Neuropathy and neural plasticity in the subcutaneous white adipose depot.
Magdalena BlaszkiewicziD, Jake W. WillowsiD, Amanda L. Dubois, Stephen Waible, Kristen DiBello, Lila L. LyonsiD, Cory P. JohnsoniD, Emma Paradie, Nicholas BanksiD, Katherine J. MotyliD, Merilla Michael, Benjamin HarrisoniD, Kristy L. TownsendiD
Abstract
The difficulty in obtaining as well as maintaining weight loss, together with the loss of metabolic control in conditions like diabetes and cardiovascular disease, may represent pathological situations of inadequate neural communication between the brain and peripheral organs and tissues. Innervation of adipose tissues by peripheral nerves provides a means of communication between the master metabolic regulator in the brain (chiefly the hypothalamus), and energy-expending and energy-storing cells in the body (primarily adipocytes). Although chemical and surgical denervation studies have clearly demonstrated how crucial adipose tissue neural innervation is for maintaining proper metabolic health, we have uncovered that adipose tissue becomes neuropathic in various conditions of metabolic dysregulation. Here, utilizing both human and mouse adipose tissues, we present evidence of adipose tissue neuropathy, or loss of innervation, under pathophysiological conditions such as obesity, diabetes, and aging, all of which are concomitant with insult to the adipose organ and metabolic dysfunction. Neuropathy is indicated by loss of nerve fiber protein expression, reduction in synaptic markers, and less neurotrophic factor expression in adipose tissue. Aging-related adipose neuropathy particularly results in loss of innervation around the tissue vasculature. These findings underscore that peripheral neuropathy is not restricted to classic tissues like the skin of distal extremities, and that loss of innervation to adipose may trigger or exacerbate metabolic diseases. In addition, we have demonstrated stimulation of adipose tissue neural plasticity with exercise, cold exposure or neurotrophic factor treatment, which may ameliorate adipose neuropathy and be a potential therapeutic option to re-innervate adipose and restore metabolic health.
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 87
- FWCI
- 5.48
- Field percentile
- top 3%
- Organism
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- The Presence of Myelinated Nerves and Schwann Cells in White Adipose Tissue: Proximity to Synaptic Vesicle Containing Nerve Terminals and Potential Role in BTBR ob/ob Demyelinating Diabetic Neuropathy
Jake W. Willows, Gilian Gunsch, … Kristy L. Townsend·bioRxiv·Aug 25, 2022
- The involvement of neuroimmune cells in adipose innervation
Magdalena Blaszkiewicz, Elizabeth Wood, … Kristy L. Townsend·Molecular MedicinePeer-reviewed·Dec 1, 2020
- Noradrenaline and ATP regulate white adipocyte adiponectin exocytosis: disturbed adrenergic and purinergic signalling in obesity-associated diabetes.
S. Musovic, A. M. Komai, … C. S. Olofsson·bioRxiv·Aug 19, 2021
- Adipocyte metabolic state regulates glial phagocytic function
Mroj Alassaf, Aditi Madan, … Akhila Rajan·Cell ReportsPeer-reviewed·May 1, 2025
- Adipose Tissue Overexpression of Nicotinamide Phosphoribosyltransferase Prevents Metabolic Dysfunction in Obese Mice
Daniel Ferguson, Elise I. Gadson, … Sandip Kumar Mukherjee·bioRxiv·Sep 30, 2025
- Adipocyte Pten Inhibition Improves Metabolic Health Associated with Expanded Lipid Storage Capacity and Reduced Inflammation
Yumei Zhou, Yubo Wang, … Feng Yue·bioRxiv·Jun 25, 2026