Table 2.
Target Disease | Cell Membrane Isolated from | Core Nanoparticle | Drug/Surface Modification | Strategy | Ref |
---|---|---|---|---|---|
Cancer | |||||
Breast cancer | MCF-7 | MOF | CRISPR/Cas9 | Homologous tumor targeting | [1] |
MDA-MB-231 | Rare-earth doped nanoparticle | - | Homologous tumor targeting Tumor imaging in NIR-II window |
[5] | |
4T1 | MnO2-coated MOF | Apatinib | Homologous tumor targeting Introducing photosensitive porphyrinic into MOF for enhanced PDT |
[6] | |
RBC and MCF-7 | Melanin nanoparticle | - | Prolonged circulation half-life and homotypic tumor targeting Generating hyperthermia to increase PTT efficacy |
[2] | |
Fibroblasts activated with TGF-β1 | Semiconducting polymer nanoparticle | Targeting cancer-associated fibroblasts Generating NIR fluorescence and photoacoustic signals for imaging Generating singlet oxygen and heat for combined PDT and PTT |
[7] | ||
MCF-7 | MSN | DOX and MPH | Homologous tumor targeting High drug loading |
[19] | |
RBC | Magnetic MSN | HB | Prolonged circulation High drug loading Tumor accumulation via magnetic navigation for improved PDT |
[3] | |
RBC | Semiconducting polymer nanoparticle | - | Prolonged circulation Photoacoustic imaging and PTT |
[74] | |
Macrophage | pH-sensitive nanoparticle | PTX/IGF1R-targeting ligand | Membrane-derived tumor homing Improved intracellular uptake by decorated with the IGF1R targeting ligand H+-adsorbing proton sponge effect accelerating endosomal escape of the nanoparticle Controlled drug release in the acidic intracellular environment |
[42] | |
4T1 | MOF | TPZ | Homologous tumor targeting High drug loading in porous coordination network of MOF ROS generation under light irradiation |
[75] | |
RBC | MOF | ICG and oxygen | Prolonged circulation Facilitating O2 release from MOF by converting NIR light into heat O2-evolving PDT |
[4] | |
Natural killer cell | PLGA nanoparticle | TCPP | Tumor targeting via interactions between NKG2D and DNAX accessory molecule 1 Photosensitizer delivery for improved PDT Cascade immunotherapy |
[76] | |
Platelet | MOF | Survivin siRNA | Tumor targeting High siRNA loading and minimal toxicity |
[17] | |
Cervical carcinoma | RBC | PEG-b-PDLLA nanoparticle | PTX dimer and TPC | Prolonged circulation Generating ROS under light irradiation for PDT and for triggering on-demand PTX release for chemotherapy |
[77] |
Head and neck squamous cell carcinoma (HNSCC) | HNSCC patient-derived tumor cell | Gelatin nanoparticle | Cisplatin (Pt) | Homologous tumor targeting | [78] |
Platelet and NHSCC cancer stem cell | Iron oxide nanoparticle | - | Homologous tumor targeting of cancer stem cell membrane Immune evasion of platelet membrane Optical adsorption ability and magnetic properties for PTT and MRI |
[20] | |
Oral squamous cancer | KB | Gold nanorod | Homologous tumor targeting Perinuclear accumulation Combination of photothermal therapy and radiotherapy |
[79] | |
Melanoma | CD80-overexpressing B16 | PLGA nanoparticle | - | Promoting activation of the cognate T cells | [13] |
OVA-expressing B16 | PLGA nanoparticle | R837/Mannose modification | Vaccination with enhanced intracellular uptake by antigen-presenting cells by mannose modification Checkpoint blockade therapy |
[15] | |
Myeloid-derived suppressor cell | Iron oxide nanoparticle | Homologous tumor targeting and immune escape PTT-induced tumor-killing PTT-mediated antitumor response |
[21] | ||
Glioma | RBC | Drug crystal | DTX/modified with tumor-targeting peptide c | High drug loading Prolonged blood circulation Active tumor targeting |
[80] |
Colorectal carcinoma | RBC | MOF | GOx, TPZ | Prolonged blood circulation Tumor hypoxia by GOx-based starvation therapy Starvation-activated TPZ activation |
[22] |
Vascular related disease | |||||
Choroidal neovascularization (CNV) | RBC-REC | PLGA nanoparticle | - | Reducing phagocytosis by macrophages using RBC membranes Improved accumulation in CNV regions using REC membranes Neutralizing VEGF by inheriting VEGF receptors of REC membranes |
[70] |
Peripheral vessel disease (PVD) | CXCR4-overexpressed hASC | PLGA nanoparticle | VEGF | Reduced phagocytosis and promoted penetration across inflamed endothelial barrier using engineered cell membrane Targeted VEGF delivery to ischemic injury |
[81] |
Stroke | CXCR4-overexpressed NSC | PLGA nanoparticle | Glyburide | Chemotactic interaction with SDF-1, enriched in the ischemic microenvironment Targeted delivery of the anti-edema agent, glyburide for stroke treatment |
[12] |
Atherosclerosis | Platelet | PLGA nanoparticle | Gadolinium | Atherosclerosis targeting Live detection of atherosclerotic sites by MRI imaging |
[82] |
Platelet |
PAAO-UCNP |
Ce6 photosensitizer | Atherosclerosis targeting ROS-induced apoptosis by SPECT/CT-guided PDT |
[41] | |
RAW 264.7 | PLGA nanoparticle | Rapamycin | Inhibiting phagocytosis Atherosclerosis-targeted drug delivery |
[83] | |
Inflammation | |||||
Lung inflammation | VLA-4-expressed leukemia cell | PLGA nanoparticle | DEX | Enhanced affinity to target inflamed endothelial cells via VCAM-1 and VLA-4 interaction Anti-inflammatory drug delivery to inflamed sites |
[14] |
Gout | Macrophage | MOF | Uricase | High-yield enzyme loading Inflammation-targeted enzyme delivery Inflammatory cytokine-neutralization |
[11] |
Rheumatoid arthritis | Neutrophil | PLGA nanoparticle | Decoying neutrophil-targeted biological molecules Neutralizing pro-inflammatory cytokines Increased penetration into the cartilage matrix |
[84] | |
Infection | |||||
Skin infection by streptococcus | RBC | PLGA and chitosan nanoparticles | Toxin neutralization Prolonged retention by forming a gel-like complex |
[85] | |
Methicillin-resistant staphylococcus aureus infection | RBC | pH-sensitive nanogel | Vancomycin | Toxin neutralization Redox-responsive antibiotics delivery |
[35] |
Bacterial infectious disease | E. coli | Gold nanoparticle | Anti-bacterial vaccination Targeted activation of dendritic cells in lymph nodes, triggering subsequent immune responses |
[60] | |
Human immunodeficiency virus infection | SUP-T1, a human T lymphoblast cell line | PLGA nanoparticle | Viral targeting via CD4 receptor and CCR5 or CXCR4 coreceptors Decoying T cell-targeted virus, blocking viral entry and infection |
[86] |
MOF, metal-organic framework; RBC, red blood cell; NK, natural killer; ASC, adipose-derived stem cell; NSC, neural stem cell; PDT, photodynamic therapy; PTT, photothermal therapy; NIR, near-infrared; MSN, mesoporous nanoparticle; DOX, doxorubicin; MPH, mefuparib hydrochloride; HB, hypocrellin B; PTX, paclitaxel; TPZ, tirapazamine; ICG, indocyanine; TCPP, 4,4′,4′′,4′′′-(porphine-5,10,15,20-tetrayl) tetrakis (benzoic acid); PEG-b-PDLLA, methoxypoly(ethylene glycol)-block-poly(D,L-lactide); OVA, ovalbumin; DTX, docetaxel; GOx, glucose oxidase; REC, retinal endotheliocyte; VEGF, vascular endothelial growth factor; CXCR4, C-X-C Motif Chemokine Receptor 4; SDF-1, stromal cell derived factor 1; PAAO-UCNP, lanthanide-doped upconversion nanoparticles (UCNPs) incorporated into polyacrylic acid-n-octylamine (PAAO) micelles; ROS, reactive oxygen species; SPECT/CT, single-photon emission computed tomography/computed tomography; VLA-4, very late antigen-4; DEX, dexamethasone; VCAM-1, vascular cell adhesion molecule 1; CCR5, C-C chemokine receptor type 5.