Seite - 4 - in Maximum Tire-Road Friction Coefficient Estimation
Bild der Seite - 4 -
Text der Seite - 4 -
1 Introduction
Traffic education,
legal security Car-to-x
communication
systems
Advanced
driver
assistance
systems
Self protection
(e.g. pre-firing
airbag),
traffic partner
protection
Motivation for
using safety
systems Mitigation of
roadside hazards
First aid
education Crash
notification,
fire
prevention Rescue system,
safeguarding
of accident scene
Driver Vehicle Environment
Primary
Safety
Secondary
Safety
Tertiary
Safety
Figure 1.3.: Aspects of traffic safety and examples of safety measures, adapted from
[Eic11, p.41] and [Kra08, p.3]. The knowledge of the friction potential can
contribute to the areas highlighted in light gray.
snowy conditions). Also, a warning device can be activated when the safety margin be-
tween the current driving state and the physically achievable maximum has fallen below
a safety threshold, [Hol92, p.65-66]. The friction potential can also be used to improve
specificadvanceddriverassistance systems(ADAS)orvehicledynamicscontrols (VDC).
In secondary safety, only the vehicle level can be adapted, e.g. with airbag pre-firing. In
case of imminent collision, the airbags can be pre-fired before the collision takes place
in order to reduce the head injury risk for the occupants, [Eic11, p.162-163]. The fric-
tion potential must be known in order to detect an imminent collision accurately and
to predict the possible trajectories between time of detection and the detected collision,
see Section 1.3.
Theaccuracyrequirements forestimatingthe frictionpotentialarepresumably lowfor
4
Maximum Tire-Road Friction Coefficient Estimation
- Titel
- Maximum Tire-Road Friction Coefficient Estimation
- Autor
- Cornelia Lex
- Verlag
- Verlag der Technischen Universität Graz
- Ort
- Graz
- Datum
- 2015
- Sprache
- englisch
- Lizenz
- CC BY-NC-ND 3.0
- ISBN
- 978-3-85125-423-5
- Abmessungen
- 21.0 x 29.7 cm
- Seiten
- 189
- Kategorie
- Technik