Negative mass defect
State is it possible that the nucleus consists of negative mass defect?
Expert
When the nucleus has had a mass defect it is probable that the strong force and the weak force have sustained a main reduction in equilibrium. It can cause the positive and negative charges to reverse and change the energy levels. Such a phenomenon has been explained by Sir Einstein in his paper on the speed of light and time reduction. You can also check this by the use of an electron microscope to find out the color spectrum which had changed drastically. If so, then you might have a problem.
What do you mean by the term positron? Explain in short.
Cosmic censorship conjecture (R. Penrose, 1979): The conjecture, so far wholly undemonstrated in the context of general relativity, that all singularities (that is with the possible exception of the big bang singularity) are attended
Meissner effect (W. Meissner; 1933): The reduction of the magnetic flux in a superconducting metal whenever it is cooled beneath the transition temperature. That is the superconducting materials imitate magnetic fields.
What is main difference between secondary electron image and the back scattered electron image? State briefly.
Josephson effects (B.D. Josephson; 1962): Electrical effects examined whenever two superconducting materials are separated by a thin layer of the insulating substance.
Kirchhoff's law of radiation (G.R. Kirchhoff): The emissivity of a body is equivalent to its absorbptance at similar temperature.
Briefly describe the applications of the nmr spectroscopy?
Joule-Thomson effect: Joule-Kelvin effect (J.P. Joule, W. Thomson [later Lord Kelvin]): The change in temperature which takes place whenever a gas expands into an area of lower pressure.
Van der Waals force (J.D. van der Waals): The forces responsible for non-ideal behavior of gases, and for lattice energy of molecular crystals. There are three main causes: dipole-dipole interaction; dipole-induced dipole moments; and dispersion a for
NUCLEAR PHYSICS (PHY555) HOMEWORK #1 1. Calculate the luminosity for a beam of protons of 1 µA colliding with a stationary liquid hydrogen target 30 cm long. Compare this to a typical colliding beam luminosity of ∼1034 cm-2
18,76,764
1935651 Asked
3,689
Active Tutors
1418018
Questions Answered
Start Excelling in your courses, Ask an Expert and get answers for your homework and assignments!!