An oscillator circuit is important to many applications. A simple oscillator circuit can be built by adding a neon gas tube to an RC circuit, as shown in the figure (Figure 1). Gas is normally a good insulator, and the resistance of the gas tube is essentially infinite when the light is off. This allows the capacitor to charge. When the capacitor voltage reaches a value Von, the electric field inside the tube becomes strong enough to ionize the neon gas. Visually, the tube lights with an orange glow. Electrically, the ionization of the gas provides a very-low-resistance path through the tube. The capacitor very rapidly (we can think of it as instantaneously) discharges through the tube and the capacitor voltage drops. When the capacitor voltage has dropped to a value Voff, the electric field inside the tube becomes too weak to sustain the ionization and the neon light turns off. The capacitor then starts to charge again. The capacitor voltage oscillates between Voff, when it starts charging, and Von, when the light comes on to discharge it. Part B A neon gas tube has Von = 40.0 V and Voff = 20.0 V. What resistor value should you choose to go with a 10.0 uF capacitor and a 120 V battery to make a 30.0 Hz oscillator? Express your answer in ohms. ΜΕ ΑΣΦ ? Ω Figure + AVC E- Von Voff 0 R ww Neon gas tube 1 of 1 Submit Previous Answers Request Answer × Incorrect; Try Again; 4 attempts remaining < Return to Assignment Provide Feedback
An oscillator circuit is important to many applications. A simple oscillator circuit can be built by adding a neon gas tube to an RC circuit, as shown in the figure (Figure 1). Gas is normally a good insulator, and the resistance of the gas tube is essentially infinite when the light is off. This allows the capacitor to charge. When the capacitor voltage reaches a value Von, the electric field inside the tube becomes strong enough to ionize the neon gas. Visually, the tube lights with an orange glow. Electrically, the ionization of the gas provides a very-low-resistance path through the tube. The capacitor very rapidly (we can think of it as instantaneously) discharges through the tube and the capacitor voltage drops. When the capacitor voltage has dropped to a value Voff, the electric field inside the tube becomes too weak to sustain the ionization and the neon light turns off. The capacitor then starts to charge again. The capacitor voltage oscillates between Voff, when it starts charging, and Von, when the light comes on to discharge it. Part B A neon gas tube has Von = 40.0 V and Voff = 20.0 V. What resistor value should you choose to go with a 10.0 uF capacitor and a 120 V battery to make a 30.0 Hz oscillator? Express your answer in ohms. ΜΕ ΑΣΦ ? Ω Figure + AVC E- Von Voff 0 R ww Neon gas tube 1 of 1 Submit Previous Answers Request Answer × Incorrect; Try Again; 4 attempts remaining < Return to Assignment Provide Feedback
Chapter9: Current And Resistance
Section: Chapter Questions
Problem 84CP: In this chapter, most examples and problems involved direct current (DC). DC circuits have the...
Question
![An oscillator circuit is important to many applications. A
simple oscillator circuit can be built by adding a neon gas
tube to an RC circuit, as shown in the figure (Figure 1).
Gas is normally a good insulator, and the resistance of the
gas tube is essentially infinite when the light is off. This
allows the capacitor to charge. When the capacitor voltage
reaches a value Von, the electric field inside the tube
becomes strong enough to ionize the neon gas. Visually,
the tube lights with an orange glow. Electrically, the
ionization of the gas provides a very-low-resistance path
through the tube. The capacitor very rapidly (we can think
of it as instantaneously) discharges through the tube and
the capacitor voltage drops. When the capacitor voltage
has dropped to a value Voff, the electric field inside the
tube becomes too weak to sustain the ionization and the
neon light turns off. The capacitor then starts to charge
again. The capacitor voltage oscillates between Voff, when
it starts charging, and Von, when the light comes on to
discharge it.
Part B
A neon gas tube has Von = 40.0 V and Voff = 20.0 V. What resistor value
should you choose to go with a 10.0 uF capacitor and a 120 V battery to
make a 30.0 Hz oscillator?
Express your answer in ohms.
ΜΕ ΑΣΦ
?
Ω
Figure
+
AVC
E-
Von
Voff
0
R
ww
Neon
gas tube
1 of 1
Submit
Previous Answers Request Answer
× Incorrect; Try Again; 4 attempts remaining
< Return to Assignment
Provide Feedback](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F9d7dc701-b654-4339-995f-9e7ccdd48dfe%2Fa70bf934-4bfa-4074-9f4c-28795a9a97a9%2Fgoxpskce_processed.png&w=3840&q=75)
Transcribed Image Text:An oscillator circuit is important to many applications. A
simple oscillator circuit can be built by adding a neon gas
tube to an RC circuit, as shown in the figure (Figure 1).
Gas is normally a good insulator, and the resistance of the
gas tube is essentially infinite when the light is off. This
allows the capacitor to charge. When the capacitor voltage
reaches a value Von, the electric field inside the tube
becomes strong enough to ionize the neon gas. Visually,
the tube lights with an orange glow. Electrically, the
ionization of the gas provides a very-low-resistance path
through the tube. The capacitor very rapidly (we can think
of it as instantaneously) discharges through the tube and
the capacitor voltage drops. When the capacitor voltage
has dropped to a value Voff, the electric field inside the
tube becomes too weak to sustain the ionization and the
neon light turns off. The capacitor then starts to charge
again. The capacitor voltage oscillates between Voff, when
it starts charging, and Von, when the light comes on to
discharge it.
Part B
A neon gas tube has Von = 40.0 V and Voff = 20.0 V. What resistor value
should you choose to go with a 10.0 uF capacitor and a 120 V battery to
make a 30.0 Hz oscillator?
Express your answer in ohms.
ΜΕ ΑΣΦ
?
Ω
Figure
+
AVC
E-
Von
Voff
0
R
ww
Neon
gas tube
1 of 1
Submit
Previous Answers Request Answer
× Incorrect; Try Again; 4 attempts remaining
< Return to Assignment
Provide Feedback
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