Suppose that the current varies with time, so that dI (t)/dt ‡ 0. Find the electromotive force & induce across the entire solenoid due to the change in current through the entire solenoid. Express your answer in terms of dI (t)/dt, n, Z, and R. ▸ View Available Hint(s) E = 15. ΑΣΦ βγ α Part D V A 8 € η Ꮎ I P 0 T φ χ Σ Φ Ψ Ω ħ E Submit Previous Answers Request Answer X Incorrect; Try Again; 2 attempts remaining к SE ? 2 y @ X μ

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Chapter1: Units, Trigonometry. And Vectors
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To explain self-inductance, it is helpful to consider the specific example of a long solenoid, as shown in the figure. This solenoid has only one winding, and so the EMF induced by its changing current appears across the solenoid itself. This contrasts with mutual inductance, where this voltage appears across a second coil wound on the same cylinder as the first.

Assume that the solenoid has radius R, length Z along the z axis, and is wound with nnn turns per unit length so that the total number of turns is equal to nZ. Assume that the solenoid is much longer than its radius.

A. 

Suppose that the current varies with time, so that dI(t)/dt≠0. Find the electromotive force EMF induced across the entire solenoid due to the change in current through the entire solenoid.
Express your answer in terms of dI(t)/dt, n, Z, and R.
 
B. 
The self-inductance L is related to the self-induced EMF E(t)by the equation E(t)=−LdI(t)/dtt. Find L for a long solenoid. (Hint: The self-inductance L will always be a positive quantity.)
Express the self-inductance in terms of the number of turns per length n, the physical dimensions R and Z, and relevant constants.
Learning Goal:
To explain self-inductance, it is helpful to consider the
specific example of a long solenoid, as shown in the
figure. This solenoid has only one winding, and so the
EMF induced by its changing current appears across the
solenoid itself. This contrasts with mutual inductance,
where this voltage appears across a second coil wound
on the same cylinder as the first.
(Figure 1)
Assume that the solenoid has radius R, length Z along
the z axis, and is wound with n turns per unit length so
that the total number of turns is equal to nZ. Assume
that the solenoid is much longer than its radius.
Figure
R
A
B
Z
Air-Core Solenoid
m
Schematic Symbol
< 1 of 1
B
>
Suppose that the current varies with time, so that di (t)/dt = 0. Find the electromotive force & induced
across the entire solenoid due to the change in current through the entire solenoid.
Express your answer in terms of dI (t)/dt, n, Z, and R.
► View Available Hint(s)
E =
Submit
VE ΑΣΦ
B Y
Part D
8
V
π
A Σ
8 € n
T b
P O
Φ Y Ω ħ
Ꮎ
X
E
Previous Answers Request Answer
X Incorrect; Try Again; 2 attempts remaining
K
Y
र
ω
?
μ
www
Transcribed Image Text:Learning Goal: To explain self-inductance, it is helpful to consider the specific example of a long solenoid, as shown in the figure. This solenoid has only one winding, and so the EMF induced by its changing current appears across the solenoid itself. This contrasts with mutual inductance, where this voltage appears across a second coil wound on the same cylinder as the first. (Figure 1) Assume that the solenoid has radius R, length Z along the z axis, and is wound with n turns per unit length so that the total number of turns is equal to nZ. Assume that the solenoid is much longer than its radius. Figure R A B Z Air-Core Solenoid m Schematic Symbol < 1 of 1 B > Suppose that the current varies with time, so that di (t)/dt = 0. Find the electromotive force & induced across the entire solenoid due to the change in current through the entire solenoid. Express your answer in terms of dI (t)/dt, n, Z, and R. ► View Available Hint(s) E = Submit VE ΑΣΦ B Y Part D 8 V π A Σ 8 € n T b P O Φ Y Ω ħ Ꮎ X E Previous Answers Request Answer X Incorrect; Try Again; 2 attempts remaining K Y र ω ? μ www
Learning Goal:
To explain self-inductance, it is helpful to consider the
specific example of a long solenoid, as shown in the
figure. This solenoid has only one winding, and so the
EMF induced by its changing current appears across the
solenoid itself. This contrasts with mutual inductance,
where this voltage appears across a second coil wound
on the same cylinder as the first.
(Figure 1)
Assume that the solenoid has radius R, length Z along
the z axis, and is wound with n turns per unit length so
that the total number of turns is equal to nZ. Assume
that the solenoid is much longer than its radius.
Figure
Α΄
R
A
B
|
Z
Air-Core Solenoid
୧୪୪୪୪୪
Schematic Symbol
<
B
1 of 1
The self-inductance L is related to the self-induced EMF & (t) by the equation &(t) = −LdI(t)/dt. Find L
for a long solenoid. (Hint: The self-inductance I will always be a positive quantity.)
Express the self-inductance in terms of the number of turns per length n, the physical dimensions R
and Z, and relevant constants.
L
ΠΫΠΙ ΑΣΦ
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Submit
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В Y
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nu ZR
1
P
Φ
8
6
€
n
T Φ
Y Ω
ħ
Ꮎ
X
E
Previous Answers Request Answer
X Incorrect; Try Again; 3 attempts remaining
K
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^
3
?
μ
X www.
Transcribed Image Text:Learning Goal: To explain self-inductance, it is helpful to consider the specific example of a long solenoid, as shown in the figure. This solenoid has only one winding, and so the EMF induced by its changing current appears across the solenoid itself. This contrasts with mutual inductance, where this voltage appears across a second coil wound on the same cylinder as the first. (Figure 1) Assume that the solenoid has radius R, length Z along the z axis, and is wound with n turns per unit length so that the total number of turns is equal to nZ. Assume that the solenoid is much longer than its radius. Figure Α΄ R A B | Z Air-Core Solenoid ୧୪୪୪୪୪ Schematic Symbol < B 1 of 1 The self-inductance L is related to the self-induced EMF & (t) by the equation &(t) = −LdI(t)/dt. Find L for a long solenoid. (Hint: The self-inductance I will always be a positive quantity.) Express the self-inductance in terms of the number of turns per length n, the physical dimensions R and Z, and relevant constants. L ΠΫΠΙ ΑΣΦ VO ४ Submit V В Y T A Σ nu ZR 1 P Φ 8 6 € n T Φ Y Ω ħ Ꮎ X E Previous Answers Request Answer X Incorrect; Try Again; 3 attempts remaining K Y ^ 3 ? μ X www.
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