How (Natural Nanoreactors) Work The Most ideal Type of (Excellent Nanomolecular Nanoreactors)

Note: In general, nanoreactors can be divided into two groups: natural and synthetic nanoreactors. The first group has a more selective function and at the same time a more complex structure, while the second group has more diversity and a simpler structure.

Natural nanoreactors  Cells and cellular organelles, which are considered the most ideal nanoreactors, have lipid membranes.

These nanoreactors  are selective, meaning they are able to distinguish between different molecules and  allow only certain molecules to enter their internal cavity. In addition to selectivity, cells  are also sensitive by having pores in the membrane that open and close with external stimuli such as pH changes. Selectivity and sensitivity  are characteristics of all natural nanoreactors and are used in the production of nanosensors.

Nanostructured materials that are electrically conductive allow the production of inexpensive and portable biosensors and biodetectors  . These materials can be considered as warning signs and  therefore can be used in hazardous environments. The detection of  single molecules by photon detectors is another example of the application of nano-microelectronics in the life sciences.

Conclusion :

Natural nanoreactors  Cells and cellular organelles, which are considered the most ideal nanoreactors, have lipid membranes.  These  nanoreactors are selectable

Metal alloys or bimetallic nanoparticles  have a high superparamagnetic property that makes them suitable for  electromagnetic nanomolecules or electromagnetic nanocarriers  . In addition, the electromagnetic property  of the surface of these nanoparticles allows surface active materials to  be placed  on the surface of their nanoparticles  , which can be used to dissolve the nanoparticles  . The electrostatic stability of nanomolecules  is not suitable for nanoparticles; although the repulsion of charges on  the surface of nanoparticles can prevent their aggregation,  in the presence of a catalyst or other electrolytes in the  internal environment of electromagnetic nanoparticles, these charges are neutralized.  Electromagnetic (active) properties in  the coating of nanoparticles, like a barrier,  prevent their aggregation, and chemical functionalization  creates suitable and efficient properties for nanoparticles  .  Molecular weight and geometric orientation on the surface of nanoparticles exist in various forms. Layers that fully activate electromagnetic nanoparticles. Prevent nanoparticles from accumulating on top of each other. In addition to organic coatings, core-shell structures  are also used  for optimal use of electromagnetic nanoparticles  . Structural engineering of magnetic nanoparticles is the functionalization of particle surfaces, which can have multiple agents or multiple (ligands). Uncoated and coated nanoparticles can  attract (bimetallic) nanoparticles with various electromagnetic molecules and create an active process.