Scinovex
article Open AccessTop 10% cited

Experimental study on negative effective mass in a 1D mass–spring system

New Journal of Physics · 2008 · Vol. 10(4) · pp. 043020–043020
Shanshan YaoXiaoming ZhouGengkai Hu

Abstract

A mass–spring system with negative effective mass is experimentally realized, and its transmission property is examined in the low-frequency range. The local resonance of the basic unit is observed and explained by Newton's theory. The negative effective mass is confirmed by experiments through the transmission properties of a finite periodic system composed of such basic units. In the negative mass range, low transmissions of the system are observed and it is well predicted by the theory. In addition, zero effective mass is discussed and experimentally investigated, which gives rise to no phase shifts in the system. Finally, the anti-vibration effect with a negative mass system is also analyzed. The relevant results are helpful for a better understanding of the resonant nature of metamaterials.

Acoustic Wave Phenomena ResearchMetamaterials and Metasurfaces ApplicationsElectromagnetic Scattering and AnalysisPhysicsNegative massEffective mass (spring–mass system)MetamaterialSpring (device)Resonance (particle physics)Range (aeronautics)Transmission (telecommunications)Mass ratioQuantum mechanics
Citations
414
FWCI
6.71
field-weighted impact
References
25
Percentile
97%
vs. same field & year
Citations per year
References
Locally resonant sonic materials
Physica B Condensed Matter · 2003 · 326 citations
Controlling Electromagnetic Fields
Science · 2006 · 8,411 citations
Extremely Low Frequency Plasmons in Metallic Mesostructures
Physical Review Letters · 1996 · 4,263 citations
One path to acoustic cloaking
New Journal of Physics · 2007 · 1,082 citations
Magnetism from conductors and enhanced nonlinear phenomena
IEEE Transactions on Microwave Theory and Techniques · 1999 · 8,560 citations
Citation Network

How this paper connects to the literature. Drag to explore, click any node to open that paper.