About
Dr. Lihua Lou serves as an Assistant Professor in the Department of Mechanical Engineering at Clemson University. She earned her doctoral degree from Texas Tech University, an accomplishment that laid the groundwork for her subsequent postdoctoral training at Virginia Commonwealth University and Florida International University. Her interdisciplinary research portfolio includes mechanical and materials engineering, pharmaceutics, biomedical engineering, environmental toxicology, and textile engineering. This integrative approach enables her to address complex engineering challenges by synthesizing theoretical insights with practical applications across multiple scales and material types. Through her work, Dr. Lou seeks to elucidate the fundamental principles that governs novel materials' behavior and leverage these insights to drive innovation. At the NanoBio Mechanics & Manufacturing Laboratory, Dr. Lou leads a dynamic team dedicated to advancing the frontiers of nano and bio- manufacturing and multiscale mechanics. By probing the mechanical properties at the nanoscale of 0D, 1D, and 2D materials, her work not only deepens scientific understanding of material behavior but also informs the design and fabrication of innovative nano-/bio-composites. Moreover, the lab is actively engaged in cardiac bioengineering research, where the development of new methodologies holds promise for significant advancements in medical therapeutics and the treatment of cardiovascular diseases. Dr. Lou’s research initiatives have garnered support from the National Science Foundation, the Florida Heart Foundation, and Clemson Creative Inquiry.
Visit Dr. Lou's Faculty Profile.
How their research is transforming health care
Nanomanufacturing and biomechanics represent highly interdisciplinary domains that integrate principles from materials science, mechanical engineering, biology, and advanced imaging techniques to elucidate the complex dynamics and properties of diverse systems. A central focus of Dr. Lou’s research is the application of digital image processing techniques to investigate the biomechanical properties of cardiac tissues. In her work, Dr. Lou employs the digital image correlation (DIC) method to quantify full-field strain and deformation. This approach is particularly valuable when studying the dynamic beating mechanics of cardiomyocytes derived from human induced pluripotent stem cells (hiPSC-CM) as well as hiPSC-derived cardiac tissues. In addition to imaging and analysis, Dr. Lou is engaged in the engineering of multiscale hybrid myocardial patches. These bioengineered constructs aim to mimic the native myocardium’s structural organization and biomechanical properties through the integration of cutting-edge fabrication techniques, including 3D printing and electrospinning. By combining nanoscale features with microscale architectural fidelity, these myocardial patches present a promising strategy for regenerative cardiac therapies, offering a tangible proof-of-concept for their potential clinical efficacy. Moreover, Dr. Lou’s research extends to multiscale biomechanics, investigating the mechanical behavior of soft and ultrasoft biomaterials across nano-, micro-, and meso-scales, including hydrogels, polymer composites, native tissues, engineered scaffolds, and cellular systems, thereby advancing our fundamental understanding of biomechanics and paving the way for innovative biomedical applications.
Health Research Expertise Keywords
Biomechanics, Biomanufacturing, Nanomaterials, Soft Matter, Atomic Force Microscope, Polymer Nanocomposites, 0D/1D/2D Materials
