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Phonon and maxon instability in Bose–Einstein condensates with parity-time symmetric spin–orbit coupling

Phonon and maxon instability in Bose–Einstein condensates with parity-time symmetric spin–orbit coupling
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Nanotechnology Now - Press Release: Confined magnetic colloidal system for controllable fluid transport

Nanotechnology Now Home > Press > Confined magnetic colloidal system for controllable fluid transport Schematics of confined colloids in different states via remote and dynamic magnetic regulation CREDIT ©Science China Press Abstract: Colloidal suspensions of microscopic particles show complex and interesting collective behaviors. In particular, the collective dynamics of colloids is fundamental and ubiquitous for materials assembly, robotic motion, microfluidic control, and in several biological scenarios. The collective dynamics of confined colloids can be completely different from that of free colloids: for instance, confined colloids can self-organize into vortex structures, coherent motion, or different phase behaviors. On one hand, due to the complexity of colloidal suspensions, how to finely tune the collective dynamics of confined colloids remains elusive. On the other hand, since the microscale confinement is on the same length scale as the colloidal size, it is dif

Xu houMicrofluidics nanofluidicsTechnical institute of physicsKey laboratory of materialsNational natural science foundation of chinaEngineering research council of canadaScience chinaNatural sciencesNational scienceChinese academy of sciencesScience china pressResearch funds for the central universitiesInternational union of pureXiamen universityWave incHome press

Confined magnetic colloidal system for controllable fluid transport

E-Mail Credit: ©Science China Press Colloidal suspensions of microscopic particles show complex and interesting collective behaviors. In particular, the collective dynamics of colloids is fundamental and ubiquitous for materials assembly, robotic motion, microfluidic control, and in several biological scenarios. The collective dynamics of confined colloids can be completely different from that of free colloids: for instance, confined colloids can self-organize into vortex structures, coherent motion, or different phase behaviors. On one hand, due to the complexity of colloidal suspensions, how to finely tune the collective dynamics of confined colloids remains elusive. On the other hand, since the microscale confinement is on the same length scale as the colloidal size, it is difficult to determine how the colloids interplay with each other and the geometrical constraints.

Jing liuJianyu liXu houXinyu chenZhizhi shengRongrong zhangPaolo malgarettiMengchuang zhangShuli wangYunmao zhangTechnical institute of physicsKey laboratory of materialsNational natural science foundation of chinaEngineering research council of canadaNatural sciencesNational science