Chandaka Sravan Kumar, Das Attreyee, Laskar Partha
Department of Chemistry, GITAM School of Science, Gandhi Institute of Technology and Management (GITAM) Deemed to be University Visakhapatnam 530045 Andhra Pradesh India
RSC Adv. 2025 Sep 1;15(38):31210-31229. doi: 10.1039/d5ra04372g. eCollection 2025 Aug 29.
The hyper-intelligent features of the shape memory polymers (SMPs) effectively attract the attention of researchers worldwide to translate their potential into a wide range of applications. SMPs possess a unique capability to transform original or predefined shapes to a deformed temporary shape and under the influence of stimuli for instance, water, temperature, light, pH, magnetic field, enzyme, The emergence of SMPs has created a prominent impact in the progress of tissue engineering, drug delivery, designing biomedical devices, electrical/optical sensing, 4D printing, designing deployable devices for spacecraft, wastewater treatment, smart fibres for textiles, However, to translate such smart materials for biomedical and material science applications, there is a continuous hunt of novel polymer functional materials and methodologies to make biocompatible, biodegradable, and adaptable (in chemical and physical properties such as, shape fixity, shape recovery, self-healing, and cross-linking ability ) SMPs. The review presents a timely overview of synthesis and diverse applications of functional SMPs in biomedical and material science emphasizing on latest developments and future challenges.
形状记忆聚合物(SMPs)的超智能特性有效地吸引了全球研究人员的关注,以将其潜力转化为广泛的应用。SMPs具有独特的能力,能够将原始或预定义的形状转变为变形的临时形状,并在刺激因素(例如水、温度、光、pH值、磁场、酶)的影响下恢复原状。SMPs的出现对组织工程、药物递送、生物医学设备设计、电/光传感、4D打印、航天器可展开设备设计、废水处理、纺织用智能纤维等领域的进展产生了显著影响。然而,为了将此类智能材料应用于生物医学和材料科学领域,人们一直在不断寻找新型聚合物功能材料和方法,以使SMPs具有生物相容性、可生物降解性以及适应性(在化学和物理性质方面,如形状固定性、形状恢复性、自愈性和交联能力)。这篇综述及时概述了功能性SMPs在生物医学和材料科学中的合成及多样应用,并着重介绍了最新进展和未来挑战。