Bone targeted nano-drug and nano-delivery
Yilun Wu , Bing Sun , Ying Tang , Aining Shen , Yanlin Lin , Xiaohui Zhao , Jingui Li , Michael J. Monteiro , Wenyi Gu
Bone Research ›› 2024, Vol. 12 ›› Issue (1) : 51
Bone targeted nano-drug and nano-delivery
There are currently no targeted delivery systems to satisfactorily treat bone-related disorders. Many clinical drugs consisting of small organic molecules have a short circulation half-life and do not effectively reach the diseased tissue site. This coupled with repeatedly high dose usage that leads to severe side effects. With the advance in nanotechnology, drugs contained within a nano-delivery device or drugs aggregated into nanoparticles (nano-drugs) have shown promises in targeted drug delivery. The ability to design nanoparticles to target bone has attracted many researchers to develop new systems for treating bone related diseases and even repurposing current drug therapies. In this review, we shall summarise the latest progress in this area and present a perspective for future development in the field. We will focus on calcium-based nanoparticle systems that modulate calcium metabolism and consequently, the bone microenvironment to inhibit disease progression (including cancer). We shall also review the bone affinity drug family, bisphosphonates, as both a nano-drug and nano-delivery system for bone targeted therapy. The ability to target and release the drug in a controlled manner at the disease site represents a promising safe therapy to treat bone diseases in the future.
| [1] |
Chindamo, G. et al. Bone diseases: current approach and future perspectives in drug delivery systems for bone targeted therapeutics. Nanomaterials 10, 875 (2020). |
| [2] |
|
| [3] |
|
| [4] |
Bartl, R., Frisch, B., Bartl, R. & Frisch, B. Biology of bone. Osteoporosis: Diagnosis, Prevention, Therapy 7–28 (Springer Berlin Heidelberg, 2009). |
| [5] |
Acs, G. & Khurana, J. S. in Essentials of Anatomic Pathology 433–462 (Springer, 2002). |
| [6] |
|
| [7] |
|
| [8] |
Sikon, A. & Batur, P. Profile of teriparatide in the management of postmenopausal osteoporosis. in International Journal of Women’s Health 37–44 (International Federation of Gynecology and Obstetrics, 2010). |
| [9] |
|
| [10] |
|
| [11] |
|
| [12] |
Fujiwara, S. et al. Systematic review of raloxifene in postmenopausal Japanese women with osteoporosis or low bone mass (osteopenia). Clin. Interv. Aging 9, 1879–1893 (2014). |
| [13] |
|
| [14] |
|
| [15] |
|
| [16] |
|
| [17] |
|
| [18] |
Clark-Price, S. Nonsteroidal anti-inflammatory drugs and corticosteroids. in Pain Management in Veterinary Practice 69–84 (Wiley, 2013). |
| [19] |
|
| [20] |
|
| [21] |
Yang, Y., Yang, W., Zhang, R. & Wang, Y. Peripheral mechanism of cancer-induced bone pain. Neurosc. Bull. 40, 815–830 (2023). |
| [22] |
|
| [23] |
|
| [24] |
Zajączkowska, R., Kocot-Kępska, M., Leppert, W. & Wordliczek, J. Bone pain in cancer patients: mechanisms and current treatment. Int. J. Mol. Sci. 20, 6047 (2019). |
| [25] |
|
| [26] |
|
| [27] |
|
| [28] |
|
| [29] |
|
| [30] |
|
| [31] |
|
| [32] |
|
| [33] |
|
| [34] |
|
| [35] |
|
| [36] |
|
| [37] |
|
| [38] |
|
| [39] |
|
| [40] |
|
| [41] |
|
| [42] |
|
| [43] |
|
| [44] |
|
| [45] |
|
| [46] |
|
| [47] |
|
| [48] |
|
| [49] |
|
| [50] |
|
| [51] |
|
| [52] |
|
| [53] |
|
| [54] |
|
| [55] |
|
| [56] |
|
| [57] |
|
| [58] |
|
| [59] |
|
| [60] |
|
| [61] |
|
| [62] |
|
| [63] |
|
| [64] |
|
| [65] |
Mustaly-Kalimi, S. et al. Protein mishandling and impaired lysosomal proteolysis generated through calcium dysregulation in Alzheimer’s disease. Proc. Natl. Acad. Sci. USA 119, e2211999119 (2022). |
| [66] |
|
| [67] |
Pihán, P. et al. Control of lysosomal-mediated cell death by the pH-dependent calcium channel RECS1. Sci. Adv. 7, eabe5469 (2021). |
| [68] |
|
| [69] |
|
| [70] |
|
| [71] |
|
| [72] |
|
| [73] |
|
| [74] |
|
| [75] |
|
| [76] |
|
| [77] |
|
| [78] |
|
| [79] |
|
| [80] |
|
| [81] |
|
| [82] |
|
| [83] |
|
| [84] |
|
| [85] |
|
| [86] |
|
| [87] |
|
| [88] |
|
| [89] |
|
| [90] |
|
| [91] |
|
| [92] |
|
| [93] |
|
| [94] |
|
| [95] |
|
| [96] |
|
| [97] |
|
| [98] |
|
| [99] |
|
| [100] |
|
| [101] |
|
| [102] |
|
| [103] |
|
| [104] |
|
| [105] |
|
| [106] |
|
| [107] |
|
| [108] |
|
| [109] |
|
| [110] |
|
| [111] |
|
| [112] |
|
| [113] |
|
| [114] |
|
| [115] |
|
| [116] |
|
| [117] |
|
| [118] |
|
| [119] |
|
| [120] |
|
| [121] |
|
| [122] |
|
| [123] |
|
| [124] |
|
| [125] |
|
| [126] |
|
| [127] |
|
| [128] |
|
| [129] |
|
| [130] |
|
| [131] |
|
| [132] |
|
| [133] |
|
| [134] |
|
| [135] |
|
| [136] |
|
| [137] |
|
| [138] |
|
| [139] |
|
| [140] |
|
| [141] |
|
| [142] |
|
| [143] |
|
| [144] |
Lin, P. P. & Patel, S. in Bone Sarcoma (eds Lin, P. P. & Patel, S.) 75-97 (Springer US, 2013). |
| [145] |
|
| [146] |
|
| [147] |
|
| [148] |
|
| [149] |
Maraka, S. & Kennel, K. A. Bisphosphonates for the prevention and treatment of osteoporosis. Br. Med. J. 351, h3783 (2015). |
| [150] |
|
| [151] |
|
| [152] |
|
| [153] |
|
| [154] |
|
| [155] |
|
| [156] |
|
| [157] |
|
| [158] |
|
| [159] |
|
| [160] |
|
| [161] |
|
| [162] |
|
| [163] |
|
| [164] |
|
| [165] |
|
| [166] |
|
| [167] |
Zhong, Y. & Li, S. New progress in improving the delivery methods of bisphosphonates in the treatment of bone tumors. Drug Des. Dev. Ther. 15, 4939–4959 (2021). |
| [168] |
|
| [169] |
|
| [170] |
|
| [171] |
|
| [172] |
|
| [173] |
|
| [174] |
|
| [175] |
|
| [176] |
|
| [177] |
|
| [178] |
|
| [179] |
|
| [180] |
|
| [181] |
|
| [182] |
|
| [183] |
|
| [184] |
|
| [185] |
Cornelis, F. et al. Bisphosphonate therapy for unresectable symptomatic benign bone tumors: a long-term prospective study of tolerance and efficacy. Bone 58, 11–16 (2014). |
| [186] |
|
| [187] |
Kennel, K. A. & Drake, M. T. in Mayo Clinic Proceedings Vol. 84, 632–638 (Elsevier, 2009). |
| [188] |
|
| [189] |
|
| [190] |
|
| [191] |
|
| [192] |
|
| [193] |
|
| [194] |
|
| [195] |
|
| [196] |
|
| [197] |
|
| [198] |
|
| [199] |
|
| [200] |
|
| [201] |
|
| [202] |
|
| [203] |
|
| [204] |
|
| [205] |
|
| [206] |
|
| [207] |
|
| [208] |
|
| [209] |
|
| [210] |
|
| [211] |
|
| [212] |
|
| [213] |
|
| [214] |
Carmona-Sarabia, L. et al. High-affinity extended bisphosphonate-based coordination polymers as promising candidates for bone-targeted drug delivery. ACS Appl. Mater. Interfaces 15, 33397–33412 (2023). |
| [215] |
|
| [216] |
Sun, B. et al. Mannose-functionalized biodegradable nanoparticles efficiently deliver DNA vaccine and promote anti-tumor immunity. ACS Appl. Mater. Interfaces 13, 14015–14027 (2021). |
| [217] |
Chen, J. F., Lin, P. W., Tsai, Y. R., Yang, Y. C. & Kang, H. Y. Androgens and androgen receptor actions on bone health and disease: from androgen deficiency to androgen therapy. Cells 8, 1318 (2019). |
| [218] |
|
| [219] |
|
| [220] |
|
| [221] |
|
| [222] |
|
| [223] |
|
| [224] |
|
| [225] |
|
| [226] |
|
| [227] |
|
| [228] |
Gao, Y., Patil, S. & Qian, A. The role of microRNAs in bone metabolism and disease. Int. J. Mol. Sci. 21, 6081 (2020). |
| [229] |
|
| [230] |
|
| [231] |
|
| [232] |
|
| [233] |
|
| [234] |
|
| [235] |
|
| [236] |
|
| [237] |
|
| [238] |
|
| [239] |
|
| [240] |
Lu, Y. et al. Peptide T7-modified polypeptide with disulfide bonds for targeted delivery of plasmid DNA for gene therapy of prostate cancer. Int. J. Nanomed. 13, 6913–6927 (2018). |
| [241] |
|
| [242] |
|
| [243] |
|
| [244] |
|
| [245] |
Kreps, L. M. & Addison, C. L. Targeting intercellular communication in the bone microenvironment to prevent disseminated tumor cell escape from dormancy and bone metastatic tumor growth. Int. J. Mol. Sci. 22, 2911 (2021). |
| [246] |
|
| [247] |
|
| [248] |
|
| [249] |
|
| [250] |
|
| [251] |
|
| [252] |
Lyu, H., Xiao, Y., Guo, Q., Huang, Y. & Luo, X. The role of bone-derived exosomes in regulating skeletal metabolism and extraosseous diseases. Front. Cell Dev. Biol. 8, 89 (2020). |
| [253] |
|
| [254] |
|
| [255] |
|
| [256] |
|
| [257] |
|
| [258] |
|
| [259] |
|
| [260] |
Li, C. et al. Engineered multifunctional nanomedicine for simultaneous stereotactic chemotherapy and inhibited osteolysis in an orthotopic model of bone metastasis. Adv. Mater. 29, 1605754 (2017). |
| [261] |
|
| [262] |
|
| [263] |
|
| [264] |
|
| [265] |
|
| [266] |
|
| [267] |
|
| [268] |
|
| [269] |
Tao S., et al H. A novel biocompatible, simvastatin-loaded, bone-targeting lipid nanocarrier for treating osteoporosis more effectively. RSC Adv. 10, 26699–26700 (2020). |
| [270] |
|
| [271] |
|
| [272] |
|
| [273] |
|
| [274] |
|
| [275] |
|
| [276] |
|
| [277] |
|
| [278] |
Xue X., et al. Rational design of multifunctional cus nanoparticle-peg composite soft hydrogel-coated 3d hard polycaprolactone scaffolds for efficient bone regeneration. Adv. Funct. Mater. 32, 2202470 (2022). |
| [279] |
|
| [280] |
Sun, R. et al. Highly porous amorphous calcium phosphate for drug delivery and bio-medical applications. Nanomaterials 10, 20 (2019). |
| [281] |
|
| [282] |
|
| [283] |
|
| [284] |
|
| [285] |
|
| [286] |
|
National Natural Science Foundation of China (National Science Foundation of China)(22305117)
/
| 〈 |
|
〉 |