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LMS Imagine.Lab Engine Thermal Management

 
LMS Imagine.Lab Engine Thermal Management helps model the overall energy balance of an engine in a single platform by considering thermal interactions between the lubrication and cooling systems, the thermal engine, the combustion chamber and the intake and exhaust pipes. Users can model engine warm-up in a specific normalized cycle and study the topological modifications of each subsystem.
 

Vehicle Thermal Management_Engine thermal management_1_Low.jpgLMS Imagine.Lab Engine Thermal Management helps model the overall energy balance of an engine in a single platform by considering thermal interactions between the lubrication and cooling systems, the thermal engine, the combustion chamber and the intake and exhaust pipes.
System integration is one of the current challenges faced by car manufacturers and suppliers, especially in the field of engine thermal management. To ensure engine performance and design low consumption and low emission engines, while providing the best possible comfort to passengers, engineers have to be able to optimize the engine warm-up. 

With LMS Imagine.Lab AMESim tools, users can model engine warm-up and associated key-criteria (consumption, cabin heating) in a specific normalized cycle and rapidly study the influence of topological modifications of each subsystem (split cooling, energy storage tank, engine material changes, electric pump).

LMS Imagine.Lab Engine Thermal Management comes as a set of physics-based libraries such as Thermal, Thermal-Fluid and application libraries like Cooling Systems, IFP-Engine (combustion chamber thermal losses). Each product assists the user in building individual subsystems, analyzing their independent behavior, and defining interaction ports with the other subsystems. Finally, all the modules are connected together to create the engine thermal management model in a single environment.

This model is able to:
  • Perform sensitivity analyses and optimization of the systems
  • Test new heat management strategies (split cooling, electric pump and thermostat, water passage size, energy storage tank, additional heaters)
  • Test new engine architectures (double cylinder block water jacket, new engine materials, thermal screen integration)
  • Create fuel consumption simulators
                    



Features

  • Complete engine thermal model in a single environment
  • State-of-the-art components
  • Boundary conditions in combustion chamber from combustion analysis models (IFP-Engine library)
  • Real transient models
  • Ready-to-apply methodologies for design of complete engine thermal management models


Benefits

  • Rapidly study influence of new heat management strategies and engine architectures on warm-up, fuel consumption and pollutant emissions
  • Reduce development time by reusing models
  • Adapt models to new engines
  • Study influence of solids and fluids temperatures on friction and work on specific solutions to reduce/optimize engine friction
  • Focus on system analysis instead of working on codes
  • Easily integrate specific user libraries (heat exchangers, new technological components)



    Covering a range of industries, LMS application cases let you discover how LMS solutions help our customers solve their real-life engineering challenges.

    diesel engines modeling design software 3.gifDelphi cuts next-generation diesel engines ECU development time with LMS Imagine.Lab AMESim 

    Working together with LMS Imagine.Lab engineering services, Delphi engineers use LMS Imagine.Lab AMESim multi-domain system modeling software to efficiently develop advanced HiL simulators to design and test electronic control units for tomorrow’s fuel-efficient, clean-running diesel engines.



    hydraulic aircraft braking steering landing simulation 3.jpgMessier-Bugatti optimized the A380 nosewheel steering and braking system with LMS Imagine.Lab AMESim

    To save weight on the A380 superjumbo aircraft, Messier-Bugatti used LMS Imagine.Lab AMESim and the Ground Loads solution to design an innovative decentralized hydraulic generation system with lightweight micro-pumps delivering power locally to emergency braking and landing gear steering systems.



    air-conditioning amesim renault thermal cooling -1Renault applies LMS Imagine.Lab AMESim to streamline its cooling and air-conditioning systems development process

    To comply with the multiple constraints relative to vehicle designs that affect the thermal management of underhood systems, and to ensure high-quality passenger comfort, Renault decided to rely more on simulation to engineer the underhood thermal environment. The French car maker deployed the AMESim solution as a collaborative system simulation platform.



    More cases:





    Brochures
    Download the LMS Imagine.Lab Overview Brochure
    Download the LMS Imagine.Lab AMESim Vehicle Thermal Management Brochure


    Vehicle Thermal Management_Engine thermal management_2_Low.jpg Vehicle Thermal Management_Engine thermal management_3_Low.jpg Vehicle Thermal Management_Engine thermal management_4_Low.jpg
    A complete engine thermal management model, including the metal masses, the lubrication circuit, the cooling circuit and a first modeling level of the combustion chamber and the friction heat sources. Typical results from engine thermal analysis are the oil and coolant temperature, both on a single operating point or on a driving cycle. The flexibility of LMS Imagine.Lab Engine Thermal Management helps simulate the impact of structural modifications, such as the addition of a storage tank in the coolant circuit, or the warm-up of the engine.




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