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\textit{Oh, an empty article!} Coulomb drag describes the situation where a current flowing in a so-called "drive" conductor, Coulomb interacting with a "drag" conductor, induces a voltage accros the "drag" conductor. In double quantum dot system Coulomb drag was investigated within the framework of sequential tunneling using the Master equation formalism. In such work, a drag current is obtained when four states of charge are
considered and when the tunneling rates depend on energy, i.e., on the charge state. These results were valid when the temperature
of the system is much higher than the tunneling rate. A previous experiment by Hartmann\cite{Hartmann_2015} measured the voltage fluctuations in a double quantum dot setup for a base temperature of $4.2$ K ($360\mu eV$). However, it was not measured the tunneling rates.
You can get started by \textbf{double clicking} this text block and begin editing. You can also click In the D. Goldhaber-Gordon experiment, the
\textbf{Insert} button below base temperature is $\colortext{red}{T=20 mK}$ and a double quantum dot
coupled capacitatively is considered. The measurements are done to
add new block elements. Or you can \textbf{drag obtain the $dI_{i}/dV_{Si}$ where $i=\{1,2\}$ labels each dot.
There are \emph{in-plane} and \emph{out-of-plane} magnetic fields applied of magnitudes $2$ and
drop an image} right onto this text. Happy writing! $0.1$ T, respectively.
