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. 2022 Sep 24;14(19):4654. doi: 10.3390/cancers14194654

Table 1.

Resume of NPs for theranostic applications. not reported: n.r.

Inorganic NPs
Size and Superficial Charge Diagnosis Therapy Model Ref.
Iron Oxide NPs Size 45.7 nm
ζ-potential n.r.
Magnetic Resonance Imaging Magnetic resonance-guided focused ultrasound surgery In vitro H460 cells
In vivo H460 xenograft mice
[37]
Iron Oxide NPs Size 50.8 nm ± 5.2
ζ-potential n.r.
Magnetic Resonance Imaging Doxorubicin In vitro 4T1 cells
In vivo 4T1 xenograft mice
[38]
Iridium oxide NPs Size 55.0 nm
ζ-potential −0.40 mV
Fluorescence imaging Doxorubicin Photothermal Therapy In vitro HepG2 cells
In vivo HepG2 xenograft mice
[40]
MOF
Fe3O4@UiO-66
Size 241.5 nm ± 28.5
ζ-potential −25.7 mV ± 5.2
Magnetic Resonance Imaging Doxorubicin In vitro HeLa cells
In vivo HeLa-tumor bearing mice
[44]
MOF
NaGdF4:Yb/Er@MIL-53(Fe)
Size 245 nm ± 5.0
ζ-potential n.r.
Magnetic Resonance Imaging Doxorubicin In vitro B16−F10 and HEK293 cells [45]
Gold NPs Size 26.5 nm ± 1.1
ζ-potential n.r.
Fluorescence imaging Photodynamic Therapy In vitro PC-3 cells
In vivo PC-3 xenograft mice
[49]
Gold NPs Size 390.0 nm
ζ-potential n.r.
Photoacoustic imaging Photothermal Therapy In vitro U-87MG cells
In vivo U-87MG xenograft mice
[50]
Lanthanide-doped NPs NaYF4:Yb, Tm@NaYF4:Eu Size 141.9 nm
ζ-potential −20.2 mV
Upconversion luminescence imaging Photodynamic Therapy In vitro AGS cells
In vivo AGS xenograft mice
[56]
Lanthanide-doped NPs NaLuF4 Size 20 × 130 nm
ζ-potential n.r.
NIR-II imaging Photothermal therapy In vitro HeLa cells
In vivo HCT 116 xenograft mice and LLC
[55]
Silicon-based Size 407.0 nm ± 29.0
ζ-potential −17.0 mV ± 2.16
Photoacoustic Imaging Photothermal therapy
Doxorubicin
In vitro MCF10a and HS578T cells [20,57,58]
Silicon-based Size 13.5 nm
ζ-potential n.r.
PET imaging Radiotherapy In vivo 4T1 tumor-bearing mice [59]
Organic NPs
PLGA-based NPs Size 282.1 nm ± 6.2
ζ-potential −9.7 mV ± 1.4
Magnetic Resonance Imaging Radio frequency hyperthermia
Docetaxel
In vitro MCF7 cells
In vivo S180 xenograft mice
[65]
PLGA-based NPs Size 185.1 nm ± 3.3
ζ-potential −1.2 mV ± 0.7
Photoacoustic imaging Photothermal therapy In vitro MDA-MB-231 cells
In vivo MDA-MB-231 xenograft mice
[26]
PLGA-based NPs Size 248.3 nm
ζ-potential −14.7 mV
Magnetic Resonance Imaging
Dual-modal ultrasound
Photothermal therapy In vitro SKBR3 and MDA-MB-231 cells [67]
Chitosan-based NPs Size 184.3 nm ± 4.4
ζ-potential + 17.33 mV ± 1.5
Magnetic Resonance Imaging Doxorubicin In vitro C6 cells [68]
Chitosan-based NPs Size 92.2 nm
ζ-potential + 24.0 mV
Fluorescence imaging Nucleic acid In vitro HeLa cells [69]
Liposomes-based NPs Size 95.0 nm
ζ-potential n.r.
Positron Emission Tomography
Fluorescence
Photoacoustic imaging
Photodynamic therapy
AQ4N
In vivo 4T1 Balb/c mice [72]
Liposomes-based NPs Size 150–300 nm
ζ-potential + 13.2 mV
Fluorescence imaging Photothermal therapy
Doxorubicin
In vitro MDA-MB-231 and 4T1 cells
In vivo 4T1 Balb/c mice
[73]
Albumin NPs Size 142.2 nm ± 4.86
ζ-potential −30 mV
Fluorescence imaging Photodynamic therapy
Photothermal therapy
Paclitaxel
In vitro 4T1 cells
In vivo 4T1 Balb/c mice
[75]
Virus like-NPs Size 212.0 nm ± 3.40
ζ-potential n.r.
Fluorescence imaging Doxorubicin In vitro 4T1and MDA-MB-231 cells
In vivo 4T1 Balb/c mice MDA-MB-231 and PC-3 xenograft mice
[78]
Red Blood cells-based NPs Size about 7 µm
ζ-potential n.r.
Magnetic Resonance Imaging
Fluorescence imaging
Photodynamic therapy
Doxorubicin
In vitro 4T1 cells
In vivo 4T1 Balb/c mice
[81]
Red Blood cells-based NPs Size 79.0 nm
ζ-potential n.r.
Fluorescence imaging Photodestruction In vitro SKBR3 cells
In vivo SKBR3 xenograft mice
[82]