The proton has a mass of 1.67 ✕ 10−27 kg. Consider a proton moving with a speed of 0.900c. (Enter your answer in GeV.)
(a) What is its rest energy?
(b) What is its total energy?
(c) What is its kinetic energy?
All answers are in GeV. Thank you!
The proton has a mass of 1.67 ✕ 10−27 kg. Consider a proton moving with a...
10 DETAILS SERCP11 26.7.OP.028. The alpha particle has a mass of 6.64 x 10-27 kg. Consider an alpha partide moving with a speed of 0.880c. (Enter your answer in GeV.) (a) What is its rest energy? Gev (b) What is its total energy? GeV (c) What is its kinetic energy? GeV Submit Answer Viewing Saved Work Revert to Last Response
A proton (mass m = 1.67 × 10-27 kg) is being accelerated along a straight line at 8.70 × 1011 m/s2 in a machine. If the proton has an initial speed of 3.20 × 106 m/s and travels 1.30 cm, what then is (a) its speed and (b) the increase in its kinetic energy?
A proton (mass = 1.67 × 10−27 kg) has a kinetic energy of 0.8 MeV. If its momentum is measured with an uncertainty of 1.29%, what is the minimum uncertainty in its position? (h = 6.63 × 10−34 J⋅s and 1 eV = 1.6 × 10−19 J)
A proton (m, = 1.67 X 10-27 kg, qo=e= 1.60 X 10-19 C) and an alpha particle (me = 4m, 9a= 49p) start from rest at the same point in a region of uniform electric field E= 200 V/m. Each particle travels a distance of 4.0 cm in this field. (a) At that point, which particle has the higher kinetic energy, and what is this energy? (b) At that point, which particle is moving with the higher speed, and what...
Two protons (rest mass M = 1.67 * 10^-27 kg) move at same speed in opposite directions. After bumping into each other the protons remain, but as a consequence of the bump a new particle is created, which has a rest mass m = 1.75 * 10^-28 kg. a) Calculate the protons' speed at the beginning by assuming that all particles are in rest after the bump. Give your answer in the unit light speed c. b) Calculate the proton's...
In a particle accelerator, a proton has mass 1.67 ✕ 10−27 kg and an initial speed of 4.00 ✕ 105 m/s. It moves in a straight line, and its speed increases to 7.00 ✕ 105 m/s in a distance of 35.0 cm. Assume that the acceleration is constant. Find the magnitude of the force (in N) exerted on the proton.
In a vacuum, a proton (charge = +e, mass = 1.67 times 10^-27 kg) is moving parallel to a uniform electric field that is directed along the +x axis (see figure below). The proton starts with a velocity of +4.30 times 10^4 m/s and accelerates in the same direction as the electric field, which has a value of +5.70 times 10^3 N/C. Find the velocity of the proton when its displacement is +2.0 mm from the starting point. Number Units...
In a vacuum, a proton (charge = +e, mass = 1.67 x 10-27 kg) is moving parallel to a uniform electric field that is directed along the +x axis (see figure below). The proton starts with a velocity of +4.40 x 104 m/s and accelerates in the same direction as the electric field, which has a value of +7.90 x 103 N/C. Find the velocity of the proton when its displacement is +2.0 mm from the starting point. +2.0 mm...
In a vacuum, a proton (charge = +e, mass = 1.67 x 10-27 kg) is moving parallel to a uniform electric field that is directed along the +x axis (see figure below). The proton starts with a velocity of +5.10 x 104 m/s and accelerates in the same direction as the electric field, which has a value of +2.10 x 103 N/C. Find the velocity of the proton when its displacement is +2.0 mm from the starting point. à +x...
A neutron of mass 1.67 x 10-27 kg, moving with velocity 2.0 x 104 m/s, makes a head-on collision with a boron nucleus of mass 17.0 x 10-27 kg. The boron nucleus is initially at rest. If the collision is elastic, what fraction of the original kinetic energy of the neutron is transferred to the boron nucleus?