J. T. Nicholls

Interaction effects in a one-dimensional constriction

We have investigated the transport properties of one-dimensional (1D) constrictions defined by split-gates in high quality

Ballistic transport in one‐dimensional constrictions formed in deep two‐dimensional electron gases

{\mathrm{G}\mathrm{a}\mathrm{A}\mathrm{s}/\mathrm{A}\mathrm{l}}_{x}{\mathrm{Ga}}_{1\ensuremath{-}x}\mathrm{As}

Correlation Effects on the Coupled Plasmon Modes of a Double Quantum Well

heterostructures. In addition to the usual quantized conductance plateaus, the equilibrium conductance shows a structure close to

Tunneling between parallel two-dimensional electron gases

{0.7(2e}^{2}/h)

Magnetic-field-induced insulator-quantum Hall-insulator transition in a disordered two-dimensional electron gas

, and in consolidating our previous work [K. J. Thomas et al., Phys. Rev. Lett. 77, 135 (1996)] this 0.7 structure has been investigated in a wide range of samples as a function of temperature, carrier density, in-plane magnetic field

Controlled wave-function mixing in strongly coupled one-dimensional wires

{B}_{\ensuremath{\Vert}},

Thermometer for the 2D Electron Gas using 1D Thermopower

and source-drain voltage

TUNNELING BETWEEN TWO-DIMENSIONAL ELECTRON GASES IN A STRONG MAGNETIC FIELD

{V}_{\mathrm{sd}}.

Non-linear conductance of a saddle-point constriction

We show that the 0.7 structure is not due to transmission or resonance effects, nor does it arise from the asymmetry of the heterojunction in the growth direction. All the 1D subbands show Zeeman splitting at high

Spin properties of low-density one-dimensional wires

{B}_{\ensuremath{\Vert}},