Relativistic reversal of events. Figures 37-25 a and b show the (usual) situation in which a primed reference frame passes an un-primed reference frame, in the common positive direction of the x and x' axes, at a constant relative velocity of magnitude v . We are at rest in the unprimed frame; Bullwinkle, an astute student of relativity in spite of his cartoon upbringing, is at rest in the primed frame. The figures also indicate events A and B that occur at the following spacetime coordinates as measured in our unprimed frame and in Bullwinkle’s primed frame: Event Unprimed Primed A ( x A , t A ) ( x ' A , t ' A ) B ( x B , t B ) ( x ' B , t ' B ) In our frame, event A occurs before event B, with temporal separation ∆ t = t B − t A = 1.00 µ s and spatial separation ∆ x = x B − x A = 400 m. Let ∆ t' be the temporal separation of the events according to Bullwinkle. (a) Find an expression for ∆ t' in terms of the speed parameter ß ( = v/c ) and the given data. Graph ∆ t' versus ß for the following two ranges of ß: (b) 0 to 0.01 ( v is low, from 0 to 0.01 c ) (c) 0.1 to 1 ( v is high, from 0.1 c to the limit c ) (d) At what value of ß is ∆ t' = 0? For what range of ß is the sequence of events A and B according to Bullwinkle (e) the same as ours and (f) the reverse of ours? (g) Can event A cause event B , or vice versa? Explain. Figure 37-25 Problem 21, 22, 60, and 61.
Relativistic reversal of events. Figures 37-25 a and b show the (usual) situation in which a primed reference frame passes an un-primed reference frame, in the common positive direction of the x and x' axes, at a constant relative velocity of magnitude v . We are at rest in the unprimed frame; Bullwinkle, an astute student of relativity in spite of his cartoon upbringing, is at rest in the primed frame. The figures also indicate events A and B that occur at the following spacetime coordinates as measured in our unprimed frame and in Bullwinkle’s primed frame: Event Unprimed Primed A ( x A , t A ) ( x ' A , t ' A ) B ( x B , t B ) ( x ' B , t ' B ) In our frame, event A occurs before event B, with temporal separation ∆ t = t B − t A = 1.00 µ s and spatial separation ∆ x = x B − x A = 400 m. Let ∆ t' be the temporal separation of the events according to Bullwinkle. (a) Find an expression for ∆ t' in terms of the speed parameter ß ( = v/c ) and the given data. Graph ∆ t' versus ß for the following two ranges of ß: (b) 0 to 0.01 ( v is low, from 0 to 0.01 c ) (c) 0.1 to 1 ( v is high, from 0.1 c to the limit c ) (d) At what value of ß is ∆ t' = 0? For what range of ß is the sequence of events A and B according to Bullwinkle (e) the same as ours and (f) the reverse of ours? (g) Can event A cause event B , or vice versa? Explain. Figure 37-25 Problem 21, 22, 60, and 61.
Relativistic reversal of events. Figures 37-25a and b show the (usual) situation in which a primed reference frame passes an un-primed reference frame, in the common positive direction of the x and x' axes, at a constant relative velocity of magnitude v. We are at rest in the unprimed frame; Bullwinkle, an astute student of relativity in spite of his cartoon upbringing, is at rest in the primed frame. The figures also indicate events A and B that occur at the following spacetime coordinates as measured in our unprimed frame and in Bullwinkle’s primed frame:
Event
Unprimed
Primed
A
(xA, tA)
(
x
'
A
,
t
'
A)
B
(xB, tB)
(
x
'
B, t
'
B)
In our frame, event A occurs before event B, with temporal separation ∆t = tB− tA = 1.00 µs and spatial separation ∆x = xB− xA = 400 m. Let ∆t' be the temporal separation of the events according to Bullwinkle. (a) Find an expression for ∆t' in terms of the speed parameter ß(= v/c) and the given data. Graph ∆t' versus ß for the following two ranges of ß:
(b) 0 to 0.01 (v is low, from 0 to 0.01c)
(c) 0.1 to 1 (v is high, from 0.1c to the limit c)
(d) At what value of ß is ∆t' = 0? For what range of ß is the sequence of events A and B according to Bullwinkle (e) the same as ours and (f) the reverse of ours? (g) Can event A cause event B, or vice versa? Explain.
One of the earliest video games to have a plot, Zork, measured distances in “Bloits” where 1 Bloit was defined as the distance the king’s favorite pet could run in one hour, 1,090 m. In the same game the king has a statue made that is 9.00 Bloits high. What is this in meters?
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