Promising application of magnetic nanoparticles and electromagnetic fields in articular cartilage-related diseases: an overview

Authors

  • Masoumeh Haghbin Nazarpak

DOI:

https://doi.org/10.22034/JATE.2021.44

Abstract

Articular cartilage-related diseases are a growing problem worldwide. Although there are several therapeutic options available for these diseases, the repair of damaged articular cartilage remains an intractable issue. Therefore, a strong need exists for new approaches such as offered by tissue engineering. However, this approach is also associated with some drawbacks including poor regeneration of cultured cells. Recently, magnetic nanoparticles and electromagnetic fields (EMFs) have been suggested to influence on different cellular processes such as proliferation and differentiation and thus are able to overcome these drawbacks of tissue engineering. In this article, we review the current knowledge on the definition and characteristics of magnetic nanoparticles and EMFs. We also discuss the beneficial effects of magnetic nanoparticles and EMFs in various in vitro and in vivo studies.

References

He, Y.J., S. Lin, and Q. Ao, Research Progress of Tissue-Engineered Cartilage in Repairing Cartilage Defects. Science of Advanced Materials, 2020. 12(1): p. 66-74.

Carballo, C.B., et al., Basic science of articular cartilage. Clinics in sports medicine, 2017. 36(3): p. 413-25.

Sophia Fox, A.J., A. Bedi, and S.A. Rodeo, The basic science of articular cartilage: structure, composition, and function. Sports health, 2009. 1(6): p. 461-8.

Decker, R.S., E. Koyama, and M. Pacifici, Articular cartilage: structural and developmental intricacies and questions. Current osteoporosis reports, 2015. 13(6): p. 407-14.

Ruggiero, L., et al., Roles of the fibrous superficial zone in the mechanical behavior of TMJ condylar cartilage. Annals of biomedical engineering, 2015. 43(11): p. 2652-62.

Chen, S., et al., Meniscus, articular cartilage and nucleus pulposus: a comparative review of cartilage-like tissues in anatomy, development and function. Cell and tissue research, 2017. 370(1): p. 53-70.

Camarero-Espinosa, S., et al., Articular cartilage: from formation to tissue engineering. Biomaterials science, 2016. 4(5): p. 734-67.

Lopez-Ruiz, E., et al., Polymers, scaffolds and bioactive molecules with therapeutic properties in osteochondral pathologies: what’s new? Expert opinion on therapeutic patents, 2016. 26(8): p. 877-90.

Gilbert, S.J., and E.J. Blain, Cartilage mechanobiology: How chondrocytes respond to mechanical load. Mechanobiology in Health and Disease, 2018. p. 99-126.

Armiento, A., et al., Biomaterials for articular cartilage tissue engineering: Learning from biology. Acta Biomaterialia, 2018. 65: p. 1-20.

Makris, E.A., et al., Repair and tissue engineering techniques for articular cartilage. Nature Reviews Rheumatology, 2015. 11(1): p. 21-34.

Hunziker, E.B., et al., An educational review of cartilage repair: precepts & practice–myths & misconceptions–progress & prospects. Osteoarthritis and Cartilage, 2015. 23(3): p. 334-50.

Bannuru, R.R., et al., OARSI guidelines for the non-surgical management of knee, hip, and polyarticular osteoarthritis. Osteoarthritis and cartilage, 2019. 27(11): p. 1578-89.

Tatullo, M., M. Marrelli, and F. Paduano, The regenerative medicine in oral and maxillofacial surgery: the most important innovations in the clinical application of mesenchymal stem cells. International journal of medical sciences, 2015. 12(1): p. 72-7.

Mason, C., and P. Dunnill, A brief definition of regenerative medicine. Regenerative Medicine, 2008. 3(1): p. 1-5.

Bhardwaj, N., D. Devi, and B.B. Mandal, Tissue‐engineered cartilage: The crossroads of biomaterials, cells and stimulating factors. Macromolecular bioscience, 2015. 15(2): p. 153-82.

Gupta, P., et al., Biomimetic, osteoconductive non-mulberry silk fiber reinforced tricomposite scaffolds for bone tissue engineering. ACS applied materials & interfaces, 2016. 8(45): p. 30797-810.

Mondschein, R.J., et al., Polymer structure-property requirements for stereolithographic 3D printing of soft tissue engineering scaffolds. Biomaterials, 2017. 140: p. 170-88.

Ma, F., et al., Accelerating proliferation of neural stem/progenitor cells in collagen sponges immobilized with engineered basic fibroblast growth factor for nervous system tissue engineering. Biomacromolecules, 2014. 15(3): p. 1062-8.

Chen, G., et al., Application of the cell sheet technique in tissue engineering. Biomedical reports, 2015. 3(6): p. 749-57.

Love, M.R., et al., Effects of electrical stimulation on cell proliferation and apoptosis. Journal of Cellular Physiology, 2018. 233(3): p. 1860-76.

Ding, S., et al., Modulation of human mesenchymal and pluripotent stem cell behavior using biophysical and biochemical cues: A review. Biotechnology and bioengineering, 2017. 114(2): p. 260-80.

Morgan, J.T., et al., Integration of basal topographic cues and apical shear stress in vascular endothelial cells. Biomaterials, 2012. 33(16): p. 4126-35.

Yang, Y., et al., Biophysical regulation of cell behavior—cross talk between substrate stiffness and nanotopography. Engineering, 2017. 3(1): p. 36-54.

Zhang, S.X., L. Liu, and W. Zhao, Targeting biophysical cues: a niche approach to study, diagnose, and treat cancer. Trends in cancer, 2018. 4(4): p. 268-71.

Gao, J., et al., Biomimetic stochastic topography and electric fields synergistically enhance directional migration of corneal epithelial cells in a MMP-3-dependent manner. Acta biomaterialia, 2015. 12: p. 102-12.

Huang, X., et al., Physical stimulations for bone and cartilage regeneration. Regenerative engineering and translational medicine, 2018. 4(4): p. 216-37.

Balint, R., N.J. Cassidy, and S.H.Cartmell, Electrical stimulation: a novel tool for tissue engineering. Tissue Engineering Part B: Reviews, 2013. 19(1): p. 48-57.

Wang, E.T., and Z. Min, Regulation of tissue repair and regeneration by electric fields. Chinese Journal of Traumatology (English Edition), 2010. 13(1): p. 55-61.

Chen, C., X. Kong, and I.S. Lee, Modification of surface/neuron interfaces for neural cell-type specific responses: a review. Biomedical Materials, 2015. 11(1): p. 014108.

McBain, S.C., H.H. Yiu, and J. Dobson, Magnetic nanoparticles for gene and drug delivery. International journal of nanomedicine, 2008. 3(2): p. 169-80.

Neuberger, T., et al., Superparamagnetic nanoparticles for biomedical applications: possibilities and limitations of a new drug delivery system. Journal of Magnetism and Magnetic materials, 2005. 293(1): p. 483-96.

Alexiou, C., et al., Medical applications of magnetic nanoparticles. Journal of nanoscience and nanotechnology, 2006. 6(9-10): p. 2762-8.

Crick, F., and A. Hughes, The physical properties of cytoplasm. Experimental Cell Research, 1950. 1(1): p. 37-80.

Titushkin, I., and M. Cho, Modulation of cellular mechanics during osteogenic differentiation of human mesenchymal stem cells. Biophysical journal, 2007. 93(10): p. 3693-702.

Yanagisawa, M., et al., Effects of compressive force on the differentiation of pluripotent mesenchymal cells. Life sciences, 2007. 81(5): p. 405-12.

Ito, A., et al., The effect of RGD peptide-conjugated magnetite cationic liposomes on cell growth and cell sheet harvesting. Biomaterials, 2005. 26(31): p. 6185-93.

Ito, A., et al. Novel methodology for fabrication of tissue-engineered tubular constructs using magnetite nanoparticles and magnetic force. Tissue engineering, 2005. 11(9-10): p. 1553-61.

Shimizu, K., A. Ito, and H. Honda, Enhanced cell‐seeding into 3D porous scaffolds by use of magnetite nanoparticles Journal of Biomedical Materials Research Part B: Applied Biomaterials, 2006. 77(2): p. 265-72.

Kobayashi, T., et al. A novel cell delivery system using magnetically labeled mesenchymal stem cells and an external magnetic device for clinical cartilage repair. Arthroscopy: The Journal of Arthroscopic & Related Surgery, 2008. 24(1): p. 69-76.

Kobayashi, T., et al. Augmentation of degenerated human cartilage in vitro using magnetically labeled mesenchymal stem cells and an external magnetic device. Arthroscopy: The Journal of Arthroscopic & Related Surgery, 2009. 25(12): p. 1435-41.

Zhang, N., et al., Magnetic nanocomposite hydrogel for potential cartilage tissue engineering: synthesis, characterization, and cytocompatibility with bone marrow derived mesenchymal stem cells. ACS applied materials & interfaces, 2015. 7(37): p. 20987-98.

Luciani, N., et al. Successful chondrogenesis within scaffolds, using magnetic stem cell confinement and bioreactor maturation. Acta Biomaterialia, 2016. 37: p. 101-10.

Huang, J., et al. Development of magnetic nanocomposite hydrogel with potential cartilage tissue engineering. ACS omega, 2018. 3(6): p. 6182-9.

Kim, K.E., et al., Potential therapeutic mechanism of extremely low-frequency high-voltage electric fields in cells. Technology and Health Care, 2016. 24(3): p. 415-27.

Halliday, D., R. Resnick, and J. Walker, Fundamentals of Physics: Extended, 11th Edition. 2018.

Kumar, S., S. Dey, and S. Jain. Extremely low-frequency electromagnetic fields: A possible non-invasive therapeutic tool for spinal cord injury rehabilitation. Electromagnetic Biology and Medicine, 2017. 36(1): p. 88-101.

Ahlbom, A., et al. Possible effects of electromagnetic fields (EMF) on human health--opinion of the scientific committee on emerging and newly identified health risks (SCENIHR). Toxicology, 2008. 246(2-3): p. 248-50.

Spencer, J.N., G.M. Bodner, and L.H. Rickard, Chemistry: Structure and Dynamics, 5th Edition. 2010.

Markov, M.S., Magnetic field therapy: a review. Electromagnetic Biology and Medicine, 2007. 26(1): p. 1-23.

Glab, G., et al., Static or dynamic low-frequency magnetic field? A review of literature. Rehabilitacja Medyczna, 2016. 20(2): p. 31-5.

Sakai, A., et al., Effects of pulsing electromagnetic fields on cultured cartilage cells. International Orthopaedics, 1991. 15(4): p. 341-6.

De Mattei, M., et al., Effects of pulsed electromagnetic fields on human articular chondrocyte proliferation. Connective Tissue Research, 2001. 42(4): p. 269-79.

De Mattei, M., et al., Effects of electromagnetic fields on proteoglycan metabolism of bovine articular cartilage explants. Connective Tissue Research, 2003. 44(3-4): p. 154-9.

De Mattei, M., et al., Effects of physical stimulation with electromagnetic field and insulin growth factor-I treatment on proteoglycan synthesis of bovine articular cartilage. Osteoarthritis and Cartilage, 2004. 12(10): p. 793-800.

Nicolin, V., et al., In vitro exposure of human chondrocytes to pulsed electromagnetic fields. European Journal of Histochemistry, 2007. 51(3): p. 203-12.

Sun, L.Y., et al., Effect of pulsed electromagnetic field on the proliferation and differentiation potential of human bone marrow mesenchymal stem cells. Bioelectromagnetics, 2009. 30(4): p. 251-60.

Mayer-Wagner, S., et al., Effects of low frequency electromagnetic fields on the chondrogenic differentiation of human mesenchymal stem cells. Bioelectromagnetics, 2011. 32(4): p. 283-90.

Ongaro A., et al., Electromagnetic fields counteract IL-1b activity during chondrogenesis of bovine mesenchymal stem cells. Journal of Tissue Engineering and Regenerative Medicine, 2015. 9(12): p. E229-38.

Esposito, M., et al., Differentiation of human umbilical cord-derived mesenchymal stem cells, WJ-MSCs, into chondrogenic cells in the presence of pulsed electromagnetic fields. In Vivo. 2013. 27(4): p. 495-500.

Chen, C.H., et al., Electromagnetic fields enhance chondrogenesis of human adipose-derived stem cells in a chondrogenic microenvironment in vitro. Journal of Applied Physiology, 2013. 114(5): p. 647-55.

Hilz, F.M., et al., Influence of extremely low frequency, low energy electromagnetic fields and combined mechanical stimulation on chondrocytes in 3-D constructs for cartilage tissue engineering. Bioelectromagnetics, 2014. 35(2): p. 116-28.

Yi, H.G., et al., Effects of electromagnetic field frequencies on chondrocytes in 3D cell-printed composite constructs. Journal of Biomedical Materials Research - Part A, 2016. 104(7): p. 1797-804.

T. Saito, Y.M., and E. Nakamachi. Effect of the Gradient Magnetic Field Stimulation on Extracellular Matrix Synthesis of Chondrocyte. 2016. : p. 1-5.

Kavand, H., et al., Extremely Low Frequency Electromagnetic Field in Mesenchymal Stem Cells Gene Regulation: Chondrogenic Markers Evaluation. Artificial Organs, 2016. 40(10): p. 929-37.

Parate, D., et al., Enhancement of mesenchymal stem cell chondrogenesis with short-term low intensity pulsed electromagnetic fields. Scientific Reports, 2017. 7(1): p. 9421.

Redeker, J.I., et al., Effect of electromagnetic fields on human osteoarthritic and non-osteoarthritic chondrocytes. BMC Complementary and Alternative Medicine, 2017. 17(1): p. 402.

Tu, C., et al., The legacy effects of electromagnetic fields on bone marrow mesenchymal stem cell self-renewal and multiple differentiation potential. Stem Cell Research and Therapy, 2018. 9(1): p. 215.

Mayer-Wagner, S., et al., Effects of single and combined low frequency electromagnetic fields and simulated microgravity on gene expression of human mesenchymal stem cells during chondrogenesis. Archives of Medical Science, 2018. 14(3): p. 608-16.

Huang, J., et al., Magnetic Enhancement of Chondrogenic Differentiation of Mesenchymal Stem Cells. ACS Biomaterials Science & Engineering, 2019. 5(5): p. 2200-7.

Escobar, J.F., et al., In Vitro Evaluation of the Effect of Stimulation with Magnetic Fields on Chondrocytes. Bioelectromagnetics, 2020. 41(1): p. 41-51.

Ciombor, D.M., et al., Modification of osteoarthritis by pulsed electromagnetic field—a morphological study. Osteoarthritis and Cartilage, 2003. 11(6): p. 455-62.

Fini, M., et al., Effect of pulsed electromagnetic field stimulation on knee cartilage, subchondral and epyphiseal trabecular bone of aged Dunkin Hartley guinea pigs. Biomedicine & pharmacotherapy, 2008. 62(10): p. 709-15.

Boopalan, P., et al., Pulsed electromagnetic field (PEMF) treatment for fracture healing. Current Orthopaedic Practice, 2009. 20(4): p. 423-8.

Fernando, S.B., et al., Effects of pulsed electromagnetic fields on the cartilage joint thickness of distal femoral metaphysis in the rat. World Congress on Medical Physics and Biomedical Engineering, 2009. p. 7-12.

Boopalan, P., et al., Pulsed electromagnetic field therapy results in healing of full thickness articular cartilage defect. International orthopaedics, 2011. 35(1): p. 143-8.

Sotelo-Barroso, F., et al., PEMF effects on chondrocyte cellularity and gene expression of the rat distal femoral metaphyseal articular cartilage. World Congress on Medical Physics and Biomedical Engineering, 2015. P. 7-12.

Parate, D., et al., Pulsed electromagnetic fields potentiate the paracrine function of mesenchymal stem cells for cartilage regeneration. Stem cell research & therapy, 2020. 11(1): p. 46.

Stefani, R.M., et al., Pulsed electromagnetic fields promote repair of focal articular cartilage defects with engineered osteochondral constructs. Biotechnology and Bioengineering, 2020. 117(5): p. 1584-96.

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Published

2021-02-23

How to Cite

Haghbin Nazarpak, M. (2021). Promising application of magnetic nanoparticles and electromagnetic fields in articular cartilage-related diseases: an overview. The Journal of Applied Tissue Engineering, 8(1), 1–17. https://doi.org/10.22034/JATE.2021.44

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Review Articels

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