Here
C = 1.90 x10^-9 F
Charge in 3C capicitor = 36.8×10^-9 C
Now
both the 3C capacitor are in series and thus equivalent capacitance will be
Ce= (3×3)/(3+3)
Ce = 9/6
Ce= 1.5C
Now
Since in series connection charge remain same.
Therefore
Q = 36.8×10^-9C
Ce=1.5×1.90×10^-9 F
Now
V = (36.8×10^-9)/(2.85×10^-9)
V= 12.91V
Ce of 3C capacitance will be in parallel with both capacitor with capacitance C, we know that voltage across parallel capacitor remains same.
Therefore potential across a and b is 12.91V
Consider the network of capacitors in the figure below. If C = 1.90 nF, and the...
1. Consider two capacitors, 30°F and 50uF, that are connected in series as illustrated below. Given that the potential difference across ab is 50V. Find the total charge stored in this network; the charge on each capacitor; the total energy stored in the network; the energy stored in each capacitor; and the potential differences across each capacitor. HE 30F so 2. Consider two capacitors, 30uF and 50pF, that are connected in parallel as illustrated below. Given that the potential difference...
For the capacitor network shown in the figure, C1 =
158 nF, C2 = 128 nF and the potential difference across
ab is 38 V. Find the total energy stored in the network
(Give your answer in scientific notation using J as unit)
C2
For the capacitor network shown in (Figure 1) , the potential
difference across ab is 48 V .Find the charge on the 150 nFcapacitor.Find the charge on the 120 nFcapacitor.Find the total energy stored in the network.Find the energy stored in the 150nF capacitor.Find the energy stored in the 120nF capacitor.Find the potential difference across the 150 nF capacitor.Find the potential difference across the 120 nF capacitor.
PART A
Find the total charge stored in this network.
PART B
Find the charge on the 35 nF capacitor.
PART C
Find the charge on the 75 nF capacitor.
PART D
Find the total energy stored in the network.
PART E
Find the energy stored in the 35 nF capacitor.
PART F
Find the energy stored in the 75 nF capacitor.
PART G
Find the potential difference across the 35 nF capacitor.
PART H
Find the potential difference across...
Question 20 pts The figure below shows a system of four capacitors, where the potential difference across ab is 50.0 V. How much charge is stored by this combination of capacitors? 5.0 ?F 10.0 uF 9.0 ?F ?b 8.0 pF O174 HC 1600 HC 1104 HC 500 C 650 HC
Four capacitors are arranged in the circuit shown in the figure. The capacitors have the values G = 22.5 UF, C = 45.5 pF, C; = 50.5 pF, and Cd = 40.5 pF, and the power supply is at voltage V = 23.5 V. What is the equivalent capacitance of the circuit? equivalent capacitance: What is the charge on capacitor C2? charge on C: What is the potential difference across capacitor C;? potential difference across C3: What is the potential...
Prob. 2. The figure shows a network of three capacitors, C1 = 3.0 uF, C2 = 4.0uF, and C3 = 8.0uF, connected to a constant applied potential Vac across terminals a and C. The capacitors in the network are fully charged, and the charge on C2 is 60.0uc. C2 C [a] What is the charge (in units of uC) on capacitor Cz? (Example: If your answer is 75.0°C, enter your answer as 75.0 in the answer box.) Prob. 2. The...
I need help with part D-H
Part A nstants For the capacitor network shown in (Figure 1), the potential difference across ab is 46 V Find the total charge stored in this network. Express your answer in microcoulombs to one decimal place Q3.1 C vious Answe Correct Significant Figures Feedback: Your answer 3.06 uC was either rounded differently or used a different number of significant figures than required for this part. Part B Find the charge on the 150 nF...
5. (5 points) Three capacitors with capacitances C1 = 3.50 nF, C2 = 2.30 nF, and C3 = 4,80 nF are wired to a battery with V = 16.0 V, as shown in the figure. What is the potential drop across capacitor C2? 5. (5 points) Three capacitors with capacitances C1 = 3.50 nF, C2 = 2.30 nF, and C3 = 4.80 nF are wired to a battery with V-16.0 V, as shown in the figure. What is the potential...
The figure shows a network of three capacitors,
C1 = 3.0μF, C2 = 4.0μF, and
C3 = 8.0μF, connected to a constant applied
potential Vacacross terminals a and
c. The capacitors in the network are fully charged, and
the charge on C2
is60.0μC.
a. What is the charge (in units of
μC) on
capacitor C3?
b. What is the value (in units of μF) of the equivalent
capacitance Cacof the three-capacitor network
between points a andc?
c. What is the...