Dustin BrittonDianny A AlmanzarYingxin XiaoH.-J. ShihJakub LegockiPiul S. RabbaniJin Kim Montclare
Exosomes are being increasingly explored in biomedical research for wound healing applications. Exosomes can improve blood circulation and endocrine signaling, resulting in enhanced cell regeneration. However, exosome treatments suffer from low retention and bioavailability of exosomes at the wound site. Hydrogels are a popular tool for drug delivery due to their ability to encapsulate drugs in their network and allow for targeted release. Recently, hydrogels have proven to be an effective method to provide increased rates of wound healing when combined with exosomes that can be applied noninvasively. We have designed a series of single-domain protein-based hydrogels capable of physical cross-linking and upper critical solution temperature (UCST) behavior. Hydrogel variant Q5, previously designed with improved UCST behavior and a significantly enhanced gelation rate, is selected as a candidate for encapsulation release of exosomes dubbed Q5Exo. Q5Exo exhibits low critical gelation times and significant decreases in wound healing times in a diabetic mouse wound model showing promise as an exosome-based drug delivery tool and for future hybrid, noninvasive protein-exosome design.
Dustin Britton (12066697)Dianny Almanzar (19470619)Yingxin Xiao (3057321)Hao-Wei Shih (2162986)Jakub Legocki (17343646)Piul Rabbani (4919332)Jin Kim Montclare (1588600)
Yongfei WangGang ZhaoA SigenQian XuXiaoli WuWenxin WangYongjun Rui
Delong ZhuYing Ning HuXiangkai KongYuansen LuoYi ZhangYu WuJiameng TanJianwei ChenTao XuLei Zhu
Justina Stučinskaitė – MaračinskienėRičardas KubiliusDominykas LatakasRingaudas JonušasLukas Česaitis
Yuesheng TuWeixin ZhengZhenyu DingJie XiangQing YangYuchen LiuJuexian CaoYan ShenZhen‐Xing TangShen LinLei FanYaowen XuBin Chen