Micropillar Arrays: Enhancement of Magneto‐Mechanical Actuation of Micropillar Arrays by Anisotropic Stress Distribution (Small 38/2020)
Jeong Eun Park, Jisoo Jeon, Sei Jin Park, Sukyoung Won, Zahyun Ku, Jeong Jae Wie
Abstract
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Jeong Eun Park, Jisoo Jeon, Sei Jin Park, Sukyoung Won, Zahyun Ku, Jeong Jae Wie
Abstract
Open-access reader
In the article number 2003179, Jeong Jae Wie and co-workers report enhanced twisting or bending actuation of rectangular micropillars containing pre-programmed horizontal or vertical magnetic particle alignment. Anisotropic stress distributions of rectangular pillars drastically enhance magneto-mechanical actuation of micropillars in comparison to square micropillars. Magnetically deformed micropillars are selectively shape-fixed by local evaporative assembly of polymeric solution even after removal of the magnetic field.
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In the article number 2003179, Jeong Jae Wie and co-workers report enhanced twisting or bending actuation of rectangular micropillars containing pre-programmed horizontal or vertical magnetic particle alignment. Anisotropic stress distributions of rectangular pillars drastically enhance magneto-mechanical actuation of micropillars in comparison to square micropillars. Magnetically deformed micropillars are selectively shape-fixed by local evaporative assembly of polymeric solution even after removal of the magnetic field.
Key concepts: Materials science, Anisotropy, Magnetic field, Bending, Magneto, Stress (linguistics), Composite material, Particle (ecology)