2026· Ageing and Cancer Research & Treatment· 0 citations
TL;DR
This review deconstructs the existing knowledge at the intersection of cancer neuroscience and aging biology, and proposes therapeutic strategies that target convergent aging mechanisms through senolysis, metabolic reprogramming, and neurotransmitter modulation may simultaneously achieve tumor control and preserve cognitive function.
Abstract
The rising incidence of age-related brain pathologies, including brain malignancy, underscores an urgent need to understand the mechanistic interplay between aging and tumorigenesis. Historically viewed as distinct entities, brain tumors and neurodegenerative disorders are now recognized to share key biological processes, such as cellular senescence, chronic inflammation, and metabolic dysregulation. In this review, we deconstruct the existing knowledge at the intersection of cancer neuroscience and aging biology, and propose that age-related alterations in neuronal function, such as the accumulation of senescent cells, ion channel dysregulation, and neurotransmitter imbalance, are not inert background features but as active mediators of tumor progression and treatment resistance. We summarize the aged neural microenvironment, marked by a proinflammatory senescence-associated secretory phenotype (SASP) and blood-brain barrier dysfunction, underlies a permissive soil for malignancy. Moreover, we highlight the emerging concept that tumors can induce a pathological aging phenotype in surrounding neurons, which in turn potentiates the observed cognitive deterioration. By framing brain tumors as products of a dysfunctional aging ecosystem, we propose therapeutic strategies that target convergent aging mechanisms through senolysis, metabolic reprogramming, and neurotransmitter modulation may simultaneously achieve tumor control and preserve cognitive function. This integrated perspective opens new avenues for repurposing neuroactive drugs and designing interventions that address the sophisticated biology of the aging brain and malignancy.
Cellular senescence during brain aging is a complex biological phenomenon triggered by age-related and external factors, leading to epigenetic and genetic alterations that impair cellular replication, cause mitochondrial dysfunction, and activate the senescence-associated secretory phenotype (SASP). This activation ini...
How cell type, inducing stressor, and experimental context shape senescence‐associated phenotypes across neural systems, including in vitro models, physiologically aged brains, and models of Alzheimer's and Parkinson's disease is examined.
Miraj Ud Din Momand, Kristina Macova, Dominika Fricova· Aging Cell· 0 citations
The fact that the population is getting older has greatly increased the occurrence of cognitive decline and neurodegenerative diseases, underlining the importance of having reliable biomarkers that can measure biological aging before irreversible neurological damage takes place. New evidence shows that brain aging is n...
Muskan Bhatia, S. Mishra, R. Mishra et al.· Biomedicines· 0 citations
This review critically evaluates the experimental, epidemiological, and mechanistic evidence linking early-life metabolic and environmental insults with the establishment of latent vulnerability and proposes that this status may remain clinically silent for decades until activated by aging and cumulative stressors, ult...
A. S. Vallés, Francisco J. Barrantes· Frontiers in Neurology· 0 citations
Brain aging and age-associated neurological diseases, such as Alzheimer's Disease (AD), Parkinson's Disease (PD), and Amyotrophic Lateral Sclerosis (ALS), are largely attributed to epigenetic drift which is characterized by the gradual accumulation of alterations in neural cell methylation patterns over time. These met...
Alkinoos A. Armoundas, C. Piperi· Mechanisms of Ageing and Dev...· 0 citations
The available evidence suggests that genetic aging is caused by a still-interacting series of processes, among which are genomic instability, telomere shortening, DNA damage accumulation, DNA damage accumulation, epigenomic dysregulation, mitochondrial dysfunction and changes in nutrient-sensing pathways.
G. M. Khalaf· Journal of Al-Turath Univers...· 0 citations
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