Effect of parallel magnetic field on the Zero Differential Resistance State

Abstract

The non-linear zero-differential resistance state (ZDRS) that occurs for highly mobile two-dimensional electron systems in response to a dc bias in the presence of a strong magnetic field applied perpendicular to the electron plane is suppressed and disappears gradually as the magnetic field is tilted away from the perpendicular at fixed filling factor $\nu$. Good agreement is found with a model that considers the effect of the Zeeman splitting of Landau levels enhanced by the in-plane component of the magnetic field.

4 pages, 4 figures

References in corpus (6)

• Theory of microwave-induced oscillations in the magnetoconductivity of a 2D electron gas
• Radiation-Induced "Zero-Resistance State" and the Photon Assisted Transport
• Non-linear Resistivity of a Two-Dimensional Electron Gas in a Magnetic Field
• Microwave photoconductivity of a 2D electron gas: Mechanisms and their interplay at high radiation power
• Zero differential resistance state of two dimensional electron systems in strong magnetic fields
• Radiation-induced magnetotransport in high-mobility two-dimensional systems: Role of electron heating

Cited by in corpus (4)

• Mechanisms of the microwave photoconductivity in 2D electron systems with mixed disorder
• Role of electron-electron interactions in nonlinear transport in 2D electron systems
• Nonlinear resistance of 2D electrons in crossed electric and magnetic fields
• Theory of the microwave-induced photocurrent and photovoltage magnetooscillations in a spatially non-uniform 2D electron gas