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Table 3 List of representative neurodegeneration-associated genes and cancer

From: The associations between Parkinson’s disease and cancer: the plot thickens

Gene/Protein

Biological functions

Changes in neurodegeneration

Implicated cancers

SNCA/Alpha-synuclein

synaptic vesicle and dopamine release [174, 175]; excitatory transmission [176]; endoplasmic reticulum-Golgi transport [177]

major constituent of Lewy bodies; impaired neurite growth and long-term potentiation [178]; increased synaptic transmission and endoplasmic reticulum stress [177]; increased gliosis [179]; increased mitophagy [180]

adenocarcinoma, lung [181]; colorectal [182]; brain [183]; melanoma [184]; prostate [185]; non-Hodgkin lymphomas [51]

PARK8/LRRK2

synaptic vesicle release [186]; autophagy [187]; neurite growth and differentiation [188]; cell death signaling [189]; mitochondrial regulation [190, 191]; cytoskeletal structure maintenance [192]

increased tau phosphorylation [193]; mitochondrial and autophagic dysfunction [194]; decreased neurite outgrowth and abnormal neurogenesis [195]

breast, prostate [96, 97]; renal, thyroid [102]

PARK2/Parkin

synaptic transmission and dopamine release [196]; ubiquitination and protein degradation [197]; mitochondrial maintenance [198]; tumor suppressor [199]

mitophagy, mitochondrial transport and morphology defects [200]; dysfunctional UPS [60]; buildup of cyclin E and β-catenin, upregulation of Wnt and EGFR-AKT pathways [61, 73]

cervical, lung, colorectal, gastric, melanoma, endometrioid [70]; glioma [73]

PARK6/PINK1

serine/threonine kinase in mitochondria; mitochondrial fusion/fission regulation [201]; mitochondrial damage sensor, mitophagy and autophagic control [198]; cell cycle regulation [146]; synaptic plasticity and dopamine release [202]

increased tau phosphorylation [203]; mitochondrial dysfunction, fragmentation [204]; increased mitophagy [205]; impaired synaptic plasticity [202]

breast [206]; glioma, ovarian [207]

PARK7/DJ-1

oxidative stress protection [208]; redox-sensitive protein chaperone [209]; transcriptional regulation, mitochondrial regulation [210212]

increased oxidative stress sensitivity [213]; reduced complex I activity in mitochondria [214]; increased tau phosphorylation [215]

breast [216]; lung [217]; pancreatic [218]; gastric [219]; prostate [220]

MAPT/Tau

microtubule-associated protein, tubulin polymerization, scaffolding protein [221, 222]; growth factor signaling [222]; synaptic regulation [223]

hyperphosphorylated tau, major component of neurofibrillary tangles; synapse degeneration [223]

prostate [224]; breast [225]; epithelial ovarian [226]

APP/APP

synapse formation and maintenance [227]; trophic activity, neurite growth, axon pruning [228, 229]

mutations lead to Aβ peptide and amyloid plaques [229]

myeloid leukemia [230]; testicular [231]