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Table 1 Carrier-mediated combination of chemotherapy drugs and cytokines

From: Nanoparticle-mediated synergistic chemoimmunotherapy for tailoring cancer therapy: recent advances and perspectives

Carrier design (Structure/Injection route)

Chemotherapy agent

Cytokines

Tumor type

Synergic actions and advantages of NPs in the combination

Refs.

Polymeric NPs (TMC/SC)

DOX

rhIL-2

Hepatic tumor

Protection of rhIL-2 from enzymolysis without any damage on its bioactivity

Considerable inhibition of tumor growth and enhancement of IgG and CTLs levels compared with free drug

[142]

Hybrid NPs (Lipid coated MSNs/IV)

ATRA + IL-2

Melanoma

Enhancement of anti-tumor efficacy and considerable delay in tumor growth and metastasis

Activation of TILs and NK cells

Induction of IL-12 and IFN-γ secretion and downregulation of MDSCs, IL-10, and TGF-β

[120]

Polymeric NPs (PLGA as core and PEO–PPO–PEO as shell/IV)

IFN-γ

Excellent synergistic anti-tumor efficiency

Activation of CD4+ T cells, CTLs, and NK cells

Induction of IL-2 and TNF-α secretion and downregulation of expression of IL-10 and TGF-β

[143]

Hydrogel NPs (PELG-PEG-PELG)

IL-2 + IFN-γ

Increased anti-tumor efficacy toward free drugs due to sustained release of drugs

Increased proliferation of CD3+/CD8+ and CD3+/CD4+ T cells

[144]

Cell-derived nanovesicles (DC 2.4/IV)

IL-2, IL-2 + IFN-γ

Melanoma and breast cancer

Efficient inhibition of primary 4T1 tumor progression and lung metastasis of breast cancer

Enhancement of DC maturation, promotion of infiltration and activation of CD8+ cells and NK cells

Increase in recruitment of Ly6G+ neutrophils and CD45+ immune cells

[145]

Nanogels (PPLG and HPCS/PPLL/SC)

rhIL-2 + rhIFN-γ

NSCLC and breast cancer

Prolonged and continuous release of payloads

Significant inhibition of tumor cell proliferation

Synergistic anti-cancer efficacy via regulation of apoptosis-related genes in xenograft tumor-bearing mice

[146]

Polymeric NPs (PLGA-mPEG-PLGA/IV)

PTX

IL-2

Melanoma

Remarkable inhibition of tumor growth and metastasis

Prolonged overall survival of treated mice in comparison to chemotherapy or cytokine therapy alone

Promotion of tumor immunogenicity and the anti-tumor response of immune cells

[147]

Nanogels (Erythrocyte membrane coated nanogels/IV)

Metastatic melanoma (lung metastasis)

Extended in vivo circulation time

Increase in anti-tumor activity and improvement in lung metastasis inhibition of PTX/IL-2 loaded nanogel compared to PTX or IL-2 loaded nanogel alone

Decrease in number of immune-suppressive cells and enhancement of immune effector cells in the TME

[148]

Polymeric NPs (mPEG-PDLLA as core and pluronic F127 as shell/IV)

IL-12

Breast cancer

Significant accumulation of NPs in tumor cells because of their acid-sensitive property

Activation of immune effector cells like T cells and NK cells

Modulation of the immunosuppressive TME by inhibiting TregS and inducing differentiation of M1-type MQs

Prolonged survival of tumor-bearing mice

[149]

Polymeric hydrogels (mPEG-b-PELG-based hydrogels/SC)

CDDP

IL-15

Melanoma

Inducing cell cycle arrest, synergistic anti-cancer efficacy, and reduced systemic toxicity compared to monotherapy

Enhanced anti-tumor immunity owing to suppression of TregS and activation of NK cells and CTLs

[150]

  1. TMC N,N,N-trimethyl chitosan, rhIL-2 recombinant human IL-2, SC subcutaneous, IgG immunoglobulin G, ATRA all-trans retinoic acid, IV intravenous, PLGA poly(lactic-co-glycolic acid), PEO poly(ethylene oxide), PPO poly(propylene oxide), PEG poly(ethylene glycol), PDLLA poly(ethylene glycol)-block-poly(d,l-lactic acid), PPLG poly(ethylene glycol)-b-poly(L-glutamic acid), PELG poly(ethylglutamate), HPCS/PPLL hydroxypropyl chitosan/poly(ethylene glycol)-b-poly(L-lysine)