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RESEARCH PAPER ANALYSIS

Is neurofeedback A reliable therapy for managing Parkinson's Disease?

A PRISMA-guided systematic review found that while patients with idiopathic Parkinson's can learn to self-modulate neural signals via fMRI, EEG, or DBS neurofeedback, consistent improvements on validated clinical or behavioral outcomes are lacking due to small samples and methodological…

PMID42000588
JournalClinical neurophysiology : official journal of the International Federation of Clinical Neurophysiology
Publication Date2026-04-12
Ingested2026-04-28 08:58 PM
EXECUTIVE SUMMARY

What the AI sees

A PRISMA-guided systematic review found that while patients with idiopathic Parkinson's can learn to self-modulate neural signals via fMRI, EEG, or DBS neurofeedback, consistent improvements on validated clinical or behavioral outcomes are lacking due to small samples and methodological…

WHY IT MATTERS

Research significance

Indicates neurofeedback has mechanistic plausibility and translational potential but currently insufficient, underpowered clinical evidence—prioritizing larger, standardized trials and standardized effect-size reporting could determine its real therapeutic value for PD.

ABSTRACT

Source abstract

OBJECTIVE: Standard treatments for Parkinson's disease (PD) often lose effectiveness over time, motivating interest in complementary, non-pharmacological approaches. Neurofeedback, which trains patients to consciously modulate brain activity, has shown theoretical promise in PD; however, its clinical value remains uncertain. We conducted a PRISMA-guided systematic review to evaluate the current evidence. METHODS: We included studies of patients with idiopathic PD undergoing any form of neurofeedback training. Case studies were excluded to reduce intersubject variability. Sixteen studies met inclusion criteria; after methodological quality appraisal, twelve were retained for qualitative synthesis. RESULTS: Neurofeedback modalities included functional magnetic resonance imaging (n = 4), electroencephalography (n = 4), and deep brain stimulation (n = 4). Across modalities, patients generally learned to voluntarily modulate targeted neural signals. However, translation of neural self-regulation into improvement on validated clinical measures or task-specific behavioral outcomes was limited and inconsistent. Interpretation was constrained by small sample sizes and frequent absence of standardized effect size reporting, which weakens statistical robustness and complicates the distinction between true null effects and underpowered findings. CONCLUSIONS: While patients with PD can self-modulate brain activity, current evidence does not demonstrate consistent therapeutic benefit. SIGNIFICANCE: Despite a compelling mechanistic rationale, available data are insufficient to support neurofeedback as an effective treatment for PD.

SUPPORTING PAPER SET

32 more papers to review

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B, Biointerfaces 86.0 13 Neuroprotective roles of klotho: Molecular pathways and therapeutic implications for cognitive health in neurological and psychiatric diseases. Experimental physiology 84.0 14 Flavonoid Rutin Reduces Intestinal Inflammation in an Experimental Model of Parkinson's Disease. Neurotoxicity research 70.0 15 Nanostructured Lipid Carriers Enhance Brain Delivery and Antioxidant Efficacy of a Small-Molecule MAO B Inhibitor for Neurodegenerative Disease Therapy. Molecular pharmaceutics 78.0 16 Pathophysiological Role of the Gut Brain Axis in Parkinson's Disease: From Microbial Metabolites and Intestinal Permeability to Central Neuroinflammation. Current neurovascular research 86.0 17 Parkinson's Disease: From Metabolism to Genetics-A Comprehensive Review. Current issues in molecular biology 86.0 18 Navigating the cholesterol maze: Key insights on use of statins in neurodegenerative disorders. Neuroprotection (Chichester, England) 76.0 19 Integrative network pharmacology delineates dual GPCR and non-GPCR mechanisms of blended and individual Taikong Blue lavender and Pingyin rose essential oils in neurodegenerative and psychiatric disorders. Computers in biology and medicine 65.0 20 Models of neuroprotection in Parkinson's disease: Exploring cellular, molecular, and microenvironmental targets. Experimental neurology 78.0 21 Hyaluronic acid: emerging roles and biomaterial innovations in Alzheimer's and Parkinson's disease therapy. Frontiers in pharmacology 75.2 22 Molecular mechanisms underlying Parkinson's disease and role of phytochemicals, α-synuclein, sirtuins, and incretin mimetics in potential therapy. Frontiers in pharmacology 75.0 23 Lipid droplets in neurodegenerative diseases: pathological drivers and therapeutic vulnerabilities. Cell death discovery 82.0 24 Brain-gut-microbiota axis: a review on the bidirectional regulatory mechanisms between gut microbiota and brain and their disease interactions. Frontiers in microbiology 74.0 25 Long non-coding RNAs in neurodegenerative diseases - Molecular mechanisms, liquid biopsy biomarkers, and therapeutic targets: A review. Biomolecules & biomedicine 84.0 26 Neurosyphilis and Parkinsonism: Overlapping Pathophysiology and Emerging Therapeutic Insights. Current neurovascular research 76.0 27 Molecular biochemistry of soluble epoxide hydrolase in lipid mediator pathways and neuroinflammatory responses. The Journal of steroid biochemistry and molecular biology 82.0 28 Multifaceted role of CNPY2 beyond ER stress: Disease implications and therapeutic potential. Cell stress 83.3 29 Neuroprotective Role of Exercise-based Physiotherapy Combined with Pharmacological Agents in Parkinson's Disease. Central nervous system agents in medicinal chemistry 64.0 30 Distinct metabolomic and proteomic signatures in Parkinson's disease patients with REM sleep behavior disorder. Signal transduction and targeted therapy 84.0 31 HMGB1-mediated neuroinflammation: molecular mechanisms and emerging therapeutic approaches. Inflammopharmacology 78.0 32 Beyond acid-base dyshomeostasis: Dynamic instability of neuronal lysosomal pH as a pathogenic mechanism and therapeutic target in neurological diseases. Biochemical pharmacology 88.0
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