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DOME (Distributed Object-based Modeling Environment)

DOME offers a fundamentally new approach to integrated modeling and simulation.

Much as the worldwide web enables global access to static information, project DOME (Distributed Object-based
Modeling Environment) seeks to provide global access to simulation services.

In a user-friendly web-based environment, DOME integrates the efforts of hundreds of developers working on radically different platforms in widely dispersed locations.

All designers participate simultaneously in the modeling process, using their preferred tools and methods.

While maintaining information integrity, DOME predicts and models the integrated characteristics of large, complex, rapidly-evolving products and systems.

DOME’s seamless infrastructure provides the management controls of a centralized system while preserving the responsiveness of a locally autonomous system.

Initiative Leader:
Dr. David Wallace
Esther and Harold E. Edgerton Associate Professor of Mechanical Engineering

David Wallace

As head of CIPD's DOME initiative, Professor Wallace's research interests include environmentally-conscious product design, integrated computer-aided design, industrial design and aesthetics, visual communication, and product design and new media education.


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Key Research Papers:
Integrated Design in a Service Marketplace

Integrated Simulation
and Design Synthesis

An Integrated Computational Infrastructure for a Virtual Tokyo: Concepts and Examples

Environmentally Conscious Product Design

Approximate Life-Cycle Assessment in Conceptual Product Design

Current Projects
Advanced Search Mechanisms: provide robust techniques for locating dynamic models in the worldwide simulation web, even as they undergo rapid change and development.

Distributed Probabilistic Simulation: allows simulations to run either deterministically or probabilistically, while addressing the additional computational load of probabilistic simulation.

Pareto Optimization: provides better understanding of tradeoff options when a design has many goals; multi-modal Pareto analysis technique appears to outperform other published algorithms.

Benefits
DOME dramatically increases the quality of information shared by all members in a design effort.

Speed
Design modifications are communicated instantaneously—changes that once took days or weeks to propagate through the development system now do so in seconds.

Communication
Each participant sees design changes in terms of preferred tools and applications. For example, if an auto engineer changes a design, the change is reflected in the finance department as a change in cost.

Security
Proprietary knowledge is safeguarded. Each participant sees only the appropriate and necessary information.

Key Advances

Results
Ford
Conducted first-ever integrated simulations across Ford supply chain and firewall; reduced seal supplier interaction time from 1 week to 5 seconds.

Polaroid
Applied DOME to LCD projector design; reduced integrated analysis of product variants from 3 months to 1 minute.

United Technologies
Applied DOME to electromagnetic shielding design.

US Navy
Optimized torpedo design.

Swiss Federal Institute of Technology
Applied DOME to two utilities projects—electric power plant design and district heating plant design.

LG Electronics, Korea Institute of Science and Technology
Tested and deployed air conditioner platform; prototype phase expected to decrease by 50%.

Alliance for Global Sustainability
Developed Virtual Tokyo, a simulation platform for evaluating tradeoffs between various technologies to reduce greenhouse gases.

University of Tokyo
Conducted complex system analysis at Department of Chemical Engineering.

Research Faculty

Initiative Leader: David Wallace
Esther and Harold Edgerton Associate Professor Department of Mechanical Engineering
drwallac@mit.edu