Dillip Kumar Mishra

In nanotechnology, nanoparticles with a diameter of 1-100 nm are used. For such dimensions, they have a size effect or a new unexpected property necessary for the technology. By adding (doping) other atoms, this property can be increased.

Quantum technologies use even smaller particles, commensurate with the long de Broglie wavelength. Quantum dots are 1-2 nm in size. If you dope them with other atoms, you might get some new emergent property. The use of quantum dots is an example of the application of quantum and nanotechnology.

Atomic embedding and nanotechnology are both fields that are concerned with the behavior of matter on the nanoscale. In atomic embedding, the focus is on understanding the behavior of atoms within a larger system, while in nanotechnology, the focus is on designing and controlling structures and devices at the nanoscale.

In quantum mechanics, which is the study of the behavior of matter and energy on the atomic and subatomic scale, the concepts of atomic embedding and nanotechnology can be useful in a number of ways. For example:

In summary, the concepts of atomic embedding and nanotechnology are highly relevant to the study of quantum mechanics, and can be used to design and optimize quantum devices, study the behavior of nanomaterials, and understand the behavior of atoms within larger systems.

Atomic embedding is a computational method used to simulate the interactions between atoms in a material, particularly in the presence of other materials or molecules. It can be used to study the electronic, structural, and other properties of materials, and it has applications in various fields, including nanotechnology and quantum mechanics.

In the field of nanotechnology, atomic embedding can be used to study the behavior of atoms and molecules on the nanoscale. By understanding the interactions between atoms and molecules, researchers can design and optimize nanomaterials for specific applications. For example, atomic embedding can be used to study the properties of nanoparticles, which have unique electronic and optical properties that make them useful in various fields such as electronics, sensing, and biomedicine.

In the field of quantum mechanics, atomic embedding is also useful for studying the electronic properties of materials, particularly those with large numbers of atoms. It allows researchers to calculate the electronic structure of a material, which is important for understanding its optical, magnetic, and transport properties. Additionally, atomic embedding can be used to study the interactions between atoms and molecules in the context of quantum chemistry, which is important for designing new materials with specific properties.

Overall, atomic embedding is a powerful computational tool that has applications in various fields, including nanotechnology and quantum mechanics. It allows researchers to study the interactions between atoms and molecules in materials, which is important for designing and optimizing new materials with specific properties.