DocumentCode
1831097
Title
Physical Modelling of a door locking mechanism for a vehicle application
Author
Thanagasundram, Suguna ; Dhadyalla, Gunwant ; McMurran, Ross ; Jones, R. Peter ; Mouzakitis, Alexandros
Author_Institution
Int. Automotive Res. Centre (IARC), Univ. of Warwick, Coventry, UK
fYear
2010
fDate
7-10 Sept. 2010
Firstpage
1
Lastpage
6
Abstract
Physical modeling is a modeling and simulation technique that captures the physics and mathematics of a system through high fidelity dynamic models which are based on equations and symbolic manipulation. In this study, a physical model of a side door latch release mechanism for an automotive application has been developed in Dynamic Modelling Laboratory (Dymola) which is a popular multi-domain object-oriented physical modelling tool. The performance of the developed door lock model is evaluated against measurements from a real vehicle door latch. The variables of the developed physical model of the door latch are parameterized against supplier specification or calculated from standard textbook equations. The model accurately emulates the degree of mobility of the door latch design by investigating the required voltage and timing requirements for the locking/unlocking functions, given a set of parameters within the normal operating range.
Keywords
automobiles; automotive components; control engineering computing; doors; flip-flops; keys (locking); object-oriented methods; symbol manipulation; Dymola; Dynamic Modelling Laboratory; automotive application; door latch design; door locking mechanism; high fidelity dynamic model; multidomain object-oriented physical modelling tool; side door latch release mechanism; supplier specification; symbolic manipulation; timing requirement; unlocking function; vehicle application; vehicle door latch; voltage requirement; Actuator; Automotive Control; Keyless Vehicle Entry; Physical Modelling; Validation;
fLanguage
English
Publisher
iet
Conference_Titel
Control 2010, UKACC International Conference on
Conference_Location
Coventry
Electronic_ISBN
978-1-84600-038-6
Type
conf
DOI
10.1049/ic.2010.0433
Filename
6490891
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