From: Advances in blood–brain barrier-crossing nanomedicine for anti-glioma
Modality | Design system | Therapeutic efficacy |
---|---|---|
Chemotherapy | TMZ; angiopep-2 (A2)-modified polymeric micelle (A2PEC); small interfering RNA (SiPLK1) | Targeting; crossing BBB; improve TMZ sensitivity (Shi et al. 2020) |
PTX; Aptamer AS1411; PLGA-PEG | Targeting tumor cells; enhancing the aggregation of PTX at the tumor site (Guo et al. 2011) | |
TMZ; liposome-BC | Targeting; enhance treatment effectiveness (Arcella et al. 2018) | |
Combined therapies | ||
Chemotherapy/Gene therapy | Polyethyleneimine; poly[(poly(2-diisopropylamino/2-mercaptoethylamine) ethyl aspartate]; cytosine deaminase (CD) gene; 5-fluorocytosine (5-FC) | Effective CD gene transfection and expression; PH-responsive; crossing BBB (Wang et al. 2014) |
Iron oxide nanoparticles; folate (FA); Pt; siGPX4 | Targeting tumor cells; inhibited GPX4 expression; creating reactive oxygen species that trigger ferroptosis (Zhang et al. 2020a) | |
Anti-miR-21; ApoE; poly(amine-co-ester) | Locally delivery of miRNA; improve the stability of nanoparticle and improve intracranial distribution (Seo et al. 2019) | |
Chemotherapy/Immunotherapy | High-density lipoprotein; cytosine guanine (CpG); tumor-specific neoantigens; PD-L1 | Targeting tumor cells, specific T-cell response; immunological memory; glioma regression (Scheetz et al. 2020) |
AuNPs; DOX; hydroxychloroquine; PD-L1 | Enhancing the aggregation of DOX; autophagy inhibition; blocking the immunosuppressive pathway (Ruan et al. 2019) | |
Chemotherapy/SDT | Porphyrin-phospholipid liposome; DOX; | Enhancing the nuclear uptake; improving the aggregation of DOX at the tumor site (Wang et al. 2018) |
Sonosensitizer IR780; paclitaxel prodrug; ROS-responsive thioketal linkers; | ROS generation; controlled release of PTX; synergic cell-killing effects (Wang et al. 2014) | |
Chemotherapy/CDT | TMZ; internalizing arginine-glycine-aspartic acid; cationic liposome; MnO | Targeting tumor cells; TME-responsive; reducing tumor hypoxia; lowering the drug resistance (Tan et al. 2020) |
DOX; metal-tea polyphenol; epigallocatechin-3-gallate; hyaluronic acid | Targeting tumor cells; GSH depletion; Fenton reaction; amplify oxidative stress; crossing BBB (Mu et al. 2021) | |
Chemotherapy /PDT | Transferrin; aptamer AS1411; [Ru(bpy)2(tip)]2 + ; mesoporous ruthenium nanoparticles; | Targeting tumor cells; crossing BBB; ROS generation (Zhu et al. 2018) |
Polydopamine; DOX; magnetic mesoporous silica; photosensitizer chlorin e6; Human serum albumin | PH-responsive; magnetic field navigation; ROS generation; glioma regression; targeting tumor cells (Tang et al. 2018) | |
Chemotherapy /PTT | Graphene quantum dots; cancer cell membrane; DOX; | Targeting; crossing BBB; hyperthermia; good biosafety (Ren et al. 2022) |
Angiopep-2; amino acid-conjugated camptothecin; lysine; arginine; canine dyes | PH-responsive, effective glioma accumulation; hyperthermia; targeting; crossing BBB (Lu et al. 2021) | |
Chemotherapy /MH | TMZ; superparamagnetic iron oxide nanoparticles; lipid magnetic nanovectors; transferrin receptor | Targeting; crossing BBB; local heating; remote activation (Marino et al. 2019) |
TMZ; magnetic polymer nanoparticles; folic acid | Targeting; crossing BBB; hyperthermia (Afzalipour et al. 2021) | |
Chemotherapy /Starving therapy | Aptamer-like peptide (APTEDB); PTX; | High cellular accumulation; dual-targeting; antiangiogenic (Gu et al. 2014) |
DOX; glucose oxidase; metal–organic framework; tumor targeting ligands (RGD) | Tumor-targeting, high blood retention time; Depletion of glucose and oxygen; TME-responsive (Ke et al. 2022) |