clear; clc; close all; g = 9.81; % [m/s^2] Gravitational acceleration m = 1500; % [kg] Vehicle mass b = 35; % [Ns/m] Air drag coefficient 1 System modeling Derive an ODE for the velocity of a car on a flat road. Include wind resistance F =-bv. Derive the transfer function from applied force ƒ to velocity v. What is the time constant for the open loop system? f % Create a transfer function P (for "plant") representing the car. % ... % tau = ... P % v_t = .... Do you think the car could reasonably achieve this speed? Why or why not? V What is the maximum traction force that the tires can provide without slipping? Look up a reasonable value for the friction coefficientu. % f_max = What is the terminal velocity at maximum traction force?
clear; clc; close all; g = 9.81; % [m/s^2] Gravitational acceleration m = 1500; % [kg] Vehicle mass b = 35; % [Ns/m] Air drag coefficient 1 System modeling Derive an ODE for the velocity of a car on a flat road. Include wind resistance F =-bv. Derive the transfer function from applied force ƒ to velocity v. What is the time constant for the open loop system? f % Create a transfer function P (for "plant") representing the car. % ... % tau = ... P % v_t = .... Do you think the car could reasonably achieve this speed? Why or why not? V What is the maximum traction force that the tires can provide without slipping? Look up a reasonable value for the friction coefficientu. % f_max = What is the terminal velocity at maximum traction force?
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
Related questions
Question
1 Please answer the best you can.
![clear; clc; close all;
g = 9.81; % [m/s^2] Gravitational acceleration
m = 1500; % [kg] Vehicle mass
b = 35;
% [Ns/m] Air drag coefficient
1 System modeling
Derive an ODE for the velocity of a car on a flat road. Include wind resistance F =-bv. Derive the transfer function from applied force ƒ to velocity v.
What is the time constant for the open loop system?
f
% Create a transfer function P (for "plant") representing the car.
% ...
% tau = ...
P
% v_t = ....
Do you think the car could reasonably achieve this speed? Why or why not?
V
What is the maximum traction force that the tires can provide without slipping? Look up a reasonable value for the friction coefficientu.
% f_max =
What is the terminal velocity at maximum traction force?](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fd20dfe5a-a4c1-4793-9f05-a80ad59a67d4%2F37b444e7-5daa-419e-ac92-cc81d8795b47%2Fgda94vc_processed.png&w=3840&q=75)
Transcribed Image Text:clear; clc; close all;
g = 9.81; % [m/s^2] Gravitational acceleration
m = 1500; % [kg] Vehicle mass
b = 35;
% [Ns/m] Air drag coefficient
1 System modeling
Derive an ODE for the velocity of a car on a flat road. Include wind resistance F =-bv. Derive the transfer function from applied force ƒ to velocity v.
What is the time constant for the open loop system?
f
% Create a transfer function P (for "plant") representing the car.
% ...
% tau = ...
P
% v_t = ....
Do you think the car could reasonably achieve this speed? Why or why not?
V
What is the maximum traction force that the tires can provide without slipping? Look up a reasonable value for the friction coefficientu.
% f_max =
What is the terminal velocity at maximum traction force?
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