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. 2024 May 7;24:160. doi: 10.1186/s12935-024-03331-3

Table 2.

Application of some NPs in glioblastoma combination

Combination therapy
Treatment modality Nanocarriers Cancer cell types Loading efficiency Release rate Animal models Refs.
Hyperthermia-chemotherapy Fe(Salen) U251 - -

U251 bearing

Mice

[155]
Magnetite chemo-hyperthermia Magnetite nanoparticles functionalized with folic acid ligand C6 65.6%

10 min

pH 7.4

43 °C

44.4%

- [156]
chemo-photothermal therapy PLGA functionalized with angiopep-2 peptide U87MG 78.6% - Tumor bearing mice [157]
Chemo-immunotherapyc MSN-SS-CD-iRGD&1MT nanoparticle GL261-luc - - GL261-luc bearing C57BL/6 mice [158]
Magnetothermal chemotherapy Fe-TSL U87 cells and U251 cells 19.75% 80% in 10 min at 42 °C - [159]
Hyperthermia and chemotherapy lipid-based magnetic nanovectors U-87 MG 4.1% pH 7.4 7 day 65.8% - [160]
Gene therapy hyperthermia Cationic liposomes U251-S - - Tumor bearing mice [161]
Chemotherapy and hyperthermia Liposomes C6 - 80% after 10 min, 37 °C C6 bearing rats [162]
Photodynamic Therapy and Chemotherapy Cu2-xSe nanoparticles U87 - 72 h, 11% at pH = 7.4 mice bearing orthotopic malignant glioblastoma [163]
Ultrasound, Chemotherapy lipid-polymer T98G U251 U87 MG 2.5% pH 4.5, 48 h, 12.5% - [164]
Radiation- gene therapy-immunotherapy

solid lipid

nanoparticle (SLN) functionalized with cyclic peptide iRGD

U87

GL261

- - Glioblastoma bearing mouse [165]
Radiotherapy and Immunotherapy AuNPs G261 - -

tumor-bearing C57BL/6 mice

G261 tumor-bearing mice

[166]