Create a Phasor Diagram for Steady State Circuits

AI Thread Summary
To create a phasor diagram for steady state circuits, one must first determine the current and power distribution within the circuit. Understanding the impedance of the parallel RLC circuit in phasor form is crucial for this process. Participants emphasize the importance of demonstrating effort before receiving assistance. The discussion also highlights the need to visualize phasor diagrams specific to the circuit type being analyzed. Engaging with these concepts is essential for successfully completing the task.
nobodyjusttrying
Messages
1
Reaction score
0
New poster has been reminded to show their work on schoolwork problems
Homework Statement
Find the current and power distribution in the steady state circuit. Create a phasor diagram.
Relevant Equations
i(t)=5√2sin⁡(1000𝑡)A, R= 10Ω, C= 0.0001 F, L=5mH
So all we have to do is find the current and power distribution in the steady state circuit. Create a phasor diagram. I don't exactly know how to tell it in english, but i think there is a thing I called c. & p. paths.
 

Attachments

  • pobrany plik.png
    pobrany plik.png
    6.3 KB · Views: 139
Physics news on Phys.org
Welcome to PhysicsForums. :smile:

We are not allowed to help you until you show more effort. What is the impedance (in phasor form) of the parallel RLC? How does that help you to start working on this problem? What do phasor diagrams look like for this type of circuit?
 
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