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Articles by Deep K. Malu
Programming angiogenesis with tunable assemblies of multifunctional peptides
Abstract INTRODUCTION RESULTS AND DISCUSSION MATERIALS AND METHODS Acknowledgments Supplementary Materials REFERENCES Information & Authors Metrics & Citations View Options References Figures Tables Media Share Abstract Therapeutic angiogenesis is constrained by the inability to localize, sustain, and finely tune vascular signaling. Here, we detail a supramolecular peptide system that enables angiogenic programming by decoupling mechanical integrity from receptor-level bioactivity.
Air-permeable hydrogels through viscoelastic phase separation of aerogels
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Abstract Hydrogels are widely used in biomedical interfaces, in which effective gas exchange (for example, O2, CO2) within a water-rich environment is essential. However, hydrogels show intrinsically limited air exchange efficiency, owing to the low solubility (C) and diffusivity (D) of non-polar gases in the polar water medium1. This limitation poses a substantial bottleneck in long-term applications, such as wearable health monitors2,3,4,5,6,7 and tissue engineering8,9,10,11,12.
By Xiao-Yun Yan, Shucong Li, Runze Li, Haodong Hu, Deep K. Malu, Jingjing Wu, Gengxi Lu, Bolei Deng, JIAYI LIU, Siqin Yu, Shu Wang, Eric Lu, Hyunhee Lee, Hui XU, Anqi Chen, Yuxing Yao, James Zhang, Chen Gong, Yiyuan Sun, Jeong-Yun Sun, David A. Weitz, Casey O’Brien, Yuhang Hu, Zachary Smith, Aditya Kumar, Xuanhe Zhao, Aarosh Dahal, Bastien F. G. Aymon, Gabriella E. Carreira
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Nature
Verified
Development of Bioorthogonally Degradable Tough Hydrogels Using Enamine N‐Oxide Based Crosslinkers
1 Introduction Hydrogels, hydrophilic polymer networks that can absorb and retain high volumes of water,[1] have been identified as ideal biomaterials due to their high water content, tunable physical and chemical properties,[2, 3] and biocompatibility.
A material dynamically enhancing both load-bearing and energy dissipation capability under cyclic loading
Abstract Material properties gradually degrade under cyclic loading, leading to catastrophic failure. It results in large costs for inspection, maintenance, and downtime. Besides, materials require combinations of performance such as load bearing and energy dissipation. However, improving one performance of a material often sacrifices another performance, making it difficult to create materials with optimal performance profiles.
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