This paper presents a review of literature that introduces the properties and applications of
Magnetorheological fluids (MRFs). first, magnetic particles (iron or cobalt), base fluids (oil …

Due to their unique magnetoelectric coupling effect, composite multiferroic materials have
significant potential in multifunctional devices (especially magnetoelectric devices) and have …

In this study, magnetorheological fluid (MRF) was developed using hybrid core-shell
particles. The core of these particles consists of carbonyl iron (CI), while the shell is …

To improve the sedimentation stability of carbonyl iron (CI)-based magnetorheological fluid
(MRF), a novel MRF with CI/MXene particles as dispersed phase was prepared. CI/MXene …

The transient behaviour of magnetorheological (MR) devices is an important parameter for
modern semi-actively controlled suspension systems. A significant part of the MR device …

High-performance devices usually have curved surfaces, requiring high accuracy of shape
and low surface roughness. It is a challenge to achieve high accuracies for form and position …

The performance of magnetorheological (MR) brakes is dependent on the MR
characteristics of the braking fluid, working parameters, and magnetic fields. Due to the size …

Magnetorheological fluids (MRFs) have been successfully used in a variety of smart control
systems, but are still limited due to their relatively poor settling stability. Herein, a core/shell …

The dispersion stability of carbonyl iron particle (CIP)-based magnetorheological fluid (MRF)
is improved by CIP, which particle is etched with hydrochloric acid (HCl) to form porous …

Comprehensive magnetic particle stability together with compatibility between them and
liquid medium (silicone oil) is still a crucial issue in the case of magnetorheological (MR) …