Chapter 2: Q85E (page 67)
An electron accelerated from rest through a potential difference V acquires a speed of 0.9998c. Find the value of V.
Short Answer
The potential energy required to acquire a speed of 0.9998c is25 Mega Volts.
Chapter 2: Q85E (page 67)
An electron accelerated from rest through a potential difference V acquires a speed of 0.9998c. Find the value of V.
The potential energy required to acquire a speed of 0.9998c is25 Mega Volts.
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Get started for free(a) Determine the Lorentz transformation matrix giving position and time in framefromthose in framein the classical limitlocalid="1657533931071" . (b) Show that it yields equations (2-1).
From a standstill. you begin jogging at directly toward the galaxy Centaurus A. which is on the horizon away.
(a) There is a clock in Centaurus A. According to you. How Will readings on this clock differ before and after you begin jogging? (Remember: You change
frames.)
(b) The planet Neptune is between Earth and Centaurus is from Earth- How much readings a clock there differ?
(c)What would the time differences if had instead begun jogging in the opposite direction?
(d) What these results tell you about the observations of a traveling twin who accelerates toward his Earth-bound twin? How would these observation depend on the distance the twins?
Show thatfollows from expressions (2-22) and (2-24) for momentum and energy in terms of m and u.
Prove that if v and u' are less than c, it is impossible for a speed u greater than c to result from equation (2-l9b). [Hint: The product (c-u')(c-v) is positive.]
Both classically and relativistically, the force on an object is what causes a time rate of change of its momentum:
(a) using the relativistically correct expression for momentum, show that
(b) Under what conditions does the classical equation hold?
(c) Assuming a constant force and that the speed is zero at , separate t and u, then integrate to show that
(d) Plot verses. What happens to the velocity of an object when a constant force is applied for an indefinite length of time?
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