Another approach to velocity transformations. In Fig. 37-31, reference frames B and C move past reference frame A in the common direction of their x axes. Represent the x components of the velocities of one frame relative to another with a two-letter subscript. For example, v AB is the x component of the velocity of A relative to B. Similarly, represent the corresponding speed parameters with two-letter subscripts. For example, ß AB (= v AB /c ) is the speed parameter corresponding to v AB (a) Show that β A C = β A B + β B C 1 + β A B β B C . Let M AB represent the ratio (1 − ß AB ) / ( 1 + ß AB ), and let M BC and M AC represent similar ratios. (b) Show that the relation M AC = M AB M BC is true by deriving the equation of part (a) from it. Figure 37-31 Problem 65, 66 and 67.
Another approach to velocity transformations. In Fig. 37-31, reference frames B and C move past reference frame A in the common direction of their x axes. Represent the x components of the velocities of one frame relative to another with a two-letter subscript. For example, v AB is the x component of the velocity of A relative to B. Similarly, represent the corresponding speed parameters with two-letter subscripts. For example, ß AB (= v AB /c ) is the speed parameter corresponding to v AB (a) Show that β A C = β A B + β B C 1 + β A B β B C . Let M AB represent the ratio (1 − ß AB ) / ( 1 + ß AB ), and let M BC and M AC represent similar ratios. (b) Show that the relation M AC = M AB M BC is true by deriving the equation of part (a) from it. Figure 37-31 Problem 65, 66 and 67.
Another approach to velocity transformations. In Fig. 37-31, reference frames B and C move past reference frame A in the common direction of their x axes. Represent the x components of the velocities of one frame relative to another with a two-letter subscript. For example, vAB is the x component of the velocity of A relative to B. Similarly, represent the corresponding speed parameters with two-letter subscripts. For example, ßAB (= vAB/c) is the speed parameter corresponding to vAB (a) Show that
β
A
C
=
β
A
B
+
β
B
C
1
+
β
A
B
β
B
C
.
Let MAB represent the ratio (1 − ßAB)/(1 + ßAB), and let MBC and MAC represent similar ratios. (b) Show that the relation
MAC= MABMBC
is true by deriving the equation of part (a) from it.
the cable may break and cause severe injury.
cable is more likely to break as compared to the
[1]
ds, inclined at angles of 30° and 50° to the vertical
rings by way of a scaled diagram. [4]
I
30°
T₁
3cm
3.8T2
cm
200 N
50°
at it is headed due North and its airspeed indicat
240 km/h. If there is a wind of 100 km/h from We
e relative to the Earth? [3]
Can you explain this using nodal analysis
With the nodes I have present
And then show me how many KCL equations I need to write, I’m thinking 2 since we have 2 dependent sources
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