MagLev trains can enable speeds not possible with conven- tional rail systems, because the train is held above the rail via magnetic forces. A maglev system has been designed to control height of the train of the rail, with desired height as input R(s), and actual height as output Y(s). The plant is de- RG): scribed by G(s) = T We will explore two controllers: a) Ge(s) = K, and b) Ge(s) = K. Controller Process G{s) G(s) Y(s Use type number to find the steady-state Y(s) 1. error of the closed-loop system 8 in response to a step input u(t) = 1(t), under each of the controllers: (a) Ge(s) = K (b) Ge(s) = 5

MagLev trains can enable speeds not possible with conven- tional rail systems, because the train is held above the rail via magnetic forces. A maglev system has been designed to control height of the train of the rail, with desired height as input R(s), and actual height as output Y(s). The plant is de- RG): scribed by G(s) = T We will explore two controllers: a) Ge(s) = K, and b) Ge(s) = K. Controller Process G{s) G(s) Y(s Use type number to find the steady-state Y(s) 1. error of the closed-loop system 8 in response to a step input u(t) = 1(t), under each of the controllers: (a) Ge(s) = K (b) Ge(s) = 5

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

See similar textbooks

Similar questions

Please help me, I want to solve this question without quoting or plagiarism, I hope that the solution is in Ms word and not in handwriting.
Electrostatic levitation in comb-drives: Movable fingers in comb-drive actuators/sensors can experience a levitation effect when the plane underneath the structure is biased at the same potential as the fingers, shown by Zo in figure below. Explain qualitatively why such a levitation happens in the freestanding structure. Fixed electrode Vp Movable finger -Zo ↑ GND Fixed electrode V₂ GND Plane N Out of plane
1) The switch in the ciruit, shown in belou has been in Posikon "a" for a long hime. At t=0, the switch moves instantancously ho positron "b". Find volt) for t70 960n 1602 o.SmH 28V 12-5 nF 20v Volt)
A permanent-magnet moving-coil instrument has a moving coil of 4 cm height, 8 cm width, 3000 turns and internal resistance of 100 0. The magnetic flux density is 0.25 Wb/m2. The deflecting torque required to give a full- scale deflection current of 100 mA is ................. O 2.4 N.m O 24 N.m O 4.2 N.m O 0.24 N.m
a) To increase the output of an ac generator, a student has the choice of doubling either the generator's magnetic field or its frequency. To maximize the increse in emf output, A - he should double the magentic field.B - he should double the frequency.C - it does not matter which one he doubles. b) Two students display their ac generators at a science fair. The generator made by Student A has a loop area of 100 cm22 rotating in a magnetic field of 20 mT at at 60 Hz. The generator made by Student B has a loop area of 75 cm22 rotating in a magnetic field of 200 mT at at 120 Hz. Calculate the emf of the two generators. Student A: Student B:
Show the phasor diagram with the help of the equations you have created by drawing the exact equivalent circuit of the induction machine. Please write clearly.
This question please
The equivalent inertia constant (in MJ/MVA) on a common base 100 MVA for shown figure is 400MVA, 5MJ/MVA 200MVA, 5MJ/MVA
Explain with illustrations the following dynamic performance terms as applied to measument systems 1. Rise time 2. Time constant 3. Setting time
Please compute the torque required for this problem. Thankyou.
Select all the true statements about electrostatics and magnetostatics. Inductors store energy in their magnetic fields Capacitors store energy in their electric fields The gradient of voltage points in the same direction as the E field Magnetic torque vectors point in the same direction as the forces that generate them. If you break a magnet into small enough pieces, you can observe a magnetic monopole (i.e. only the north or south 'pole') O Magnetic field lines always form closed loops.
2. Consider the system given below. Investigate the stability using describing function. Find nature, amplitude and frequency of limit cycle. S 性 1 $+4 s+2