Electroweak interaction/Quiz

Electroweak interaction is a lecture about the application of laboratory and theoretical physics to astronomical phenomena.

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Quiz

Hypotheses

The electroweak interaction like the other interactions is a manifestation of a general electromagnetic type interaction.

External links

	a mu neutrino
	a positron emission
	a decay product of a neutron
	weak interaction
	an electron neutrino
	comes in mutable varieties

	the angular momentum of the planet Mercury around the Sun
	a unit of energy
	a quantity that denotes the ability to do work
	1.2 PeV
	a unit dimensioned in mass, distance, and time
	a unit not based on the Coulomb

	a core which emits neutrinos
	Fermi's β-decay theory
	²⁶Al
	undetectable with balloon-borne detectors
	Gamow-Teller interactions
	steady enough emission to be used as a standard for X-ray emission
	observed with delta-rays in 1731
	M. Fierz

	s-waves
	the sum of the spins
	neutrinos
	Pauli's exclusion principle
	deuterium
	radio waves

	angular momentum transfer
	solar wind
	protons
	electrons
	the baryon neutrino
	charge neutralization

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Ignore the questions' coefficients:

	a launch location
	relic neutrinos
	of order of the photon density
	the thermal energy at which neutrinos decouple
	neutrinos dynamically dominate baryons
	a contracting universe

	a launch location
	a rate of change of the impetus with time
	photon density
	an acceleration of the impetus
	neutrinos dynamically dominating baryons
	a rate of change of mass

	if the x-axis is the longitude of the Greenwich meridian, and a_x equals a_y, then RA equals 6^h
	if the x-axis is the longitude of the Greenwich meridian, and a_x equals a_y, then RA equals 3^h
	the value of a is given by $a={\sqrt {a_{x}^{2}+a_{y}^{2}+a_{z}^{2}}}$
	if a_x equals a_y equals a_z, then the declination is -45°
	if a_x equals a_y equals a_z, then the declination is +45°

	emission of electromagnetic radiation from a superluminal charged particle
	intensity of some components decays as the inverse of the distance from the source
	non-spherically-decaying sources
	emission contains very high frequencies not present in the synthesis of the source
	non-spherically decaying components of the radiation do not violate energy conservation
	strong electromagnetic fields are compensated by weak fields elsewhere

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