Ellagic acid / Casp3 Cancer Research Results

EA, Ellagic acid: Click to Expand ⟱
Features:
Polyphenol found in fruits, vegetables, nuts and some mushrooms. Strawberries, raspberries, blackberries, cherries and walnuts, green tea and red wine. Pomegranate arils are a well known source.
Ellagic acid (EA) is a dietary polyphenol found in berries and pomegranate-related foods, with reported anti-inflammatory (NF-κB↓), survival-pathway suppression (PI3K/AKT↓), and anti-proliferative effects including G1 arrest and apoptosis in many cancer models. A key practical nuance is that EA/ellagitannins are extensively transformed by gut microbiota into urolithins, which are more bioavailable and may account for a large share of systemic effects.

- Ellagitannins are high molecular weight polyphenols with a complex structure that includes one or more HHDP groups attached to a sugar.
- Ellagic Acid is the simpler, bioactive compound released when the HHDP groups in ellagitannins cyclize during hydrolysis.
- one best source is raspberries. 100g gives ~50mg(reasonable dose)
- Ellagic acid has very poor oral bioavailability
- Peak plasma EA after high oral intake is typically: <50–100 nM, often much lower, this is far below concentrations used in many in-vitro anticancer studies (5–50 µM).
- efficacy depends on gut metabolism (ie ability to produce Urolithin A)
- also look at Urolithin supplements

Pathways:
Apoptosis Regulation: (Bax, Bad) (Bcl-2, Bcl-xL)
Cell Cycle Arrest: G0/G1 or G2/M phases)
NF-κB (inhibit):
MAPK Pathways: (including ERK1/2, JNK, and p38 MAPK)
PI3K/Akt/mTOR: might downregulate this pathway
p53 Pathway: may influence the expression or activation of p53
Oxidative Stress and Nrf2 Pathway:exhibits antioxidant properties,
Summary:
- Anti-oxidant and metal chelating
- with some evidence it can induce ROS in cancer tumor conditions (mitochondrial stress, redox-unstable cells)
- reported synergy with Curcumin
- Reported, reduced the viability of cancer cells at a concentration of 10 µmol/L, while in healthy cells, this effect was observed only at a concentration of 200 µmol/L
- Pomegranate juice (PJ) (180 ml) containing EA (25 mg) and ETs (318 mg, as punicalagins, the major fruit ellagitannin). Plasma concentration (31.9 ng/ml) after 1 h post-ingestion but was rapidly eliminated by 4 h. (Hence might be difficult to consume enough EA!!!! to match vitro requirements)
- Increased the expression of p53 and p21 proteins as well as markers of apoptosis (Bax and caspase-3), and decreases Bcl-2, NF-кB, and iNOS
- EA has restricted bioavailability, primarily due to its hydrophobic nature and very low water solubility.
- Processing methods can alter EA content; peel extraction often increases measured EA, while prolonged storage/freezing may reduce levels.

Total ellagic acid equivalents (free + bound).
Punica granatum L. Pomegranate 700mg/kg (arils), 38700mg/kg(mesocarp)
Rubus idaeus L. Raspberry 2637–3309mg/kg
jaglandaceae Walnut 410mg/kg(freeEA) 8230mg/kg(totalEA)

Ellagic acid — a naturally occurring hydrolysable polyphenol and dilactone derived from hexahydroxydiphenic acid. It occurs as free ellagic acid and, more commonly, as a structural component or hydrolysis product of ellagitannins in pomegranate, raspberries, blackberries, strawberries, walnuts, muscadine grapes, and related foods. It is formally classified as a dietary polyphenolic phytochemical rather than an approved anticancer drug. Oral EA has low aqueous solubility, limited absorption, rapid conjugation, and extensive microbiome-dependent conversion into urolithins; therefore, free EA and its microbial metabolites should be treated as related but pharmacokinetically distinct agents.

Primary mechanisms (ranked):

  1. Induction of mitochondrial apoptosis through mitochondrial membrane depolarization, cytochrome-c release, Bax/Bcl-2 rebalancing, caspase activation, and suppression of anti-apoptotic proteins.
  2. Suppression of PI3K/AKT/mTOR and related survival signaling, with context-dependent inhibition of STAT3, ERK, and oncogenic growth programs.
  3. Cell-cycle arrest through p53 and p21 activation and suppression of cyclins and cyclin-dependent kinases.
  4. Suppression of NF-κB-regulated inflammatory, survival, invasion, and cytokine programs.
  5. Context-dependent redox modulation: antioxidant and NRF2-associated cytoprotection in normal or injured tissues, but ROS generation and oxidative mitochondrial injury in susceptible cancer cells, particularly at higher experimental concentrations or in combination treatments.
  6. Inhibition of glycolysis and tumor pH regulation through reduced glucose utilization, lactate production, PKM2 or LDH activity, and NHE1-dependent proton extrusion in selected cancer models.
  7. Suppression of epithelial-mesenchymal transition, migration, invasion, and metastasis through modulation of TGF-β/SMAD, Snail, β-catenin, MMP2, MMP9, and adhesion pathways.
  8. Anti-angiogenic effects involving reduced HIF-1α, VEGF, and VEGFR2 signaling.
  9. Context-dependent chemosensitization and radiosensitization through suppression of survival signaling, increased DNA damage or ROS, and reduced drug-resistance or EMT programs.

Bioavailability / PK relevance: Free EA has very poor oral bioavailability because of low water solubility, limited intestinal permeability, rapid methylation and glucuronidation, and short systemic persistence. Human plasma exposure to unchanged EA after ellagitannin-rich foods is generally transient and substantially below the micromolar concentrations commonly used in cancer-cell experiments. Gut bacteria convert unabsorbed EA and ellagitannins into urolithins, which circulate mainly as glucuronide or sulfate conjugates and may account for much of the systemic biological activity. Urolithin production varies markedly among individuals according to microbiome metabotype. Liposomal, nanoparticle, phospholipid, and other delivery systems improve exposure experimentally, but none has established clinical anticancer efficacy.

In-vitro vs systemic exposure relevance: Many anticancer studies use approximately 5–100 µM EA for hours to days. These concentrations commonly exceed achievable circulating free-EA exposure after food or conventional oral supplementation. Direct relevance is greater for gastrointestinal luminal exposure, local tissue exposure, specialized formulations, or experiments involving metabolites. Results obtained at high micromolar concentrations should not be interpreted as evidence that an ordinary dietary dose will produce equivalent systemic tumor effects.

Clinical evidence status: Predominantly preclinical. EA has extensive cell-culture evidence and several animal tumor studies, but human oncology evidence remains limited to an older small adjunctive prostate-cancer trial, observational or combination-product studies, tissue-disposition studies, and trials of ellagitannin-rich pomegranate, berry, or muscadine extracts. These mixed extracts cannot establish EA-specific efficacy. Human randomized trials in metabolic, inflammatory, gastrointestinal, and neurologic conditions provide preliminary safety and biomarker data but do not validate EA as a cancer treatment. EA is not an FDA-approved anticancer agent and should be classified as investigational or dietary adjunct evidence, not established oncology therapy.

Safety / interaction constraints: Food-derived exposure is generally well tolerated, and small supplementation trials have not identified a consistent major toxicity signal. Long-term safety of purified high-dose EA in oncology populations is insufficiently characterized. Potential interaction concerns include inhibition or modulation of drug-metabolizing enzymes and transporters, antiplatelet activity, and uncertain effects when combined with cytotoxic chemotherapy or radiotherapy. The antioxidant-versus-pro-oxidant direction is dose-, tissue-, and treatment-dependent; concurrent use during cancer therapy therefore requires clinical review rather than assuming either protection or sensitization.


Ellagic Acid Mechanistic Profile

Rank Pathway / Axis Cancer Cells Normal Cells TSF Primary Effect Notes / Interpretation
1 Mitochondrial apoptosis Mitochondrial membrane potential ↓; Bax and cytochrome-c ↑; Bcl-2 and Bcl-xL ↓; caspase-3 and caspase-9 ↑ Apoptotic injury ↓ or ↔ (context-dependent) R, G Programmed tumor-cell death A recurrent downstream mechanism, usually following survival-pathway inhibition, mitochondrial stress, or ROS accumulation.
2 PI3K AKT mTOR survival signaling PI3K ↓; phosphorylated AKT ↓; mTOR ↓; PTEN ↑ (model-dependent) AKT survival signaling ↔ or ↑ during tissue injury (context-dependent) R, G Growth and survival suppression The direction can differ in nonmalignant injury models, where EA may preserve physiological AKT signaling.
3 Cell-cycle and p53 p21 control p53 ↑; p21 ↑; cyclin D1 and cyclin E ↓; CDK2, CDK4, and CDK6 ↓; arrest ↑ Aberrant proliferation ↓; normal cycling cells usually less affected G Cytostasis and apoptosis priming G0/G1 arrest is frequent, although G2/M or S-phase effects occur depending on tumor type and exposure.
4 NF-κB inflammatory survival signaling NF-κB activation ↓; COX-2 ↓; iNOS ↓; IL-6 and IL-8 ↓; anti-apoptotic transcription ↓ Inflammatory signaling ↓ R, G Anti-inflammatory and anti-survival activity NF-κB suppression can contribute to reduced proliferation, invasion, treatment resistance, and inflammatory cytokine production.
5 Mitochondrial ROS increase ROS ↑; oxidative DNA damage ↑; mitochondrial stress ↑ (dose-dependent) ROS injury ↓ or ↔ through antioxidant activity (context-dependent) P, R Selective oxidative stress Pro-oxidant effects are most evident in redox-unstable cancer cells, high-concentration experiments, and combination treatments. EA is not uniformly pro-oxidant.
6 NRF2 antioxidant response NRF2 and HO-1 ↔, ↑, or ↓ (model-dependent) NRF2 ↑; HO-1 and antioxidant enzymes ↑; lipid peroxidation ↓ R, G Secondary redox adaptation Normal-tissue protection is relatively consistent, whereas cancer-cell NRF2 modulation is heterogeneous and may depend on baseline NRF2 activity.
7 Glycolysis and intracellular pH regulation Glucose consumption ↓; lactate production ↓; LDH and PKM2 ↓; NHE1 ↓; intracellular pH ↓ (model-dependent) ↔ R, G Metabolic restriction and acidification Demonstrated in selected cancer models and should not be generalized to every tumor type.
8 STAT3 and MAPK growth signaling STAT3 ↓; phosphorylated STAT3 ↓; ERK signaling ↓; JNK or p38 modulation (context-dependent) Stress-responsive MAPK signaling ↔ or normalized R, G Proliferation and survival inhibition MAPK direction varies with tumor type, concentration, and whether stress-mediated apoptosis is being induced.
9 EMT invasion and metastasis TGF-β and SMAD signaling ↓; Snail and Twist ↓; vimentin ↓; E-cadherin ↑; MMP2 and MMP9 ↓ Pathological matrix remodeling ↓ G Reduced migration and invasion Includes reversal of EMT and, in some models, partial resensitization of drug-resistant cancer cells.
10 HIF-1α VEGF angiogenesis HIF-1α ↓; VEGF ↓; VEGFR2 signaling ↓; angiogenesis ↓ Pathological angiogenesis ↓; physiological effect uncertain G Anti-angiogenic activity Supported mainly by cell, endothelial-assay, and animal evidence rather than validated clinical anti-angiogenic activity.
11 DNA damage and repair balance Oxidative DNA damage ↑; PARP cleavage ↑; p53-dependent damage response ↑ (dose-dependent) Genotoxic injury ↓ through antioxidant and antimutagenic activity (context-dependent) R, G Tumor-cell damage with normal-cell protection potential The bidirectional profile reflects differing redox conditions and exposure levels in malignant versus normal systems.
12 Chemosensitization Drug sensitivity ↑; EMT and survival signaling ↓; apoptosis ↑ (combination-dependent) Chemotherapy-associated injury may ↓ in some models R, G Adjunctive treatment modulation Reported with agents including gemcitabine and several experimental combinations. Clinical confirmation is inadequate.
13 Radiosensitization Radiation response ↑; ROS and DNA damage ↑; clonogenic survival ↓ (model-dependent) Radiation injury may ↓ through antioxidant and anti-inflammatory effects (model-dependent) P, R, G Differential radiation response Recent preclinical work supports possible simultaneous tumor sensitization and normal-tissue protection, but this has not been established clinically.
14 Microbiome conversion to urolithins Direct EA exposure limited; systemic effects may be mediated partly by urolithin metabolites Urolithin production and conjugate exposure vary markedly among individuals G Metabolite-dependent systemic activity Metabotype 0, A, or B and microbial composition can materially alter metabolite identity, quantity, and biological response.
15 Clinical Translation Constraint Free EA exposure commonly below active in-vitro concentrations; tumor delivery unproven Food exposure generally tolerated; high-dose long-term safety and drug interactions incompletely defined G Bioavailability and evidence limitation Poor solubility, rapid metabolism, microbiome heterogeneity, mixed-extract trials, limited oncology RCT evidence, and lack of an approved pharmaceutical formulation restrict translation.

TSF: P: 0–30 min    R: 30 min–3 hr    G: >3 hr
Casp3, CPP32, Cysteinyl aspartate specific proteinase-3: Click to Expand ⟱
Source:
Type:
Also known as CP32.
Cysteinyl aspartate specific proteinase-3 (Caspase-3) is a common key protein in the apoptosis and pyroptosis pathways, and when activated, the expression level of tumor suppressor gene Gasdermin E (GSDME) determines the mechanism of tumor cell death.
As a key protein of apoptosis, caspase-3 can also cleave GSDME and induce pyroptosis. Loss of caspase activity is an important cause of tumor progression.
Many anticancer strategies rely on the promotion of apoptosis in cancer cells as a means to shrink tumors. Crucial for apoptotic function are executioner caspases, most notably caspase-3, that proteolyze a variety of proteins, inducing cell death. Paradoxically, overexpression of procaspase-3 (PC-3), the low-activity zymogen precursor to caspase-3, has been reported in a variety of cancer types. Until recently, this counterintuitive overexpression of a pro-apoptotic protein in cancer has been puzzling. Recent studies suggest subapoptotic caspase-3 activity may promote oncogenic transformation, a possible explanation for the enigmatic overexpression of PC-3. Herein, the overexpression of PC-3 in cancer and its mechanistic basis is reviewed; collectively, the data suggest the potential for exploitation of PC-3 overexpression with PC-3 activators as a targeted anticancer strategy.
Caspase 3 is the main effector caspase and has a key role in apoptosis. In many types of cancer, including breast, lung, and colon cancer, caspase-3 expression is reduced or absent.
On the other hand, some studies have shown that high levels of caspase-3 expression can be associated with a better prognosis in certain types of cancer, such as breast cancer. This suggests that caspase-3 may play a role in the elimination of cancer cells, and that therapies aimed at activating caspase-3 may be effective in treating certain types of cancer.
Procaspase-3 is a apoptotic marker protein.
Prognostic significance:
• High Cas3 expression: Associated with good prognosis and increased sensitivity to chemotherapy in breast, gastric, lung, and pancreatic cancers.
• Low Cas3 expression: Linked to poor prognosis and increased risk of recurrence in colorectal, hepatocellular carcinoma, ovarian, and prostate cancers.
Scientific Papers found: Click to Expand⟱
1621- EA,    The multifaceted mechanisms of ellagic acid in the treatment of tumors: State-of-the-art
- Review, Var, NA
AntiCan↑, Apoptosis↑, TumCP↓, TumMeta↓, TumCI↓, TumAuto↑, VEGFR2↓, MAPK↓, PI3K↓, Akt↓, PD-1↓, NOTCH↓, PCNA↓, Ki-67↓, cycD1/CCND1↓, CDK2↑, CDK6↓, Bcl-2↓, cl‑PARP↑, BAX↑, Casp3↑, DR4↑, DR5↑, Snail↓, MMP2↓, MMP9↓, TGF-β↑, PKCδ↓, β-catenin/ZEB1↓, SIRT1↓, HO-1↓, ROS↑, CHOP↑, Cyt‑c↑, MMP↓, OCR↓, AMPK↑, Hif1a↓, NF-kB↓, E-cadherin↑, Vim↓, EMT↓, LC3II↑, CIP2A↓, GLUT1↓, PDH↝, MAD↓, LDH↓, GSTs↑, NOTCH↓, survivin↓, XIAP↓, ER Stress↑, ChemoSideEff↓, ChemoSen↑,
27- EA,    Ellagic acid inhibits human pancreatic cancer growth in Balb c nude mice
- in-vivo, PC, PANC1
HH↓, Gli1↓, GLI2↓, CDK1/2/5/9↓, p‑Akt↓, NOTCH1↓, Shh↓, Snail↓, E-cadherin↑, NOTCH3↓, HEY1↓, TumCG↓, TumCP↓, Casp3↑, cl‑PARP↑, Bcl-2↓, cycD1/CCND1↓, CDK2↓, CDK6↓, BAX↑, COX2↓, Hif1a↓, VEGF↓, VEGFR2↓, IL6↓, IL8↓, MMP2↓, MMP9↓, NA↓,
1605- EA,    Ellagic Acid and Cancer Hallmarks: Insights from Experimental Evidence
- Review, Var, NA
*BioAv↓, antiOx↓, Inflam↓, TumCP↓, TumCCA↑, cycD1/CCND1↓, cycE/CCNE↓, P53↑, P21↑, COX2↓, NF-kB↓, Akt↑, NOTCH↓, CDK2↓, CDK6↓, JAK↓, STAT3↓, EGFR↓, p‑ERK↓, p‑Akt↓, p‑STAT3↓, TGF-β↓, SMAD3↓, CDK6↓, Wnt/(β-catenin)↓, Myc↓, survivin↓, CDK8↓, PKCδ↓, tumCV↓, RadioS↑, eff↑, MDM2↓, XIAP↓, p‑RB1↓, PTEN↑, p‑FAK↓, Bax:Bcl2↑, Bcl-xL↓, Mcl-1↓, PUMA↑, NOXA↑, MMP↓, Cyt‑c↑, ROS↑, Ca+2↝, Endoglin↑, Diablo↑, AIF↑, iNOS↓, Casp9↑, Casp3↑, cl‑PARP↑, RadioS↑, Hif1a↓, HO-1↓, HO-2↓, SIRT1↓, selectivity↑, Dose∅, NHE1↓, Glycolysis↓, GlucoseCon↓, lactateProd↓, PDK1?, PDK1?, ECAR↝, COX1↓, Snail↓, Twist↓, cMyc↓, Telomerase↓, angioG↓, MMP2↓, MMP9↓, VEGF↓, Dose↝, PD-L1↓, eff↑, SIRT6↑, DNAdam↓,
1606- EA,    Ellagic acid inhibits proliferation and induced apoptosis via the Akt signaling pathway in HCT-15 colon adenocarcinoma cells
- in-vitro, Colon, HCT15
TumCP↓, cycD1/CCND1↓, Apoptosis↑, PI3K↓, Akt↓, ROS↑, Casp3↑, Cyt‑c↑, Bcl-2↓, TumCCA↑, Dose∅, ALP↓, LDH↓, PCNA↓, P53↑, Bax:Bcl2↑,
1620- EA,  Rad,    Radiosensitizing effect of ellagic acid on growth of Hepatocellular carcinoma cells: an in vitro study
- in-vitro, Liver, HepG2
ROS↑, P53↑, TumCCA↑, IL6↓, COX2↓, TNF-α↓, MMP↓, angioG↓, MMP9↓, BAX↑, Casp3↑, Apoptosis↑, RadioS↑, TBARS↑, GSH↓, Bax:Bcl2↑, p‑NF-kB↓, p‑STAT3↓,

Showing Research Papers: 1 to 5 of 5

* indicates research on normal cells as opposed to diseased cells
Total Research Paper Matches: 5

Pathway results for Effect on Cancer / Diseased Cells:


NA, unassigned(tgid=0) ⓘ

NA↓, 1,  

Redox & Oxidative Stress(tgid=1) ⓘ

antiOx↓, 1,   GSH↓, 1,   GSTs↑, 1,   HO-1↓, 2,   HO-2↓, 1,   MAD↓, 1,   ROS↑, 4,   TBARS↑, 1,  

Mitochondria & Bioenergetics(tgid=3) ⓘ

AIF↑, 1,   MMP↓, 3,   OCR↓, 1,   XIAP↓, 2,  

Core Metabolism/Glycolysis(tgid=4) ⓘ

AMPK↑, 1,   cMyc↓, 1,   ECAR↝, 1,   GlucoseCon↓, 1,   Glycolysis↓, 1,   lactateProd↓, 1,   LDH↓, 2,   PDH↝, 1,   PDK1?, 2,   SIRT1↓, 2,  

Cell Death(tgid=5) ⓘ

Akt↓, 2,   Akt↑, 1,   p‑Akt↓, 2,   Apoptosis↑, 3,   BAX↑, 3,   Bax:Bcl2↑, 3,   Bcl-2↓, 3,   Bcl-xL↓, 1,   Casp3↑, 5,   Casp9↑, 1,   Cyt‑c↑, 3,   Diablo↑, 1,   DR4↑, 1,   DR5↑, 1,   HEY1↓, 1,   iNOS↓, 1,   MAPK↓, 1,   Mcl-1↓, 1,   MDM2↓, 1,   Myc↓, 1,   NOXA↑, 1,   PUMA↑, 1,   survivin↓, 2,   Telomerase↓, 1,  

Transcription & Epigenetics(tgid=7) ⓘ

tumCV↓, 1,  

Protein Folding & ER Stress(tgid=8) ⓘ

CHOP↑, 1,   ER Stress↑, 1,  

Autophagy & Lysosomes(tgid=9) ⓘ

LC3II↑, 1,   TumAuto↑, 1,  

DNA Damage & Repair(tgid=10) ⓘ

DNAdam↓, 1,   P53↑, 3,   cl‑PARP↑, 3,   PCNA↓, 2,   SIRT6↑, 1,  

Cell Cycle & Senescence(tgid=11) ⓘ

CDK1/2/5/9↓, 1,   CDK2↓, 2,   CDK2↑, 1,   cycD1/CCND1↓, 4,   cycE/CCNE↓, 1,   P21↑, 1,   p‑RB1↓, 1,   TumCCA↑, 3,  

Proliferation, Differentiation & Cell State(tgid=12) ⓘ

CDK8↓, 1,   CIP2A↓, 1,   EMT↓, 1,   p‑ERK↓, 1,   Gli1↓, 1,   HH↓, 1,   NOTCH↓, 3,   NOTCH1↓, 1,   NOTCH3↓, 1,   PI3K↓, 2,   PTEN↑, 1,   Shh↓, 1,   STAT3↓, 1,   p‑STAT3↓, 2,   TumCG↓, 1,   Wnt/(β-catenin)↓, 1,  

Migration(tgid=13) ⓘ

Ca+2↝, 1,   E-cadherin↑, 2,   p‑FAK↓, 1,   GLI2↓, 1,   Ki-67↓, 1,   MMP2↓, 3,   MMP9↓, 4,   PKCδ↓, 2,   SMAD3↓, 1,   Snail↓, 3,   TGF-β↓, 1,   TGF-β↑, 1,   TumCI↓, 1,   TumCP↓, 4,   TumMeta↓, 1,   Twist↓, 1,   Vim↓, 1,   β-catenin/ZEB1↓, 1,  

Angiogenesis & Vasculature(tgid=14) ⓘ

angioG↓, 2,   EGFR↓, 1,   Endoglin↑, 1,   Hif1a↓, 3,   VEGF↓, 2,   VEGFR2↓, 2,  

Barriers & Transport(tgid=15) ⓘ

GLUT1↓, 1,   NHE1↓, 1,  

Immune & Inflammatory Signaling(tgid=16) ⓘ

COX1↓, 1,   COX2↓, 3,   IL6↓, 2,   IL8↓, 1,   Inflam↓, 1,   JAK↓, 1,   NF-kB↓, 2,   p‑NF-kB↓, 1,   PD-1↓, 1,   PD-L1↓, 1,   TNF-α↓, 1,  

Hormonal & Nuclear Receptors(tgid=20) ⓘ

CDK6↓, 4,  

Drug Metabolism & Resistance(tgid=21) ⓘ

ChemoSen↑, 1,   Dose↝, 1,   Dose∅, 2,   eff↑, 2,   RadioS↑, 3,   selectivity↑, 1,  

Clinical Biomarkers(tgid=22) ⓘ

ALP↓, 1,   EGFR↓, 1,   IL6↓, 2,   Ki-67↓, 1,   LDH↓, 2,   Myc↓, 1,   PD-L1↓, 1,  

Functional Outcomes(tgid=23) ⓘ

AntiCan↑, 1,   ChemoSideEff↓, 1,  
Total Targets: 134

Pathway results for Effect on Normal Cells:


Drug Metabolism & Resistance(tgid=21) ⓘ

BioAv↓, 1,  
Total Targets: 1

Scientific Paper Hit Count for: Casp3, CPP32, Cysteinyl aspartate specific proteinase-3
5 Ellagic acid
1 Radiotherapy/Radiation
Query results interpretion may depend on "conditions" listed in the research papers.
Such Conditions may include : 
  -low or high Dose
  -format for product, such as nano of lipid formations
  -different cell line effects
  -synergies with other products 
  -if effect was for normal or cancerous cells

Filter Conditions: Pro/AntiFlg:%  IllCat:%  CanType:%  Cells:%  prod#:74  Target#:42  State#:%  Dir#:%
  wNotes=0  sortOrder:rid,rpid

 

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