Cancer / Oncology
Cancer → Compound Matrix
| Cancer type | Compound | Pathway | Evidence | Adjunctive context | Mechanistic rationale |
|---|---|---|---|---|---|
| Breast cancer | Tamoxifen | estrogen-receptor, apoptosis | Established Oncology Use; Clinical / Human Evidence | Labelled endocrine therapy context | Established SERM therapy for hormone-receptor-positive breast cancer according to labelled oncology practice. Tissue-specific agonist/antagonist balance still applies. |
| Breast cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Breast cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Breast cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Breast cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Breast cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Breast cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Breast cancer | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| Breast cancer | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Breast cancer | Melatonin | oxidative-stress, apoptosis | In Vitro; In Vivo; Mechanistically Plausible | Circadian / redox adjunctive research | Circadian receptor and antioxidant chemistry with adjunctive hypotheses. Not an antineoplastic standard. |
| Breast cancer | Omega-3 fatty acids | cox-inflammation, immune-suppression | Clinical / Human Evidence; Mechanistically Plausible | Inflammation / cachexia supportive research | Eicosanoid rebalancing and cachexia/inflammation research. Not cytotoxic oncology. |
| Breast cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| ER+ breast cancer | Tamoxifen | estrogen-receptor, apoptosis | Established Oncology Use; Clinical / Human Evidence | Labelled endocrine therapy context | Established SERM therapy for hormone-receptor-positive breast cancer according to labelled oncology practice. Tissue-specific agonist/antagonist balance still applies. |
| ER+ breast cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| ER+ breast cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| ER+ breast cancer | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| ER+ breast cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| PR+ breast cancer | Tamoxifen | estrogen-receptor, apoptosis | Established Oncology Use; Clinical / Human Evidence | Labelled endocrine therapy context | Established SERM therapy for hormone-receptor-positive breast cancer according to labelled oncology practice. Tissue-specific agonist/antagonist balance still applies. |
| PR+ breast cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| HER2+ breast cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| HER2+ breast cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| HER2+ breast cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| HER2+ breast cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Triple-negative breast cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Triple-negative breast cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Triple-negative breast cancer | Fenbendazole | apoptosis, glycolysis | In Vitro; Hypothesis-Generating | Preclinical microtubule hypothesis | Veterinary benzimidazole with preclinical microtubule and glucose-handling reports. Human oncology evidence is insufficient. |
| Triple-negative breast cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Triple-negative breast cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Triple-negative breast cancer | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Triple-negative breast cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Triple-negative breast cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Triple-negative breast cancer | AICAR | ampk, mtor | In Vitro; In Vivo; Hypothesis-Generating | Experimental AMPK agonism | Pharmacologic AMPK activation is a research tool. |
| Triple-negative breast cancer | N-acetylcysteine | oxidative-stress, nrf2, ferroptosis | In Vitro; Mechanistically Plausible; Hypothesis-Generating | Redox-buffering cautionary context | GSH repletion is dual-edged in oncology models and must not be framed as anticancer. |
| Lung cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Lung cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Lung cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Lung cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Lung cancer | Sulforaphane | nrf2, oxidative-stress | In Vitro; In Vivo; Mechanistically Plausible | NRF2 / chemoprevention research | KEAP1/NRF2 activation and epigenetic reports in models. Chemoprevention hypotheses are not treatment proof. |
| Lung cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Lung cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Non-small-cell lung cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Non-small-cell lung cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Non-small-cell lung cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Non-small-cell lung cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Non-small-cell lung cancer | Sulforaphane | nrf2, oxidative-stress | In Vitro; In Vivo; Mechanistically Plausible | NRF2 / chemoprevention research | KEAP1/NRF2 activation and epigenetic reports in models. Chemoprevention hypotheses are not treatment proof. |
| Non-small-cell lung cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Non-small-cell lung cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Non-small-cell lung cancer | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Small-cell lung cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Small-cell lung cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Small-cell lung cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Small-cell lung cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Small-cell lung cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| EGFR-mutant NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| EGFR-mutant NSCLC | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| EGFR-mutant NSCLC | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| EGFR-mutant NSCLC | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| ALK-rearranged NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| ALK-rearranged NSCLC | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| KRAS-driven NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| KRAS-driven NSCLC | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| KRAS-driven NSCLC | Sulforaphane | nrf2, oxidative-stress | In Vitro; In Vivo; Mechanistically Plausible | NRF2 / chemoprevention research | KEAP1/NRF2 activation and epigenetic reports in models. Chemoprevention hypotheses are not treatment proof. |
| KRAS-driven NSCLC | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| ROS1-rearranged NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| MET-altered NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| MET-altered NSCLC | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| RET-rearranged NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| BRAF-mutant NSCLC | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| BRAF-mutant NSCLC | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Mesothelioma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Mesothelioma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Mesothelioma | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Mesothelioma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Mesothelioma | Losartan | tgfb, angiogenesis | Early Clinical; In Vivo; Mechanistically Plausible | Stroma / perfusion adjunctive research | AT1 blockade can reduce TGF-β-linked desmoplasia and improve perfusion in models, notably pancreatic. Stromal decompression is not cytotoxicity. |
| Colorectal cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Colorectal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Colorectal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Colorectal cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Colorectal cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Colorectal cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Colorectal cancer | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Colorectal cancer | Omega-3 fatty acids | cox-inflammation, immune-suppression | Clinical / Human Evidence; Mechanistically Plausible | Inflammation / cachexia supportive research | Eicosanoid rebalancing and cachexia/inflammation research. Not cytotoxic oncology. |
| Colorectal cancer | Sulforaphane | nrf2, oxidative-stress | In Vitro; In Vivo; Mechanistically Plausible | NRF2 / chemoprevention research | KEAP1/NRF2 activation and epigenetic reports in models. Chemoprevention hypotheses are not treatment proof. |
| Colorectal cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| MSI-high colorectal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| MSI-high colorectal cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| MSI-high colorectal cancer | Beta-glucans / medicinal-mushroom polysaccharides | immune-suppression | Early Clinical; In Vivo; Mechanistically Plausible | Innate-immune adjunctive research | Innate-immune engagement via Dectin-1-related biology. Adjunctive immunomodulation is not tumour-selective cytotoxicity. |
| MSI-high colorectal cancer | Omega-3 fatty acids | cox-inflammation, immune-suppression | Clinical / Human Evidence; Mechanistically Plausible | Inflammation / cachexia supportive research | Eicosanoid rebalancing and cachexia/inflammation research. Not cytotoxic oncology. |
| MSS colorectal cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| MSS colorectal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| MSS colorectal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| MSS colorectal cancer | Losartan | tgfb, angiogenesis | Early Clinical; In Vivo; Mechanistically Plausible | Stroma / perfusion adjunctive research | AT1 blockade can reduce TGF-β-linked desmoplasia and improve perfusion in models, notably pancreatic. Stromal decompression is not cytotoxicity. |
| MSS colorectal cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| KRAS-mutant colorectal cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| KRAS-mutant colorectal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| KRAS-mutant colorectal cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| BRAF-mutant colorectal cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| BRAF-mutant colorectal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| BRAF-mutant colorectal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| APC-driven colorectal cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| APC-driven colorectal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| APC-driven colorectal cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| HER2-amplified colorectal cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| HER2-amplified colorectal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Pancreatic cancer | Losartan | tgfb, angiogenesis | Early Clinical; In Vivo; Mechanistically Plausible | Stroma / perfusion adjunctive research | AT1 blockade can reduce TGF-β-linked desmoplasia and improve perfusion in models, notably pancreatic. Stromal decompression is not cytotoxicity. |
| Pancreatic cancer | Candesartan | tgfb, angiogenesis | In Vivo; Mechanistically Plausible | Stroma / TGF-β class-level research | ARBs share AT1-blockade stromal hypotheses with losartan. Class-level biology is not tumour-type-proven treatment. |
| Pancreatic cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Pancreatic cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Pancreatic cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Pancreatic cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Pancreatic cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Pancreatic cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Pancreatic cancer | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Pancreatic cancer | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Gastric cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Gastric cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Gastric cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Gastric cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Gastric cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Gastric cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Esophageal cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Esophageal cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Esophageal cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Esophageal cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Hepatocellular carcinoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Hepatocellular carcinoma | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Hepatocellular carcinoma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Hepatocellular carcinoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Hepatocellular carcinoma | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Hepatocellular carcinoma | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Hepatocellular carcinoma | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Liver cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Liver cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Cholangiocarcinoma | Losartan | tgfb, angiogenesis | Early Clinical; In Vivo; Mechanistically Plausible | Stroma / perfusion adjunctive research | AT1 blockade can reduce TGF-β-linked desmoplasia and improve perfusion in models, notably pancreatic. Stromal decompression is not cytotoxicity. |
| Cholangiocarcinoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Cholangiocarcinoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Cholangiocarcinoma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Ovarian cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Ovarian cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Ovarian cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Ovarian cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Ovarian cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Ovarian cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Ovarian cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Cervical cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Cervical cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Cervical cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Cervical cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Endometrial cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Endometrial cancer | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Endometrial cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Endometrial cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Endometrial cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Uterine cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Prostate cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Prostate cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Prostate cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Prostate cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Prostate cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Prostate cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Prostate cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Androgen-sensitive prostate cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Androgen-sensitive prostate cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Castration-resistant prostate cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Castration-resistant prostate cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Castration-resistant prostate cancer | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Castration-resistant prostate cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Castration-resistant prostate cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Neuroendocrine prostate cancer | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Neuroendocrine prostate cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Neuroendocrine prostate cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Neuroendocrine prostate cancer | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Kidney / renal cell carcinoma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Kidney / renal cell carcinoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Kidney / renal cell carcinoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Kidney / renal cell carcinoma | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| Kidney / renal cell carcinoma | Sulforaphane | nrf2, oxidative-stress | In Vitro; In Vivo; Mechanistically Plausible | NRF2 / chemoprevention research | KEAP1/NRF2 activation and epigenetic reports in models. Chemoprevention hypotheses are not treatment proof. |
| Bladder cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Bladder cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Bladder cancer | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Bladder cancer | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Bladder cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Testicular cancer | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Testicular cancer | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Leukemias | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Leukemias | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Leukemias | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Acute myeloid leukemia | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Acute myeloid leukemia | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Acute myeloid leukemia | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Acute myeloid leukemia | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Acute myeloid leukemia | Berberine | ampk, mtor, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Metabolic energy-stress hypothesis | Complex I / AMPK pharmacology overlaps metformin-like energy stress in models. Bioavailability and lack of oncology indication keep this mechanistic. |
| Acute myeloid leukemia | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Acute lymphoblastic leukemia | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Acute lymphoblastic leukemia | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Acute lymphoblastic leukemia | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Hodgkin lymphoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Hodgkin lymphoma | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Hodgkin lymphoma | Omega-3 fatty acids | cox-inflammation, immune-suppression | Clinical / Human Evidence; Mechanistically Plausible | Inflammation / cachexia supportive research | Eicosanoid rebalancing and cachexia/inflammation research. Not cytotoxic oncology. |
| Hodgkin lymphoma | Beta-glucans / medicinal-mushroom polysaccharides | immune-suppression | Early Clinical; In Vivo; Mechanistically Plausible | Innate-immune adjunctive research | Innate-immune engagement via Dectin-1-related biology. Adjunctive immunomodulation is not tumour-selective cytotoxicity. |
| Non-Hodgkin lymphoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Non-Hodgkin lymphoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Non-Hodgkin lymphoma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Non-Hodgkin lymphoma | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Non-Hodgkin lymphoma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Multiple myeloma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Multiple myeloma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Multiple myeloma | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Multiple myeloma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Multiple myeloma | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Brain tumors | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Brain tumors | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Glioblastoma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Glioblastoma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Glioblastoma | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| Glioblastoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Glioblastoma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Glioblastoma | Niclosamide | wnt, jak-stat, mtor | In Vitro; In Vivo; Mechanistically Plausible | Wnt / STAT3 signalling models | Models report Wnt/β-catenin, STAT3 and mTOR effects. Host signalling findings remain investigational. |
| Glioblastoma | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Glioblastoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Glioblastoma | Fenbendazole | apoptosis, glycolysis | In Vitro; Hypothesis-Generating | Preclinical microtubule hypothesis | Veterinary benzimidazole with preclinical microtubule and glucose-handling reports. Human oncology evidence is insufficient. |
| IDH-mutant glioma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| IDH-mutant glioma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| IDH-wildtype glioma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| IDH-wildtype glioma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| IDH-wildtype glioma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| MGMT-methylated glioma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| MGMT-methylated glioma | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
| MGMT-methylated glioma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Melanoma | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| Melanoma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Melanoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Melanoma | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Melanoma | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Melanoma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| BRAF-driven melanoma | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| BRAF-driven melanoma | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| BRAF-driven melanoma | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| NRAS-driven melanoma | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| NRAS-driven melanoma | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| NRAS-driven melanoma | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| KIT-associated melanoma | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| KIT-associated melanoma | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Skin cancers | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Skin cancers | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Skin cancers | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Head and neck cancers | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Head and neck cancers | Curcumin | nfkb, jak-stat | In Vitro; Mechanistically Plausible | Inflammatory-signalling dish models | In-vitro NF-κB/STAT3 effects are frequent. Poor bioavailability and absence of robust clinical anticancer efficacy keep this pathway-level. |
| Head and neck cancers | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Head and neck cancers | EGCG | egfr, pi3k-akt | In Vitro; Mechanistically Plausible | RTK / redox dish models | Catechin effects on RTKs and redox in vitro. Clinical anticancer efficacy is not established. |
| Head and neck cancers | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Head and neck cancers | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Thyroid cancer | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Thyroid cancer | Statins (HMG-CoA reductase inhibitors) | ras-raf, fatty-acid-metabolism | Clinical / Human Evidence; In Vitro; Mechanistically Plausible | Mevalonate / prenylation mechanistic overlap | Mevalonate-pathway blockade can affect prenylation of RAS-family GTPases. Observational human signals are mixed and confounding is substantial. |
| Thyroid cancer | Celecoxib | cox-inflammation, angiogenesis | Clinical / Human Evidence; In Vivo; In Vitro | Inflammation-associated epithelial neoplasia research | COX-2/PGE2 biology is relevant in some epithelial neoplasias. Cardiovascular risk and lack of broad anticancer approval apply. Do not equate polyp or biomarker studies with tumour cure. |
| Neuroendocrine tumors | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Neuroendocrine tumors | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Neuroendocrine tumors | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Neuroendocrine tumors | Hydroxychloroquine | autophagy | Early Clinical; In Vivo; In Vitro | Autophagy-modulation research combinations | Lysosomal pH elevation impairs autophagy flux. Early combination trials exist; benefit is not established and toxicity/retinal risk remain labelled concerns. |
| Sarcomas | Itraconazole | hedgehog, angiogenesis | Early Clinical; In Vivo; In Vitro | Hedgehog / angiogenesis research | Hedgehog antagonism and anti-angiogenic endothelial reports exist, including early clinical probes. Not a licensed antineoplastic. |
| Sarcomas | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Sarcomas | Propranolol | angiogenesis, invasion | Early Clinical; In Vivo; In Vitro | Adrenergic / vascular adjunctive research | β-adrenergic signalling can support angiogenesis and invasion in selected tumours. Oncology uses remain investigational except where a specific vascular indication is separately established. |
| Sarcomas | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Sarcomas | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Bone cancers | Mebendazole | apoptosis, tp53 | In Vitro; In Vivo; Mechanistically Plausible | Experimental antimitotic / microtubule stress | Microtubule disruption can trigger mitotic stress and apoptosis in cell and animal models. This is not an established oncology use. |
| Bone cancers | Doxycycline | invasion, stemness, oxphos | In Vitro; In Vivo; Mechanistically Plausible | Anti-invasive / mitochondrial experimental context | MMP inhibition and experimental mitochondrial effects map to invasion and stem-like states in models. |
| Bone cancers | Metformin | ampk, mtor, glycolysis | Clinical / Human Evidence; In Vivo; In Vitro; Mechanistically Plausible | Metabolic adjunctive research context | AMPK activation and mTOR restraint provide a metabolic rationale in insulin- and glycolysis-linked tumours. Human data are mixed and do not establish metformin as cancer therapy. |
| Bone cancers | Disulfiram | stemness, nfkb, oxidative-stress | In Vitro; In Vivo; Early Clinical | ALDH / redox experimental context | ALDH and copper-dependent proteasome/NF-κB stress in models; clinical oncology remains limited. |
This oncology atlas is educational. Pathway maps, adjunctive strategies, and compound listings describe mechanistic relevance. They do not establish clinical efficacy, do not recommend treatment, and are not a substitute for oncology care. Evidence tiers are not equivalent.