The application of nanoparticles in cancer immunotherapy: Targeting tumor microenvironment

Autor: Xianqun Fan, Jipeng Li, Muyue Yang, Ping Gu
Rok vydání: 2021
Předmět:
MDSCs
myeloid-derived suppressor cells

medicine.medical_treatment
PLGA
poly(lactic-co-glycolic acid)

Cancer immunotherapy
BTK
Bruton's tyrosine kinase

02 engineering and technology
CAFs
cancer associated fibroblasts

CCL
chemoattractant chemokines ligand

DSF/Cu
disulfiram/copper

melittin-NP
melittin-lipid nanoparticle

IFN-γ
interferon-γ

TNF-α
tumor necrosis factor alpha

ANG2
angiopoietin-2

Hypoxia
lcsh:QH301-705.5
cDCs
conventional dendritic cells

TME
tumor microenvironment

DMXAA
5
6-dimethylxanthenone-4-acetic acid

HB-GFs
heparin-binding growth factors

M2NP
M2-like TAM dual-targeting nanoparticle

ECM
extracellular matrix

IFP
interstitial fluid pressure

HIF
hypoxia-inducible factor

Tumor microenvironment
PDT
photodynamic therapy

Tregs
regulatory T cells

tdLNs
tumor-draining lymph nodes

0210 nano-technology
Ab
antibodies

BBB
blood-brain barrier

DMMA
2
3-dimethylmaleic anhydrid

SA
sialic acid

FDA
the Food and Drug Administration

PS
photosensitizer

Biomedical Engineering
Ag
antigen

Article
PD-1
programmed cell death protein 1

Biomaterials
TAMs
tumor-associated macrophages

lcsh:TA401-492
FAP
fibroblast activation protein

EPR
enhanced permeability and retention

NPs
nanoparticles

MPs
microparticles

NO
nitric oxide

Tumor therapy
scFv
single-chain variable fragment

medicine.disease
IL
interleukin

Radiation therapy
siRNA
small interfering RNA

Nanoparticles
TDPA
tumor-derived protein antigens

lcsh:Materials of engineering and construction. Mechanics of materials
HSA
human serum albumin

RLX
relaxin-2

Bcl-2
B-cell lymphoma 2

PSCs
pancreatic stellate cells

VDA
vasculature disrupting agent

Photodynamic therapy
CaCO3
calcium carbonate

Metastasis
AuNCs
gold nanocages

CTLA4
cytotoxic lymphocyte antigen 4

HPMA
N-(2-hydroxypropyl) methacrylamide

HA
hyaluronic acid

TIM-3
T cell immunoglobulin domain and mucin domain-3

TGF-β
transforming growth factor β

UPS-NP
ultra-pH-sensitive nanoparticle

IBR
Ibrutinib

MCMC
mannosylated carboxymethyl chitosan

α-SMA
alpha-smooth muscle actin

021001 nanoscience & nanotechnology
VEGF
vascular endothelial growth factor

TAAs
tumor-associated antigens

LPS
lipopolysaccharide

APCs
antigen-presenting cells

Delivery system
DCs
dendritic cells

NF-κB
nuclear factor κB

PHDs
prolyl hydroxylases

EMT
epithelial-mesenchymal transition

TLR
Toll-like receptor

Biotechnology
PFC
perfluorocarbon

0206 medical engineering
CAP
cleavable amphiphilic peptide

SPARC
secreted protein acidic and rich in cysteine

TfR
transferrin receptor

CTL
cytotoxic T lymphocytes

ODN
oligodeoxynucleotides

nMOFs
nanoscale metal-organic frameworks

ROS
reactive oxygen species

AuNPs
gold nanoparticles

medicine
EPG
egg phosphatidylglycerol

CAR-T
Chimeric antigen receptor-modified T-cell therapy

Chemotherapy
business.industry
AC-NPs
antigen-capturing nanoparticles

TIE2
tyrosine kinase with immunoglobulin and epidermal growth factor homology domain 2

020601 biomedical engineering
EGFR
epidermal growth factor receptor

LMWH
low molecular weight heparin

PTX
paclitaxel

lcsh:Biology (General)
Cancer research
MnO2
manganese dioxide

NK
nature killer

sense organs
business
RBC
red-blood-cell
Zdroj: Bioactive Materials
Bioactive Materials, Vol 6, Iss 7, Pp 1973-1987 (2021)
ISSN: 2452-199X
DOI: 10.1016/j.bioactmat.2020.12.010
Popis: The tumor development and metastasis are closely related to the structure and function of the tumor microenvironment (TME). Recently, TME modulation strategies have attracted much attention in cancer immunotherapy. Despite the preliminary success of immunotherapeutic agents, their therapeutic effects have been restricted by the limited retention time of drugs in TME. Compared with traditional delivery systems, nanoparticles with unique physical properties and elaborate design can efficiently penetrate TME and specifically deliver to the major components in TME. In this review, we briefly introduce the substitutes of TME including dendritic cells, macrophages, fibroblasts, tumor vasculature, tumor-draining lymph nodes and hypoxic state, then review various nanoparticles targeting these components and their applications in tumor therapy. In addition, nanoparticles could be combined with other therapies, including chemotherapy, radiotherapy, and photodynamic therapy, however, the nanoplatform delivery system may not be effective in all types of tumors due to the heterogeneity of different tumors and individuals. The changes of TME at various stages during tumor development are required to be further elucidated so that more individualized nanoplatforms could be designed.
Graphical abstract Image 1
Highlights • In responsive to the changes in TME, nanoparticles target tumor microenvironment and enhance the therapeutic effect. • Nanoparticles modulate the activation and maturation of DC. • Nanoparticles could reprogram polarization of TAM and relieve hypoxia. • Nanoparticles could transfer the immunosuppressive TME to immunosupportive.
Databáze: OpenAIRE