Page - 47 - in Maximum Tire-Road Friction Coefficient Estimation
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3 Vehicle model
Table 3.2.: Mean relative deviations of the state values of DLC manoeuvre for model
setups with a deviation higher than 5 % and a phase shift equal or higher
than 0.05 s (last row) in decreasing order
Variable Highest influence Second highest Third highest
Lat. acceleration steering ratio
- -
9.42 %
Side slip angle steering ratio tire dynamics ARB
>100 % 70.36 % 14.13 %
Lat. tire forces steering ratio tire load ARB
26.07 % 14.21 % 7.34 %
Maximum phase shift tire dynamics steering ratio tire load
0.35 s 0.2 s 0.05 s
Table 3.3.: Mean relative deviations of acceleration manoeuvre for model setups with a
deviation higher than 5 % and phase shifts higher than 0.05 s in decreasing
order for the investigated variables
Variable Highest influence Second highest Third highest
Longitudinal acceleration tire load tire dynamics
-
28.46 % 5.49 %
Longitudinal velocity tire load
- -
28.17 %
Wheel speeds (front) tire load wheel moment effective tire
of inertia radius
97.78 % 11.19 % 10.93 %
Wheel speeds (rear) tire load effective tire
-radius
28.2 % 6.02 %
Tire loads tire load
- -
10.17 %
Long. tire force (front) tire load wheel moment
-of
intertia
28.5 % 12.57 %
Maximum phase shift tire dynamics
- -
0.3 s
47
Maximum Tire-Road Friction Coefficient Estimation
- Title
- Maximum Tire-Road Friction Coefficient Estimation
- Author
- Cornelia Lex
- Publisher
- Verlag der Technischen Universität Graz
- Location
- Graz
- Date
- 2015
- Language
- English
- License
- CC BY-NC-ND 3.0
- ISBN
- 978-3-85125-423-5
- Size
- 21.0 x 29.7 cm
- Pages
- 189
- Category
- Technik