Roger Dynamic Motion Posted June 12, 2017 Posted June 12, 2017 (edited) Are they from different energy family? Edited June 12, 2017 by Roger Dynamic Motion
KipIngram Posted June 12, 2017 Posted June 12, 2017 Photons are the quanta of the electromagnetic interaction. Z particles (along with W particles) are quanta of the weak interaction. All three (photons, Z, and W) are bosons, but Z and W have rest mass, whereas photons are "rest massless." Because of this the electromagnetic interaction is long-range, whereas the weak interaction is not. W has charge, but Z doesn't, and is its own anti-particle. That's the extent of my woefully limited knowledge - I'm sure others will add more. But basically they (photons and Z) are both chargeless bosons, but they mediate different forces and W has mass.
Roger Dynamic Motion Posted June 13, 2017 Author Posted June 13, 2017 Photons are the quanta of the electromagnetic interaction. Z particles (along with W particles) are quanta of the weak interaction. All three (photons, Z, and W) are bosons, but Z and W have rest mass, whereas photons are "rest massless." Because of this the electromagnetic interaction is long-range, whereas the weak interaction is not. W has charge, but Z doesn't, and is its own anti-particle. That's the extent of my woefully limited knowledge - I'm sure others will add more. But basically they (photons and Z) are both chargeless bosons, but they mediate different forces and W has mass. do I understand that Z is an anti photon.
KipIngram Posted June 13, 2017 Posted June 13, 2017 No. The photon is its own antiparticle, and the Z is its own antiparticle. But they are different particles (differ in mass, differ in which forces they mediate, etc.) What they have in common is that they are all bosons.
imatfaal Posted June 13, 2017 Posted June 13, 2017 Roger - where are you getting the idea that z is an anti-photon? Your threads would go much smoother if you provided a background to the questions you have asked.
MigL Posted June 13, 2017 Posted June 13, 2017 The Z and the photon would have been essentially similar, but the Z ( and Ws ) gained the ability to couple with the Higgs field when the electroweak symmetry break occurred. This gives them mass, and reduces their interaction range. 1
imatfaal Posted June 13, 2017 Posted June 13, 2017 The Z and the photon would have been essentially similar, but the Z ( and Ws ) gained the ability to couple with the Higgs field when the electroweak symmetry break occurred. This gives them mass, and reduces their interaction range. Spin is different isn't it? Sorry rush of blood to the head
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