Neurodegeneration

From Proteinopathy to Neuronal Dysfunction — Decoding the Molecular Mechanisms Driving Neurodegenerative Disorders

Neurodegenerative diseases arise from interconnected disturbances in protein homeostasis, mitochondrial function, neuroimmune regulation, synaptic integrity, and cellular stress responses, ultimately contributing to neuronal dysfunction and progressive neuronal loss.

Disruption of brain developmental programs or the balance between neuronal populations can contribute to neurodevelopmental and neurodegenerative disorders. We provide validated antibody solutions for comprehensive profiling of neurodegenerative disease mechanisms—from pathological protein aggregation and proteostasis failure to neuronal degeneration, synaptic dysfunction, neuroinflammation, and cellular stress.

Integrated molecular and spatial profiling enables researchers to connect pathological hallmarks with cellular states and functional consequences across disease initiation, progression, and therapeutic response.

Neurodegenerative Disease Research Portfolio

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Alzheimer’s Disease Molecular Research Workflow

From Pathological Hallmarks to Cellular Mechanisms

Alzheimer’s disease involves interconnected alterations in protein homeostasis, mitochondrial function, cellular aging, neuroimmune signaling, synaptic integrity, and neuronal survival. Integrated antibody profiling enables researchers to connect pathological hallmarks with molecular mechanisms and cellular consequences across multiple biological scales.

01 | Proteostasis Dysfunction

Decipher Protein Quality Control and Clearance Failure

Key Biological Processes

Neuronal function depends on tightly regulated protein homeostasis. Disruption of protein folding, trafficking, autophagy–lysosome pathways, or ubiquitin–proteasome-mediated degradation can promote pathological protein accumulation and proteotoxic stress, contributing to synaptic dysfunction and neuronal vulnerability.

Integrated profiling of proteinopathy and protein quality-control pathways enables investigation of how impaired proteostasis contributes to neurodegenerative disease progression.

Representative Targets

02 | Mitochondrial Stress

Defining Mitochondrial Quality Control, Bioenergetics & Oxidative Stress

Key Biological Processes

Neurons have exceptionally high energetic demands and depend on robust mitochondrial function to maintain membrane potential, synaptic activity, and cellular survival. Mitochondrial dysfunction can impair oxidative phosphorylation, increase oxidative stress, and disrupt mitochondrial quality-control pathways, including mitophagy and biogenesis.

Profiling mitochondrial integrity, bioenergetic pathways, oxidative stress, and quality-control mechanisms provides insight into their contribution to synaptic dysfunction and neurodegeneration.

Representative Targets

03 | Cellular Aging

Decoding Senescence, DNA Damage & Inflammatory Remodeling

Research Focus

Key Biological Processes

Accumulation of DNA damage and persistent stress responses can promote cellular senescence and senescence-associated secretory phenotypes (SASP), reshaping the neural microenvironment through chronic inflammatory signaling. These changes may contribute to glial dysfunction, synaptic impairment, vascular alterations, and neuronal vulnerability during aging and neurodegenerative disease.

Representative Targets

Integrated Alzheimer’s Disease Research Panel

Multi-Dimensional Profiling of Pathology, Cell States & Neural Dysfunction

Neuronal Proteostasis & Protein Clearance（Human Glioma FFPE）

This panel enables simultaneous spatial profiling of protein aggregation and autophagy–lysosomal pathways in human glioma tissue, supporting research on neurodegenerative disease mechanisms and pathological protein clearance.