Electrical control of charged carriers and excitons in atomically thin materials.
In a forced particle oscillation experiment, we demonstrated the control of charged particle positions on the interface by manipulating charge interaction between interfaces.
The research elucidated the control of charge transport through single molecules in terms of the chemical structure and also examined underlying mechanistic questions.
The oxide superlattice approach provides an useful way of nonlinear control of charge carrier density and electrical resistivity.
The corresponding rate law under the control of charge transfer was developed and kinetic parameters were derived.
Knowledge of the zeta-potential is essential for designing and operating membrane processes, and its measurement provides the key to understanding the control of charge-related phenomena.
It provides a fully depleted OSC bulk and enhanced gm due to the effective control of charge transport within the bulk of the semiconductor beyond the highly accumulated region several nanometres in depth25.
This system performs several tasks: the control of charging and discharging, overcharge and over-discharge protection, the calculation and display of state-of-charge (SOC), safety, and thermal management.
Generation, transport, deposition, separation, analysis, and control of charged particles involved in the four states of matter: solid, liquid, gas, and plasma are of interest in many industrial and biomedical processes.
* See: K. Wang, K. De Greve, L.A. Jauregui, A. Sushko, A. High, Y. Zhou, G. Scuri, T. Taniguchi, K. Watanabe, M.D. Lukin, H. Park & P. Kim, "Electrical control of charged carriers and excitons in atomically thin materials," Nature Nanotechnology (2018) doi 10.1038/s41565-017-0030-x.
