##heading
let us try some math
here is an equation
| <div id='sketch-holder'></div> | |
| <textarea id=inputcode rows=20 cols=195> | |
| //This demo code shows latching, rising edge detection for a 3-state program. | |
| //To see this program work, push button X1!! | |
| //To See some other functionality, play with inputs 4, 5, and 6! | |
| //Block 1: Handle Inputs, Timers, Counters | |
| V2 = X1&&!V1 //V2 is press | |
| T0_EN = X4&&!T1; //have timer count repeatedly and reset itself | |
| T1_EN = X4&&T0;//same | |
| CT0_UP = X5; |
| from numpy import * | |
| class BicycleModel: | |
| def populate(self): | |
| """this function populates the bicycle model continuous and discrete (tustin) matrices""" | |
| #terms for continuous time BM | |
| A1 = (self.Cf + self.Cr)/(self.m*self.U) | |
| A2 = (self.a*self.Cf-self.b*self.Cr)/(self.m*self.U)-self.U | |
| A3 = (self.a*self.Cf-self.b*self.Cr)/(self.I*self.U) |
| from numpy import * | |
| from matplotlib.pyplot import * | |
| # A Dugoff Tire model implementation in python/numpy | |
| #Alexander Brown, Ph.D. | |
| # [email protected] | |
| class DugoffTire: | |
| """ This python class implements the Dugoff tire model based on friction coefficients, cornering stiffnesses. | |
| Forces are applied in same sign as slip angle, so be aware of this when you implement. |
##heading
let us try some math
here is an equation
| %Demonstration of the Robin Sharp Optimal Preview Steering Control | |
| %Alexander Brown | |
| %March 15, 2012 | |
| clear all | |
| close all | |
| clc | |
| %Adapted from Sharp, valetsiotis, 2001 | |