Table 3.
Liver Targeting Strategy of Rg3
| Complex ingredients | Model | Types | Activity and Mechanisms | References |
|---|---|---|---|---|
| Liposomes co-loaded with ursolic acid and Rg3 | In vitro | HepG2 | Affecting apoptosis, cell cycle, and cell proliferation, thereby slowing down the drug release ability in vitro | [94] |
| A nanostructured lipid carrier coated with hyaluronic acid and loaded with oleanolic acid, ursolic acid, and Rg3 | In vivo | Nude mice with tumor | Increased concentrations of the drugs and prolonging their duration in the circulation | [95] |
| A self-micro emulsifying drug delivery system consisting of Rg3, ganoderma lucidum polysaccharide, and oridonin | In vitro | HepG2 Huh7 |
Inhibiting the progression of HCC by targeting multiple pathways and the drug was found to be safe during the acute toxicity tests | [96] |
| Fe@Fe3O4 nanoparticles co-loaded Rg3 | In vivo | Dimethylnitrosamine-induced HCC model | Significantly increased the lifespan of HCC mice in a dimethylnitrosamine-induced HCC model and having a significant inhibitory effect on the development of HCC | [97] |
| Graphene oxide, Rg3, and doxorubicin | In vitro | Huh7 | Significantly reduced the viability of liver cancer cells | [98] |
| The micron- and nano- conjugate linoleic acid vesicles co-loaded Rg3 | / | / | The micron vesicles had a significantly higher loading capacity and encapsulation efficiency compared to the nano- conjugate linoleic acid vesicles. This finding could have positive implications for the field of food and drug delivery science | [99] |
| Lactoferrin co-loaded Rg3 | / | / | Overcomed the non-water-soluble disadvantage of Rg3 | [100] |