Research
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Professor Xin Zhang’s scholarly endeavors are dedicated to pushing the boundaries of metamaterials and micro-electro-mechanical systems (MEMS or microsystems), spanning from elucidating their fundamental physics and mathematical underpinnings to guiding their design, development, and practical implementation in real-world scenarios. The ultimate success in developing these material and system classes hinges both on a rigorous understanding of their underlying principles and on their effective translation to address pertinent societal challenges.
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She is therefore deeply interested in the broad spectrum of metamaterials and microsystems, encompassing both their scientific foundations and technological advancements. Furthermore, the intersecting topics of metamaterials and microsystems provide a rich milieu for interdisciplinary research, a feature from which she draws much of her passion for its pursuit.
She ardently believes that the future promise of metamaterials and microsystems extends across a myriad of scientific disciplines, presenting unparalleled opportunities for diverse and versatile applications. With unwavering dedication to advancing knowledge and technology—and to spearheading interdisciplinary research at the convergence of engineering and science—she aspires to unlock the boundless potential of metamaterials and microsystems to address a myriad of intricate global challenges.
Three focal research themes and application areas are underscored by Professor Xin Zhang’s recent work, namely metamaterials and microsystems:
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With tunable and nonlinear responses for photonic and optical applications
to advance next-generation (6G) terahertz communications and enable high-performance optical systems by providing high-end components, including emitters, detectors, filters, and lenses;
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For clinical medical imaging technologies
including magnetic resonance imaging and ultrasound, to deliver revolutionary performance gains and disruptive new capabilities for diagnosis and therapy;
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For acoustic and/or wireless sensing
with a particular focus on acoustic silencing and noise reduction—addressing long-standing noise challenges in mechanical systems where highly efficient, air-permeable sound silencers are required (e.g., fan, propeller, or engine noise reduction), as well as smart sound barriers, among many others.
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