用于按需双重输送促血管生成生长因子的近红外光响应水凝胶

IF 9.4 1区 医学 Q1 ENGINEERING, BIOMEDICAL Acta Biomaterialia Pub Date : 2024-06-03 DOI:10.1016/j.actbio.2024.05.052
Saeed Nazemidashtarjandi , Bryce Larsen , Kristie Cheng , Sara Faulkner , Nicholas A. Peppas , Sapun H. Parekh , Janet Zoldan
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引用次数: 0

摘要

实现对促血管生成因子释放的精确时空控制对于血管生成(新生血管形成过程)至关重要。尽管已经探索了各种策略,但仍需要开发可在特定位置和时间点精确控制促血管生成因子释放的细胞载体生物材料。我们报告了一种近红外(NIR)光响应胶原蛋白水凝胶的开发情况,这种水凝胶由含有促血管生成生长因子(GFs)的金纳米棒(GNRs)共轭脂质体组成。我们证明了这一系统能在特定部位和选定的时间间隔内按需双重递送 GFs。我们对脂质体进行了战略性配制,以包裹血小板衍生生长因子(PDGF)或血管内皮生长因子(VEGF),每种因子都与金纳米棒(GNRs)连接,金纳米棒具有不同的几何形状,并分别在 710 纳米(GNR710)和 1064 纳米(GNR1064)处产生表面等离子体共振。利用近红外(NIR)照射和双光子(2P)发光成像技术,我们成功地证明了 PDGF 和 VEGF 分别从 GNR710 和 GNR1064 共轭脂质体中独立释放出来。我们的成像数据显示了快速的释放动力学,在近红外激光照射后,局部的 PDGF 在大约 4 分钟内释放,而 VEGF 仅在 1 分半钟内释放。重要的是,我们证明了每种 GF 的释放都可以通过近红外照射独立触发,而其他 GF 配方仍保留在脂质体中。这种光响应胶原水凝胶有望应用于再生医学的各种领域,在再生医学中,建立引导性血管网络对工程组织的存活和整合至关重要。意义说明:在这项研究中,我们在胶原蛋白水凝胶中开发出了一种光响应系统,其中含有金纳米棒(GNRs)共轭脂质体,可在特定位置和时间点精确地双重递送促血管生成生长因子(GFs)。含有血小板衍生生长因子(PDGF)或血管内皮生长因子(VEGF)的脂质体在近红外照射下可独立释放。这种方法可以从外部激活所需的 GF 释放,确保细胞的高存活率。每种 GF 都可以独立触发,同时将另一种 GF 保留在脂质体中。除了在建立功能性血管网络方面的应用外,这种双重递送系统还有望成为递送两种或多种 GF 的各种组合的通用平台。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Near-infrared light-responsive hydrogels for on-demand dual delivery of proangiogenic growth factors

Achieving precise spatiotemporal control over the release of proangiogenic factors is crucial for vasculogenesis, the process of de novo blood vessel formation. Although various strategies have been explored, there is still a need to develop cell-laden biomaterials with finely controlled release of proangiogenic factors at specific locations and time points. We report on the developed of a near-infrared (NIR) light-responsive collagen hydrogel comprised of gold nanorods (GNRs)-conjugated liposomes containing proangiogenic growth factors (GFs). We demonstrated that this system enables on-demand dual delivery of GFs at specific sites and over selected time intervals. Liposomes were strategically formulated to encapsulate either platelet-derived growth factor (PDGF) or vascular endothelial growth factor (VEGF), each conjugated to gold nanorods (GNRs) with distinct geometries and surface plasmon resonances at 710 nm (GNR710) and 1064 nm (GNR1064), respectively. Using near infrared (NIR) irradiation and two-photon (2P) luminescence imaging, we successfully demonstrated the independent release of PDGF from GNR710 conjugated liposomes and VEGF from GNR1064-conjugated liposomes. Our imaging data revealed rapid release kinetics, with localized PDGF released in approximately 4 min and VEGF in just 1 and a half minutes following NIR laser irradiation. Importantly, we demonstrated that the release of each GF could be independently triggered using NIR irradiation with the other GF formulation remaining retained within the liposomes. This light-responsive collagen hydrogels holds promise for various applications in regenerative medicine where the establishment of a guided vascular network is essential for the survival and integration of engineered tissues.

Statement of significance

In this study, we have developed a light-responsive system with gold nanorods (GNRs)-conjugated liposomes in a collagen hydrogel, enabling precise dual delivery of proangiogenic growth factors (GFs) at specific locations and timepoints. Liposomes, containing platelet-derived growth factor (PDGF) or vascular endothelial growth factor (VEGF), release independently under near- infrared irradiation. This approach allows external activation of desired GF release, ensuring high cell viability. Each GF can be triggered independently, retaining the other within the liposomes. Beyond its application in establishing functional vascular networks, this dual delivery system holds promise as a universal platform for delivering various combinations of two or more GFs.

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来源期刊
Acta Biomaterialia
Acta Biomaterialia 工程技术-材料科学:生物材料
CiteScore
16.80
自引率
3.10%
发文量
776
审稿时长
30 days
期刊介绍: Acta Biomaterialia is a monthly peer-reviewed scientific journal published by Elsevier. The journal was established in January 2005. The editor-in-chief is W.R. Wagner (University of Pittsburgh). The journal covers research in biomaterials science, including the interrelationship of biomaterial structure and function from macroscale to nanoscale. Topical coverage includes biomedical and biocompatible materials.
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