Photons - WikiMechanics

Photons

Definition: the union of a particle and its anti-particle is called a photon. We reserve the Greek letter γ to note this type of compound quark.

$\mbox{\fontsize{12}{14}\selectfont $ \gamma^{\,\sf{P}} \equiv \left\{ \sf{P}, \overline{\sf{P}} \right\} $}$

Photons have perfect symmetry between quarks and anti-quarks, Δn^q = 0 for all q. So photons have no inertia, enthalpy, charge or mass. Photons are aethereal. The momentum of a P-type photon depends on the frame-of-reference used for a description; its direction of motion is always along an axis set by the average inertia of the frame, with the sign depending on the phase

$\mbox{\fontsize{12}{14}\selectfont $ c \overline{p}^{\,\gamma} = \pm 2 N^{\sf{P}} \widetilde{I}^{\,\sf{F}} $}$

The mechanical energy of a photon is

$\mbox{\fontsize{12}{14}\selectfont $ E ^{\,\gamma} = 2 N^{\sf{P}} \parallel \widetilde{I}^{\,\sf{F}} \parallel $}$

The position of a photon is not defined, except when absorbed into a material particle.

Quark Coefficients

Photon	u	d	e	g	m	a	t	b	s	c	u	d	e	g	m	a	t	b	s	c
$\mbox{\fontsize{14}{18}\selectfont $ \gamma _{\sf{e} } $}$		4	4	4								4	4	4
$\mbox{\fontsize{14}{18}\selectfont $ \gamma _{\sf{t} } $}$		4					21			2		4					21			2
$\mbox{\fontsize{14}{18}\selectfont $ \gamma _{w} $}$	4				5		2			2	4				5		2			2
$\mbox{\fontsize{14}{18}\selectfont $ \gamma _{c} $}$		4				51		2	5			4				51		2	5