Current in RLC Series Circuit: Need Help

AI Thread Summary
The discussion centers on calculating the current in an RLC series circuit with specific component values: a 100-ohm resistor, a 0.01uF capacitor, a 25mH inductor, and a 50V AC voltage source at 1kHz. Participants suggest that the issue may lie in the capacitor's value, as it significantly affects impedance. One contributor confirms that they cannot find any mistakes in the calculations provided. The original poster expresses uncertainty about the capacitor's value and seeks reassurance about their work. Overall, the conversation emphasizes the importance of verifying component specifications in circuit analysis.
IronaSona
Messages
38
Reaction score
7
Homework Statement
.
Relevant Equations
.
So am trying to find the current in the RLC series circuit ,but i think i have done something wrong ,if anyone could tell me where i went wrong ,it would be great ,thank you

Resistor-100ohms
Capacitor-0.01uF
Inductor-25mH
Voltage Source-50v a.c
1kHz
Capture.PNG
 
Last edited:
Physics news on Phys.org
I checked your work and can't spot any mistake. Maybe the mistake is in the given data, are you sure the capacitor value is 0.01uF? Cause that is what makes the impendance big.
 
Delta2 said:
I checked your work and can't spot any mistake. Maybe the mistake is in the given data, are you sure the capacitor value is 0.01uF? Cause that is what makes the impendance big.
o sorry ,i just wasn't 100% sure that it was correct ,just wanted to make sure i have done everything right , thank you
 
  • Like
Likes berkeman and Delta2
Thread 'Minimum mass of a block'
Here we know that if block B is going to move up or just be at the verge of moving up ##Mg \sin \theta ## will act downwards and maximum static friction will act downwards ## \mu Mg \cos \theta ## Now what im confused by is how will we know " how quickly" block B reaches its maximum static friction value without any numbers, the suggested solution says that when block A is at its maximum extension, then block B will start to move up but with a certain set of values couldn't block A reach...
TL;DR Summary: Find Electric field due to charges between 2 parallel infinite planes using Gauss law at any point Here's the diagram. We have a uniform p (rho) density of charges between 2 infinite planes in the cartesian coordinates system. I used a cube of thickness a that spans from z=-a/2 to z=a/2 as a Gaussian surface, each side of the cube has area A. I know that the field depends only on z since there is translational invariance in x and y directions because the planes are...
Back
Top