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©The Author(s) 2022.
World J Stem Cells. Jan 26, 2022; 14(1): 1-40
Published online Jan 26, 2022. doi: 10.4252/wjsc.v14.i1.1
Published online Jan 26, 2022. doi: 10.4252/wjsc.v14.i1.1
Nanotechnology field | Types of nanoparticles | Type of cardiac disease/stem cells | Type of research | Outcomes | Ref. |
Tissue engineering | Semi-crystalline PLLA nanostructured membranes among several PLGA membranes | Non-diseased/primary CMs | In vitro: electrospun matrices were used as scaffolds for generating cardiac tissue constructs | Nanostructured non-woven PLLA scaffolds provide flexibility and guidance for CMs growth and can be successfully applied to obtain structurally and functionally competent cardiac tissue constructs. | [201] |
Tissue engineering | ECM-mimicking nanofibrous PLLA scaffolds with porous structure (porous NF PLLA) of high interconnection for cardiac tissue formation | Non-diseased/mouse ESCs | In vitro: CPCs with porous NF PLLA | In vitro: porous NF PLLA scaffolds facilitate cell attachment, extension, and differentiation. | [202] |
In vivo: male athymic nude mice | |||||
In vivo: subcutaneous implantation of cell/scaffold supports survival of grafted cells and differentiation to CMs, SMCs, ECs lineages. | |||||
CPCs | |||||
Tissue engineering/therapeutic | Biodegradable ANF | MI/hiPSCs-CMs | In vitro: hiPSCs (253G1) | In vitro: multilayered, elongated, organized CMs at high density along ANF, with up regulation of genes of sarcomere structures (ACTN2, TNNT2, TNNI3), cardiac maturation (MYH7), ventricular structures (MYL2, HAND2). | [203] |
In vivo: nude rat | |||||
In vivo: CTLCs improve MI functionally due to transplantation of organized functional CMs. | |||||
Tissue engineering | Electroactive Au-Lap NPs loaded myocardial ECM | Non diseased/Resident CSCs | In vitro: rat CMs from 2-d old neonatal rats | Combination of electrically active nano-formulations and biologically active ECM boost the expression of cardiac-specific proteins (SAC, cTnl, Cx43). | [204] |
Therapeutic | Self-assembling peptide nanofibers tethered with insulin-like growth factor-1 (NF-IGF-1) | MI/CPCs | In vitro: clonogenic CPCs | In vitro: NF-IGF-1 promote CPCs division (↑BrdU) and protect them from death signal (↓TdT). | [207] |
In vivo: CPCs-NF-IGF-1 enhance postinfarction ventricular remodeling, attenuate chamber dilation, and improve cardiac performance. | |||||
In vivo: female Fischer 344 rats | |||||
Therapeutic | Transplantation of self-assembling nanopeptides: Cell-PM complex | MI/cSCA-1+ cardiac progenitors Other stem cells BM, SM, AMC | In vivo: Wild-type mice (C57Bl/6J); Adult GFP transgenic mice | cSCA-1/PM attenuates ventricular enlargement, restore cardiac function, with high capillary density (↑vWF) and conductive vessels (↑αSMA, ↑VEGF). | [208] |
↓TUNEL+ CMs in the infarct area of cSCA-1/PM. | |||||
Therapeutic | CMMP contained control-released stem cell factors in its polymeric core and cloaked with hCSC membrane fragments on the surface | MI/Human CSCs | In situ: characterization | In situ: CMMPs express hCSC surface markers. | [209] |
In vitro: NRCM | |||||
In vivo: male SCID Beige mice | |||||
In vitro: CMMPs promote NRCM contractility and proliferation. | |||||
In vivo: CMMPs preserve viable myocardium, augment cardiac functions, with safety profile. | |||||
Therapeutic and drug delivery tool | Statin PLGA nanoparticles | MI/hAdSCs | In vivo: male nude mice (BALB/c nu/nu) | A small number of intravenously administered SimNP-loaded AdSCs improve cardiac function following MI, stimulating endogenous cardiac regeneration in the infarcted myocardium. | [244] |
Tracking of treatment | Colloidal nanoparticles containing europium loaded on collagen matrix | MI/Lewis rat BM-MSCs | In vivo: female Fischer rat | Collagen matrix enhance transplanted MSC retention and reduce migration of the cells into remote organs as tracked by the radioactive NPs. | [211] |
Tracking and magnetic targeting of treatment | Superparamagnetic iron microspheres | MI/Rat CDCs | In vitro: rat CDCsIn vivo: female WKY rats | In vitro: ↓caspase 3+, ↓TUNEL+. | [212] |
In vivo: enhanced cell engraftment, with attenuated left ventricular remodeling and increased ejection fraction. ↑GFP+, ↑Ki67+ CMs, and ↑GFP−/c-KIT+ cells. | |||||
Imaging and therapeutic by magnetic targeting | Ferumoxytol (FDA-approved SPIONs) nanoparticles linked by heparin sulfate and protamine sulfate | MI/Human and ratCDCs | In vitro: hCDCs and rCDCs | In vitro: ↓TUNEL+, ↓ROS and ↑CCK-8, ↑Ki67. | [213] |
In vivo: augmentation of acute cell retention and attenuation of left ventricular remodeling, 3 wk after treatment by MRI, fluorescence imaging, qPCR. | |||||
In vivo: female WKY rats | |||||
Imaging and tracking for differentiation | Potassium niobate harmonic nanoparticles stabilized by polyethylene glycol | Non-diseased/ESC-derived CMs | In vitro: mouse ESC (CGR8 cell line) | Monitoring at high acquisition speed the rhythmic contractions of ESC-derived CMs beating within 3D cluster. | [245] |
Therapeutic by magnetic guidance of NPs | Iron oxide nanoparticle-incorporated nanovesicles (exosome memetic nanovesicles); (IONP-NVs) | MI/MSCs | In vitro: rat CM, rat CFs, macrophage, HUVECs. | In vitro: under hypoxia IONP-MSCs exert | [217] |
Antiapoptotic effect on CMs: ↓caspase 3+, ↑Cx43, ↑PI3K. | |||||
Antifibrotic effect on CFs: ↑Cx43, ↓TGFβ1, ↓αActa2, ↓MMP2, ↓MMP9. | |||||
Anti-inflammatory effect on macrophage. | |||||
In vivo: Fischer 344 rats | |||||
Proangiogenic effect on HUVECs: ↑tube formation, ↑EC migration. | |||||
In vivo: magnetic guidance increases IONP-MSCs retention within the infarcted heart, with early shift from inflammatory stage to reparative stage. |
Study name, NCT Number | Start year | Study phase | Cardio-vascular disease | Patients number | Type of cardiac stem cells/origin | Route of delivery /count of cells | Timing of cell delivery | Follow up times | Imagingtechniques | Outcomes | Ref. |
CADUCEUS, 00893360 | 2009 | 1 | IHD | 17 | Autologous CDCs/endomyocardial biopsies | IC/12.5-25 × 106 | 1.5-3 m post STEMI | 6 mo | MRI | Significant reduction in infarct size | [221] |
Significant growth in viable mass global LVEF remains unchanged LVEF and volumes. | |||||||||||
ALLSTAR, 01458405 | 2017 | I/II | IHD | 90 | Allogenic CDCs/endomyocardial biopsies | IC/25 × 106 | < 5 d post MI | 12 mo | MRI | No effect on scar sizeAttenuation of post infarct cardiac remodeling | [222] |
Improvement in LV end diastolic volume | |||||||||||
ALCADIA, 00981006 | 2010 | I | CHFIHDVD | 6 | Autologous hCSCs/endomyocardial biopsies + bFGF on gelatin hydrogel sheet | IM/0.5 × 106 /kg and 200 µg of bFGF | At CABG | 12 mo | Not mentioned | Decreased scar size | [229] |
ESCORT, 020579000 | 2013 | I | IHD | 6 | ESCs-derived ISL1+ CSCs | Epicardial patch 5-10 × 106 CSCs embedded in a fibrin patch | At CABG | 18 mo | CT | Symptomatically improved patients with an increased systolic motion of the cell- treated segments. | [223] |
PET scan | |||||||||||
The protocol generated a highly purified population of cardiovascular progenitors. | |||||||||||
Echo | |||||||||||
One patient died of heart failure after 22 mo | |||||||||||
CAREMI, 02439398. | 2014 | I/II | AMI | 55 | Allogeneic hCSCs/right atrial appendage | IC/35 × 106 cells | 5 to 7 d after successful reperfusion of AMI by PCI or 8 d from symptoms onset | 1 wk, 1, 2, 3, 4, 5, 6, 9 and 12 mo | MRI | Allogeneic CSCs intracoronary infusion early after AMI is safe and anticipates reasonable efficacy outcomes | [227] |
ECG | |||||||||||
CONSERT-HF, 02501811. | 2015 | II | HF | 125 | Autologous c-KIT+ CPCs + MSCs/right ventricular endocardial biopsy + Bone marrow aspiration | Trans endocardial/150 × 106 MSCs and 5 × 106 CPCs | 14 wk after cell harvest | 6 and 12 mo | MRI | Increased LVEF | [230] |
Treadmill | |||||||||||
Decrease in infarct size with LV end systolic volume reduction. | |||||||||||
Questionnaire | |||||||||||
Strong safety profile | |||||||||||
HOPE, 02485938 | 2015 | I\II | CM secondary to DMD | 25 | Allogeneic CDCs | IC/75 × 106 | Not specified | 12 mo | MRI | Significant scar reduction improvement in inferior wall systolic thickening compared to the usual care group. | [228] |
Questionnaire | |||||||||||
CDCs are generally safe and well-tolerated | |||||||||||
DYNAMIC, 02293603 | 2014 | I | Idiopathic dilated CM | 42 | Allogeneic CDC/not specified | IC/Stepwise dose escalation | Not specified | 6, 12 mo | ECG | Not published | _ |
Cardiac enzymes | |||||||||||
TICAP, 01273857 | 2011 | I | HLHS | 7 | Autologous CDCs/right atrial appendage | IC/0.3 × 106 cells/kg | 1 m after cardiac surgery | 36 mo | Echo | Safety of the procedure | [233] |
Increased right ventricle ejection fraction | |||||||||||
Improved somatic growth | |||||||||||
Reduced heart failure status | |||||||||||
Perseus, 01829750 | 2013 | II | HLHS | 34 | Autologous CDCs/not specified | IC/0.3 × 106 cells/kg | 4 to 9 wk after surgery | 3 and 12 mo follow-up | EchoMRIQuestionnaire | Significant improve of ventricular function | [231] |
Improved somatic growth, and quality of life | |||||||||||
Reduced heart failure status and cardiac fibrosis compared with baseline |
Study name, NCT number | Year of study start | Study phase | Cardiovascular disease | Number of patients | Type of cardiac cells | Route of delivery |
Regress-HFpEF, 02941705 | 2017 | II | Symptomatic hypertensive heart disease induced HFpEF | 40 | Allogeneic CDCs | IC |
APOLLON trial, 02781922 | 2016 | III | HLHS | 40 | Autologous CSCs | IC |
CHILD, 03406884 | 2019 | I | HLHS | 32 | Autologous c-KIT+ cells | IM |
ALPHA, 03145298 | 2017 | I | PAH | 26 | Allogeneic CDC | IV |
TAC-HFT-II, 02503280 | 2025 | I/II | IHF | 0 enrollment until now | Autologous combination of MSCs and CSCs | Trans endocardial Injection |
- Citation: Mehanna RA, Essawy MM, Barkat MA, Awaad AK, Thabet EH, Hamed HA, Elkafrawy H, Khalil NA, Sallam A, Kholief MA, Ibrahim SS, Mourad GM. Cardiac stem cells: Current knowledge and future prospects. World J Stem Cells 2022; 14(1): 1-40
- URL: https://www.wjgnet.com/1948-0210/full/v14/i1/1.htm
- DOI: https://dx.doi.org/10.4252/wjsc.v14.i1.1