This is a direct manifestation of the control of thermal conductivity on the thermal regime, i.e., high heat flow is attributed to high thermal conductivity and, therefore, to locations where thermally conductive rocks (i.e., the basement) are dominant, and vice versa.
In this work, the control of the conductivity of MIM structures was investigated in order to determine their suitability for the implementation of electronic synapses in neuromorphic circuits.
The new vapour generated by the evaporation of seawater after control of the conductivity, is returned into the main steam flow to the turbine condenser.
Moreover, use of single layer graphene enables greater control of electronic conductivity than previously achieved with the Birch method using multilayer graphene or graphene oxide.
This achievement opened up the pioneering path to the discovery of p-type conduction, control of n-type conductivity, and verification of quantum size effects.
Additionally, we reported a close-to-linear relationship between κ and chain length, which provided supportive evidence for the controlling of thermal conductivity of carbyne.
We demonstrated a metamaterial absorber (MMA), which can be controlled by variation of conductivity or temperature.
