[go: up one dir, main page]
More Web Proxy on the site http://driver.im/

Brooks, 1989 - Google Patents

Fluids get tough

Brooks, 1989

Document ID
15124411451962187577
Author
Brooks D
Publication year
Publication venue
Physics World

External Links

Snippet

500 1000 response, significant reductions in space and weight requirements, simpler devices and improved reliability. In an ER fluid, particles (the dispersed phase) are suspended in a nonconducting material (the continuous phase)—for example, carbon in …
Continue reading at iopscience.iop.org (other versions)

Similar Documents

Publication Publication Date Title
Parthasarathy et al. Electrorheology: mechanisms and models
Gavin Multi-duct ER dampers
Sim et al. Three-dimensional dynamics simulation of electrorheological fluids under large amplitude oscillatory shear flow
Brooks Fluids get tough
Monkman The electrorheological effect under compressive stress
Atten et al. The role of conduction in electrorheological fluids: from interaction between particles to structuration of suspensions
Wu et al. Negative electrorheological effect and electrical properties of a Teflon/silicone oil suspension
Choi Electrorheological properties of chitosan suspension
See Advances in modelling the mechanisms and rheology of electrorheological fluids
Boissy et al. On the role of conductivities and frequency in the electrorheological effect
Choi et al. Electrorheology of cellulose phosphate ester suspension as a new anhydrous ER fluid
Nava et al. Response time and viscosity of electrorheological fluids
Yang Tension and compression of electrorheological fluid
Motyka An introduction to rheology with an emphasis on application to dispersions
Tadros Control of stability/flocculation and rheology of concentrated suspensions
Lemaire et al. Rheological behavior of electrorheological fluids
Kaushal et al. Three-dimensional yielding in anisotropic materials: validation of Hill's criterion
Havelka Novel materials for electrorheological fluids
Atten et al. Variation with distance of the attraction force between spheres and estimation of static yield stress of ER fluids
Zuo-wei et al. Influence of the size distribution of particles on the viscous property of an electrorheological fluid
Jang et al. Electrorheological fluids based on chitosan particles
Wong et al. The role of water in electrorheological fluids
Lee et al. Steady Shear and Viscoelastic Behaviors of Polyaniline Suspension as an Electrorheological Fluid
Erol et al. Electrorheology and creep-recovery behavior of conducting polythiophene/poly (oxymethylene)-blend suspensions
Datsyuk et al. The role of surface conductivity in electro-mechanics of microparticles in a meakly-conducting dielectric drop