Nanoelectric, Nanophotoelectric Properties of Oligophenylene Vanillin Nanowires

Note:  The advantages  of Oligophenylene  vanillin  nanowires  in the use and development of sensor operating systems stem from the well-known properties of silicon and its favorable manufacturing processes. The physical properties of these nanowires include their electrical, photoelectric, and mechanical properties.

Oligophenylene  vanillin  nanowires   are one of the best examples of semiconductor nanostructures that can be fabricated as single crystals with a diameter of 9 to 0 nm.  Oligophenylene vanillin nanowires  have high mobility and surface-to-volume ratio, which makes them easy to control using a weak electric field.  These one-dimensional nanostructures are made of  nanowires with diameters in the nanometer range and lengths of more than a micrometer. The fabrication of nanowires from  regular one-dimensional arrays has been carried out using different physical and chemical methods.

Methods such as  electron beam or lithography, heavy ion irradiation, laser, chemical and electrochemical methods  such as hydrothermal, and spontaneous assembly methods used to make mold membranes can also be used  .  In the manufacture of one-dimensional nanostructures such as nanowires by electrodeposition, there are three general steps: first, the construction of a porous mold as a suitable substrate and framework for the accumulation of nanowires, second, the growth of nanowires along the mold holes, and third, the removal of the mold and separation of nanowires from it. The properties of nanowires are directly dependent on the surface characteristics of the mold such as the size distribution of the pores, the density of the pores, and the superiority of the surface of the nanopores. To control the properties of  Oligophenylene  vanillin  nanowires,   it is necessary to consider the parameters that affect the formation and optimization of the diameter of the pores and the thickness of the mold.

Conclusion :

Oligophenylene vanillin  nanowires such  as cobalt, nickel, iron and alloys can be  fabricated by electrospinning and self-assembly on an anodic aluminum oxide template, and the magnetic properties  of cobalt nanowire arrays such as coercive force, saturation electromagnetism and remanent magnetization depend on the configuration of the nanowires and  the diameter of the nanowires. This property  of Oligophenylene  vanillin  nanowires  can be easily controlled by changing the factors affecting the template fabrication such as  oxidation process potential and pH. Applications include  chemical nanosensors, logic nanodevices and other nanoelectronic and nanooptical devices.