16 Sep 2012
... throughout the universe. Quanta that interact strongly with it have a large mass, those that interact weakly have a small mass, and those that don't interact have no mass and move at lightspeed. If the Higgs had turned out (as was possible) not to exist, fundamental physics would have been turned in ...
... throughout the universe. Quanta that interact strongly with it have a large mass, those that interact weakly have a small mass, and those that don't interact have no mass and move at lightspeed. If the Higgs had turned out (as was possible) not to exist, fundamental physics would have been turned in ...
The Differential Geometry and Physical Basis for the Application of
... with quantum mechanics to produce the start of quantum electrodynamics. In his 1929 article Weyl turned from trying to unify electromagnetism and gravity to introducing as a phase factor an exponential in which the phase α is preceded by the imaginary unit i, e.g., e+iqα(x), in the wave function fo ...
... with quantum mechanics to produce the start of quantum electrodynamics. In his 1929 article Weyl turned from trying to unify electromagnetism and gravity to introducing as a phase factor an exponential in which the phase α is preceded by the imaginary unit i, e.g., e+iqα(x), in the wave function fo ...
Operator Analysis for the Higgs Potential and Cosmological Bound
... the false vacuum energy. As an example, taking mt = 150GeV and mH = 100GeV , we find that Λ cannot be lower than about 1 TeV. Certainly, if Λ is too small, our effective lagrangian becomes unreliable. Instead, we should work on the underlying theory. We should also mention that the mechanism for rel ...
... the false vacuum energy. As an example, taking mt = 150GeV and mH = 100GeV , we find that Λ cannot be lower than about 1 TeV. Certainly, if Λ is too small, our effective lagrangian becomes unreliable. Instead, we should work on the underlying theory. We should also mention that the mechanism for rel ...
Standard model of particle physics
... Likewise any baryon consists of three quarks and any antibaryon of three antiquarks, e.g. two up quarks and one down quark make a proton. If we look closely at this model, we see that different quarks in one particle can have the same quantum numbers like the three strange quarks in the Ω− hadron. B ...
... Likewise any baryon consists of three quarks and any antibaryon of three antiquarks, e.g. two up quarks and one down quark make a proton. If we look closely at this model, we see that different quarks in one particle can have the same quantum numbers like the three strange quarks in the Ω− hadron. B ...