causing gene variants or regulate gene expression, moving beyond symptom management to potentially address root causes.
Similarly, certain dementias are now understood to be driven by known genetic mutations. Early-stage gene-silencing therapies, including antisense oligonucleotides, are being tested in clinical trials for Huntington’s disease and familial Alzheimer’s, showing promise for future applications in broader neurodegenerative and psychiatric conditions. Although gene-based treatments for schizophrenia or psychosis are not yet in clinical settings, these breakthroughs indicate a future where targeted interventions may revolutionize the management of severe mental illness.
AI-Driven Diagnostics and Personalized Care
Artificial intelligence (AI) has emerged as a powerful ally in both research and clinical practice. Machine-learning algorithms can sift through complex neuroimaging data, identifying subtle patterns that predict psychosis onset or differentiate between multiple psychiatric disorders. Graph-based AI models have distinguished brain connectivity signatures specific to schizophrenia, major depression, and autism, hinting at the nuanced biological underpinnings of each condition.
Beyond imaging, AI-driven platforms also analyze electronic health records and genomic data to provide clinical decision support. By synthesizing large amounts of patient information, these algorithms can forecast disease trajectories, recommend personalized treatments, and even detect early warning signs. As these technologies move from research labs to real-world clinical settings, they hold the promise of more predictive, proactive, and precise mental healthcare.
Conclusion
The past year has seen remarkable strides in our quest to understand and treat severe mental health disorders. Advances in neuroimaging are making the brain’s hidden workings more visible than ever, while biomarker research is paving the way for early detection and tailored therapy. Gene-editing approaches may one day tackle the genetic foundations of these complex conditions, and AI-driven diagnostics are already shaping the future of personalized care.
Yet, scientific progress must go hand in hand with empathy. Patients living with schizophrenia, dementia, or psychosis face not only biological challenges but also social stigma and emotional burdens. By combining cutting-edge research with compassionate care, we can move closer to a world where severe mental illness is neither invisible nor inevitable, but a treatable and ultimately preventable facet of human health.
References:
Schizophrenia Bulletin, 2024: fMRI disruptions in psychosis
Alzheimer’s Association International Conference, 2023: Tau PET imaging updates
Molecular Psychiatry, 2024: CRISPR-based gene therapy for psychiatric disorders
Lancet Digital Health, 2024: AI-driven diagnostics and personalized mental health care
eBioMedicine, 2023: Biomarker panels for schizophrenia and Alzheimer’s
Disclaimer: This article is for informational purposes only. It does not replace professional medical advice, diagnosis, or treatment. Please consult qualified healthcare providers for individualized medical support.
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