PathMap Literature Based Discovery Engine

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Experiment #00000139

Foundational Dietary Theory: The dietary synergy between Hi-Maize and 6x Spermidine Yeast creates a potential cellular supply-and-clearance loop within the brain's astrocytes. Circulating spermidine metabolites utilize documented astrocytic polyamine uptake systems to access the central nervous system. Once inside, this exogenous spermidine drives FAM134B-mediated ER-phagy, clearing the endoplasmic reticulum matrix. This clearance removes the ER-stress bottleneck, allowing newly transcribed astrocytic EAAT2—upregulated by gut-derived butyrate from Hi-Maize fermentation—to successfully traffic to the plasma membrane and mitigate synaptic glutamate excitotoxicity.

Starch, Resistant _gates_from_starch__resistant Butyric Acid _gates_to_butyric_acid _gates_from_butyric_acid Glutamate Plasma Membrane Transport Proteins _gates_to_glutamate_plasma_membrane_transport_proteins Spermidine _gates_from_spermidine Autophagy
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Experiment #00000138

Dietary butyrate from resistant starch may synergize with sulforaphane-driven Nrf2 activation and spermidine-mediated FAM134B ER-phagy in order to restore astrocytic EAAT2 membrane trafficking and potentially clear synaptic glutamate excitotoxicity in neurodegeneration. (Literature Based Discovery)

Starch, Resistant _gates_from_starch__resistant Butyrate _gates_to_butyrate _gates_from_butyrate NF-E2-Related Factor 2 _gates_to_nf_e2_related_factor_2 Sulforaphane _gates_from_sulforaphane Spermidine
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Experiment #00000128

Discovered Hypothesis: Spermidine-mediated autophagic activation may serve as an upstream regulator of lysosomal TMEM175 activity to prevent proteinopathy in C9orf72-ALS/FTD models.

Spermidine _gates_from_spermidine Autophagy _gates_to_autophagy _gates_from_autophagy Lysosomal Integrity _gates_to_lysosomal_integrity _gates_from_lysosomal_integrity TMEM175 _gates_to_tmem175
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Experiment #00000126

Hypothesis: Intranasal delivery of Spermidine-modified Ginseng Extracellular Vesicles (S-GEVs) loaded with multi-targeted mRNA suppresses MARK2-eIF2α-driven RAN translation to prevent dipeptide repeat clogging of FG-nucleoporins, synergizing with progranulin-mediated lysosomal clearance to arrest TMEM106B amyloid accumulation and block the execution of p38-Lamin B1-dependent Karyoptosis in motor neurons.

Spermidine _gates_from_spermidine Lysosomal Degradation _gates_to_lysosomal_degradation _gates_from_lysosomal_degradation Protein Aggregates _gates_to_protein_aggregates _gates_from_protein_aggregates Cell Death _gates_to_cell_death
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Experiment #00000125

Discovery: Considering PubMed #37563705, #42012729, and #42541426, Spermidine is a known inducer of autophagy through EP300 inhibition and TFEB activation. Since TMEM106B amylofilaments induce lysosomal dysfunction, TFEB-driven restoration of lysosomal capacity would logically prevent the accumulation of these filaments.

Spermidine _gates_from_spermidine Transcription Factor EB _gates_to_transcription_factor_eb _gates_from_transcription_factor_eb Lysosomes _gates_to_lysosomes _gates_from_lysosomes TMEM106B protein _gates_to_tmem106b_protein
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Experiment #00000124

Hypothesis: Intranasal delivery of Spermidine-modified Ginseng Extracellular Vesicles (S-GEVs) loaded with GRN mRNA exploits the cribriform plate anatomy to bypass the blood-brain barrier, providing a neuro-targeted delivery system for progranulin gene therapy that acts synergistically with spermidine-induced autophagy to suppress pathological TMEM106B amyloid accumulation and restore endolysosomal homeostasis.

Administration, Intranasal _gates_from_administration__intranasal Olfactory Bulb _gates_to_olfactory_bulb Progranulins _gates_from_progranulins _gates_to_progranulins RNA, Messenger _gates_from_rna__messenger PGRN protein
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Experiment #00000123

Hypothesis: Intranasal delivery of Spermidine-modified Ginseng Extracellular Vesicles (S-GEVs) loaded with GRN mRNA exploits the cribriform plate anatomy to bypass the blood-brain barrier, providing a neuro-targeted delivery system for progranulin gene therapy that acts synergistically with spermidine-induced autophagy to suppress pathological TMEM106B amyloid accumulation and restore endolysosomal homeostasis.

Administration, Intranasal _gates_from_administration__intranasal Olfactory Bulb _gates_to_olfactory_bulb Progranulins _gates_from_progranulins _gates_to_progranulins RNA, Messenger _gates_from_rna__messenger PGRN protein
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Experiment #00000120

Discovery: Considering PubMed #41177462 and PubMed #41231952, Spermidine-modified extracellular vesicles can mitigate ALS-related C9orf72 RAN translation by modulating the MARK2-eIF2α stress-sensing axis.

C9orf72 Protein _gates_from_c9orf72_protein EIF2A _gates_to_eif2a _gates_from_eif2a Nanoparticles _gates_to_nanoparticles
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Experiment #00000119

Hypothesis: Considering PubMed #41177462, Intranasally administered GDEVs, specifically spermidine-modified ginger extracellular vesicles, may offer a multi-target therapeutic strategy for C9orf72-associated ALS by crossing the blood-brain barrier via olfactory routes to potentially deliver gene-editing components, support axonal translation, restore STMN2 expression, and attenuate neuroinflammation.

Spermidine _gates_from_spermidine Olfactory Bulb _gates_to_olfactory_bulb Drug Delivery Systems _gates_from_drug_delivery_systems Stathmin 2 _gates_to_stathmin_2 Eukaryotic Initiation Factor-5A _gates_from_eukaryotic_initiation_factor_5a
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