"Striking of a photon" is a bit of a vague term. It can refer to a few different things, so let's break down the possibilities and what happens in each case:

1. Photon-Matter Interactions:

* Absorption: A photon can be absorbed by an atom or molecule, causing the atom to jump to a higher energy level. This is the basis of many processes like photosynthesis and the operation of solar panels.

* Scattering: A photon can collide with an atom or molecule and change its direction, possibly also losing some energy. This is how light interacts with objects, leading to reflection and refraction.

* Photoelectric effect: A photon can eject an electron from a metal surface. This effect is used in photomultipliers and solar cells.

* Pair production: If a photon has enough energy (more than 1.022 MeV), it can spontaneously convert into an electron and a positron in the presence of a strong electric field, like that of an atomic nucleus.

2. Photon-Photon Interactions:

* Photon-photon scattering: Photons can interact with each other, though this is very rare because photons are chargeless. This interaction occurs when two photons exchange energy and momentum, leading to a change in their direction. This is extremely difficult to observe experimentally but is predicted by quantum electrodynamics.

* Pair production: Two high-energy photons can collide to produce an electron-positron pair. This process is even rarer than photon-photon scattering.

3. Photon-Antiparticle Interactions:

* Annihilation: A photon can annihilate with its antiparticle, a virtual photon, resulting in the release of energy. This process is important in particle physics and cosmology.

In summary:

"Striking of a photon" can refer to a variety of interactions, each with its own consequences. Understanding the specific context is crucial to interpreting the effects.

Let me know if you have a specific scenario in mind, and I can give you more detailed information.