Electromagnetic fieldsThis revised edition provides patient guidance in its clear and organized presentation of problems. It is rich in variety, large in number and provides very careful treatment of relativity. One outstanding feature is the inclusion of simple, standard examples demonstrated in different methods that will allow students to enhance and understand their calculating abilities. There are over 145 worked examples; virtually all of the standard problems are included. |
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Results 1-3 of 17
Page 544
Combining all of these results, we get the Lorentz transformation formulas x'=y(x
— Vt) y' =y z'=z t'=y(t— gar) (28-24) I I I I I V I x=y(x+Vt) y=y z=z t=y(t+—2x) (28-25)
c where 7 is given by (28-23). The equations (28-25) can be obtained from ...
Combining all of these results, we get the Lorentz transformation formulas x'=y(x
— Vt) y' =y z'=z t'=y(t— gar) (28-24) I I I I I V I x=y(x+Vt) y=y z=z t=y(t+—2x) (28-25)
c where 7 is given by (28-23). The equations (28-25) can be obtained from ...
Page 548
... correctness of the relativity postulates. In order to see the motivation for what
we will do in the next section, it is useful to look at some of our results from
another point of view. The Lorentz transformation applies to coordinate
differentials too, ...
... correctness of the relativity postulates. In order to see the motivation for what
we will do in the next section, it is useful to look at some of our results from
another point of view. The Lorentz transformation applies to coordinate
differentials too, ...
Page 574
1.[(¢<>s0/~,)'+s1n1o]'/' m0'= ytan0 28-5 Show that two successive Lorentz
transformations corresponding to speeds V, and V2 in the same direction are
equivalent to a single Lorentz transformation with a speed V= (V, + V2)/[1 +(V, V2/
c2)].
1.[(¢<>s0/~,)'+s1n1o]'/' m0'= ytan0 28-5 Show that two successive Lorentz
transformations corresponding to speeds V, and V2 in the same direction are
equivalent to a single Lorentz transformation with a speed V= (V, + V2)/[1 +(V, V2/
c2)].
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