Modified Poly(ε-caprolactone) with Tunable Degradability and Improved Biofunctionality for Regenerative Medicine

IF 5.7 Q2 CHEMISTRY, PHYSICAL
Jun Shen, Weihao Yuan, Maryam Badv*, Alireza Moshaverinia* and Paul S. Weiss*, 
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引用次数: 1

Abstract

The use of poly(ε-caprolactone) (PCL) for biomedical applications is well established, particularly for permanent implants, due to its slow degradation rate, suitable mechanical properties, and biocompatibility. However, the slow degradation rate of PCL limits its application for short-term and temporary biomedical applications where bioabsorbability is required. To enhance the properties of PCL and to expand its biomedical applications, we developed an approach to produce PCL membranes with tunable degradation rates, mechanical properties, and biofunctional features. Specifically, we utilized electrospinning to create fibrous PCL membranes, which were then chemically modified using potassium permanganate to alter their degradability while having minimal impact on their fibrous morphology. The effects of the chemical treatments were investigated by treating the samples for different time periods ranging from 6 to 48 h. After the 48 h treatment, the membrane degraded by losing 25% of its mass over 12 weeks in degradation studies, while maintaining its mechanical strength and exhibiting superior biofunctional features. Our results suggest that this approach for developing PCL with tailored properties could have significant potential for a range of biomedical applications.

Abstract Image

具有可调节降解性和改善再生医学生物功能的改性聚ε-己内酯
聚ε-己内酯(PCL)由于其降解速度慢、适宜的机械性能和生物相容性,在生物医学领域的应用已经得到了很好的确立,特别是在永久性植入物方面。然而,PCL的缓慢降解速度限制了其在生物吸收性要求较高的短期和临时生物医学应用中的应用。为了提高PCL的性能并扩大其生物医学应用,我们开发了一种生产具有可调降解率、机械性能和生物功能特征的PCL膜的方法。具体来说,我们利用静电纺丝制造纤维状PCL膜,然后使用高锰酸钾对其进行化学改性,以改变其可降解性,同时对其纤维形态的影响最小。通过对样品进行6至48小时的不同时间处理,研究了化学处理的效果。在降解研究中,经过48小时处理后,膜在12周内降解了25%的质量,同时保持了其机械强度并表现出优越的生物功能特征。我们的研究结果表明,这种开发具有定制特性的PCL的方法可能在一系列生物医学应用中具有重大潜力。
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来源期刊
ACS Materials Au
ACS Materials Au 材料科学-
CiteScore
5.00
自引率
0.00%
发文量
0
期刊介绍: ACS Materials Au is an open access journal publishing letters articles reviews and perspectives describing high-quality research at the forefront of fundamental and applied research and at the interface between materials and other disciplines such as chemistry engineering and biology. Papers that showcase multidisciplinary and innovative materials research addressing global challenges are especially welcome. Areas of interest include but are not limited to:Design synthesis characterization and evaluation of forefront and emerging materialsUnderstanding structure property performance relationships and their underlying mechanismsDevelopment of materials for energy environmental biomedical electronic and catalytic applications
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