Nowadays, hybrid nanocomposites containing graphene sheets and metallic nanoparticles are expected to have promising potential applications in different areas such as chemical sensors, energy storage, catalysis, and hydrogen storage.
Users could buy sensors, additional storage, more battery capacity, better speakers and so on, slotting in and out components as needed.
We focus on iron II) compounds with coordination number 6, due to their practical applicability as sensors, data storage, switching, display, and visualization systems.
Such unusual properties have generated interest in nanomaterials for potential applications in electronics, optics, magnetism, sensors, energy storage and catalysis [1 3].
In this work, we advocate for the inclusion of a dedicated system for sensors data storage and processing, based on Big Data technologies.
The relatively facile nature in material preparation process and high production scalability have propelled extensive research leading to the expansion of its applications in diverse field such as sensors, energy storage devices, photodetectors, and drug delivery [3,10-12].
In most applications (e.g., in sensors, energy storage, electrochemical systems, catalysis, etc). of graphene, the superior properties are usually because of the reactivity of intrinsic defects and dangling bonds.
It also gives a way to design and fabricate sandwich-like graphene and even graphene-analogue-supported functional materials with well-defined structures for broad applications such as catalysts, sensors, energy storage and conversion.
The existence of a magnetic field has a noticeable effect on heat transfer reduction under natural convection and mixed convection, but in many engineering applications such as magnetic sensors, magnetic storage media, and cooling systems of electronic devices, increasing heat transfer from solid surfaces is a goal.
