Magnetization of magnetoactive elastomers under the assumption of breakable adhesion at the particle/matrix interface

Soft Matter Royal Society of Chemistry (RSC) 18:25 (2022) 4667-4678

Authors:

Mikhail V Vaganov, Dmitry Yu Borin, Stefan Odenbach, Yuriy L Raikher

Inherent Spin–Polarization Coupling in a Magnetoelectric Vortex

Nano Letters American Chemical Society (ACS) 22:10 (2022) 3976-3982

Authors:

Sujit Das, Valentyn Laguta, Katherine Inzani, Weichuan Huang, Junjie Liu, Ruchira Chatterjee, Margaret R McCarter, Sandhya Susarla, Arzhang Ardavan, Javier Junquera, Sinéad M Griffin, Ramamoorthy Ramesh

FORC analysis of magnetically soft microparticles embedded in a polymeric elastic environment

Journal of Physics D IOP Publishing 55:15 (2022) 155001

Authors:

Dmitry Yu Borin, Mikhail V Vaganov

Quantum-Coherent Nanoscience

(2022)

Authors:

Andreas J Heinrich, William D Oliver, Lieven Vandersypen, Arzhang Ardavan, Roberta Sessoli, Daniel Loss, Ania Bleszynski Jayich, Joaquin Fernandez-Rossier, Arne Laucht, Andrea Morello

Quantum-coherent nanoscience

Nature Nanotechnology Springer Nature 16:12 (2021) 1318-1329

Authors:

Andreas Heinrich, William Oliver, Lieven Vandersypen, Arzhang Ardavan, Roberta Sessoli, Daniel Loss, Ania Bleszynski Jayich, Joaquin Fernandez-Rossier, Arne Laucht, Andrea Morello

Abstract:

For the past three decades nanoscience has widely affected many areas in physics, chemistry and engineering, and has led to numerous fundamental discoveries, as well as applications and products. Concurrently, quantum science and technology has developed into a cross-disciplinary research endeavour connecting these same areas and holds burgeoning commercial promise. Although quantum physics dictates the behaviour of nanoscale objects, quantum coherence, which is central to quantum information, communication and sensing, has not played an explicit role in much of nanoscience. This Review describes fundamental principles and practical applications of quantum coherence in nanoscale systems, a research area we call quantum-coherent nanoscience. We structure this Review according to specific degrees of freedom that can be quantum-coherently controlled in a given nanoscale system, such as charge, spin, mechanical motion and photons. We review the current state of the art and focus on outstanding challenges and opportunities unlocked by the merging of nanoscience and coherent quantum operations.