IMPACT OF LIQUID SLOSHING ON THE VEHICLE TANK DESIGN

Auteurs-es

  • M TOUMI University of Quebec at Chicoutimi, Saguenay
  • M BOUAZARA University of Quebec at Chicoutimi, Saguenay
  • M.J RICHARD Laval University, Quebec

Mots-clés :

Design, vehicle, tank, stability, modeling, materials

Résumé

    Several standards exist for the design and safety regulations for vehicles carrying dangerous goods. These standards apply to cargo tanks used for highway transportation. The increase in the reenhouse gases emission and governmental restrictions, research takes towards the use of lighter materials (Al, Mg, plastics, composites, etc.,) to reduce weight, fuel consumption and CO2 emission.

These standards describe basic requirements for design, construction, testing, inspection, re-testing, qualification and maintenance, and identification aspects of such tanks. The container shapes most commonly associated with road tankers are the rectangular tank, the horizontal cylinder, the sphere, the cylindrical tank of trapezoidal cross section, the paraboloid and the conical tank for special vehicles. The standards also address the design requirements for joints, manholes, openings, piping, valves and fittings, supports, circumferential reinforcements and accident damage protections. However, the standards do not address the adverse influence of liquid sloshing forces in partially-filled tanks on the stability and handling of tank vehicles. In general, the tanks are designed based on their structural integrity rather than on vehicle system stability considerations. The forces and the moments resulting from the interactions between the liquid and the vehicle, in several maneuver situations as turning and braking in turning can make considerable variations of the liquid load shift and will cause high local pressures and dangerous stress on the tank structure.

In this study, analytical and numerical liquid models are formulated based on the Navier-Stokes equations with some assumptions for the analytical model. The pressure forces will be calculated and compared to tensile strength for several materials proprieties. The configuration of the free surface of the liquid used in this study is illustrated in Figure 1. The Figure 2 highlights the numerical modeling of the free surface subject to lateral acceleration and longitudinal acceleration respectively.

Bibliographies de l'auteur-e

M TOUMI, University of Quebec at Chicoutimi, Saguenay

Department of Applied Sciences

M BOUAZARA, University of Quebec at Chicoutimi, Saguenay

Department of Applied Sciences

M.J RICHARD, Laval University, Quebec

Department of Mechanical Engineering

Références

L. A. Botkin “Safe Highway Transportation of Bulk Liquids”

SAE paper No 700872.

P.L. Christopher, V. B. Satish. and S. T. Waller. “Optimizing

the design of railway tank cars to minimize accident-caused

releases” Computers & Operations Research, Volume 34,

Issue 5, May 2007, Pages 1266-1286.

B. Fabiano, F. Currò, A.P. Reverberi and R. Pastorino .

“Dangerous good transportation by road: from risk analysis to

emergency planning”. Journal of Loss Prevention in the

Process Industries, Volume 18, Issues 4- 6, July-November

, Pages 403-413.

Ranganathan, R.et Al. "Analysis of Fluid in Partially filled

Tanks and to their Impact one the Directional Response of

Vehicle tank " SAE paper No: 932942, 1993.

Chetan Nichkawde, P. M. Harish and N. Ananthkrishnan

“Stability analysis of a multibody system model for coupled

slosh–vehicle dynamics” Journal of Sound and

Vibration, Volume 275, Issues 3-5, 23 August 2004, Pages

-1083.

Bauer, H. F.“Dynamic Behavior of an Elastic Separating Wall

in Vehicle Containers”, Part 1, International Journal of

Vehicle Design, 12(1).

S. Tiernan and M.Fahy. “Dynamic FEA modelling of ISO tank

containers”. Journal of Materials Processing

Technology, Volume 124, Issues 1-2, 10 June 2002, Pages

-132.

S. Tiernan and M.Fahy. “ Finite element analysis of ISO tank

containers”. Journal of Materials Processing

Technology, Volume 119, Issues 1-3, 20 December 2001,

Pages 293-298.

X. Kang, S. Rakheja and I. Stiharu “Effects of Tank Shape on

the Roll Dynamic Response of a Partly Filled Tank Vehicle”.

Vehicle System Dynamics, Volume 35, Number 2, February

pp. 75-102(28).

A. Slibar, and H. Troger, “ The Steady State Behavior of

Tank Trailer System Carrying Rigid or Liquid Cargo”. VSDIUTAM

Symposium on Dynamics of Vehicles on Roads and

Trucks, Vienna.

H.N. Abramson, 1966. The dynamic behaviour of liquids in

moving containers. NASA SP-106.

C. Mallikarjunarao,.: Road Tanker Design: Its Influence on

the Risk and Economic Aspects of Transporting Gasoline in

Michigan. Ph.D. Thesis, The University of Michigan, 1982.

E. Joseph, H. S.Thomas, “ Standard Handbook of Machine

Design” , Third Edition

ASME Boiler and Pressure Vessel Code Section II, Part A,

The American Society of Mechanical Engineers, 1998 edition.

E.J. Hearn, “Mechanics of Materials, Volume 1 - An

Introduction to the Mechanics of Elastic and Plastic

Deformation of Solids and Structural Materials (3rd Edition)

© 1997 Elsevier.

Fluent v.6, Lebanon, NH.

M.Toumi, M.Bouazara, M.J.Richard . “ Modélisation

analytique et numérique du ballottement du liquide des

camions citernes”. Congrès canadien de mécanique appliquée.

Toronto, Canada, juin 2007,

M.Toumi, M.Bouazara, M.J.Richard . “ Analytical

Longitudinal Liquid Sloshing Model For Tank-Vehicle with

baffles”. Canadian society for Mechanical Engineering,

Ottawa, Canada, june, 2008.

M. Toumi, M. Bouazara et M. J. Richard. « Effet du

mouvement du fluide sur la stabilité des camions citernes »,

Compte rendu du 73e congrès de l'Association Canadienne

Française pour l'Avancement des Sciences, Université du

Québec à Chicoutimi, Québec, Canada, (9-13 mai 2005).

ASM Handbook Materials Selection and Design. Volume XX

US Department of Transportation . Title 49-Transportation.

Chapter 1-Research and special Programs Administration,

Subpart J- Specifications for Containers for Motor Vehicle

Transportation. Sec. 178.337-3 Structural integrity. Volume

, Parts 100 to 185 Revised as of October 1, 2000.

Téléchargements

Publié-e

2008-12-01

Comment citer

TOUMI, M., BOUAZARA, M., & RICHARD, M. (2008). IMPACT OF LIQUID SLOSHING ON THE VEHICLE TANK DESIGN. Sciences & Technologie. B, Sciences De l’ingénieur, (28), 29–34. Consulté à l’adresse https://revue.umc.edu.dz/b/article/view/247

Numéro

Rubrique

Articles

Articles similaires

1 2 3 4 > >> 

Vous pouvez également Lancer une recherche avancée d’articles similaires à cet article.