It's only when a field is changing that energy is transferred and photons are an explanation of that energy transfer. I don't think there is any conflict of meaning here.gianeshwar said:Now photon is the quanta of electromagnetic field.
What is the source of the information you are quoting here and in your other thread?gianeshwar said:We say that vibrations of Faraday lines of force create electromagnetic waves
The concept of quanta in fields and waves is based on the theory of quantum mechanics, which explains the behavior of particles and waves at the atomic and subatomic level. In this theory, energy and matter are not continuous, but instead exist in discrete packets called quanta. This means that electromagnetic waves, such as light, also have a particle-like nature and can be described as a stream of quanta, called photons.
Quanta are related to fields and waves in that they are the fundamental units of energy and matter that make up these phenomena. A field is a region of space where a force or energy can be detected, and it is made up of many quanta. Waves, on the other hand, are disturbances that propagate through a medium or space, and they can be described as a collection of quanta moving together.
Some examples of quanta in fields and waves include photons in light, phonons in sound waves, and gravitons in gravitational fields. Other examples include electrons in electric and magnetic fields, and gluons in the strong nuclear force. In all of these cases, the behavior of these particles and waves can be described using the principles of quantum mechanics.
The concept of quanta in fields and waves has had a significant impact on technology. For example, understanding the particle-like nature of light and other electromagnetic waves has led to the development of technologies such as lasers, solar cells, and fiber optic communications. Additionally, the principles of quantum mechanics have also been applied to develop technologies such as transistors and computer processors.
There is ongoing research in many areas related to quanta in fields and waves, including quantum computing, quantum cryptography, and quantum field theory. Scientists are also exploring the potential applications of quanta in various fields, such as medicine, energy, and materials science. Additionally, there is ongoing research on the fundamental nature of quanta and their role in the behavior of fields and waves.