European’s automotive supplier industry faces a constantly growing pressure on the more and more globalized market. Products with a constantly increasing complexity and the demand of a shorter time-to-market along with cost-reductions during the production process require new technologies to compete in the market. Small- and medium sized enterprises in the automotive supplier industry cannot utilize these new technologies, because they are not able to afford or operate such highly specialized hard- and software systems.
The provided technologies incorporate software systems for virtual prototyping in sheet metal forming (e.g. numerical simulations for deep drawing or kinematics simulations). The grid computing paradigm allows the on-demand utilization of computing resources to perform time-consuming calculations while letting the end user concentrate on the core competencies.
BE08 - Fact Sheet | |
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BE08 - Case Study | |
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Due to current trends in the automotive supplier industry like the increasing complexity of products, higher cost pressure, shortening the time-to-market, and the continuing trend of the big original equipment manufacturers (OEM) to source out even complete development tasks to the suppliers, virtual prototyping techniques to overcome this trends and to compete in the market became very attractive in the recent years.
Unfortunately, SMEs cannot afford such new virtual prototyping techniques due to high costs of hard- and software as well as experts to operate the simulation environments. Grid technology opens the door for SMEs to utilize virtual prototyping techniques over a network and hence assists to compete in the market.
BE08 - Kinematics Simulation |
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In the short video above an example of a DMU kinematics simulation of a transfer system is shown. The press moves up and down and forms the manufactured parts in every stage of the transfer tool. Between two strokes of the press the formed parts are transferred to the next stage by the transfer system. The transfer system mainly consists of two gripper rails and grippers on that rails. With this simulation the end user can
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The grid and portal solution INFORM developed within this business experiment enables engineers around the planet (with nothing more than a web browser) to access high-end simulation environments including computing power as well as human expertise and consulting from the sheet metal forming domain. In this way the total cost of ownership for the SME will be dramatically reduced.
Deep drawing simulations of sheet metal parts as well as digital mock-up (DMU) kinematics simulations of transfer systems can both be performed as single jobs. In addition, for deep drawing simulations complex and time-consuming optimization processes can be realized utilizing cluster resources.
In our case study we checked the design of a multi-stage transfer tool to produce a holder for a shock absorber. The approach of the SME to deep-drawing, punching, stamping, and forming the real part was proofed with a Finite-Element simulation increasing the safety of the real production process. Collisions during the foreseen production process could be detected prior to any real part manufactured. Hence, design faults could be solved quickly and the take up of the real production process was accelerated.
The underlying simulation environments based on CATIA V5 and the well known FEM solver INDEED are successfully “gridified” and integrated in the portal solution INFORM. The portal enhances the communication and collaboration between the service provider (who hosts the virtual prototyping environments) and the SME by supporting convenient, secure, and efficient data transfers of large CAD data and the invocation of simulation jobs on remote hardware resources.
BE08 - Deep Drawing Simulation and Optimization |
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In the short video above an example of a FEM deep drawing simulation of a multi-stage production process is shown. With this simulation the end user can
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The grid and portal solution developed within this business experiment illustrates the capabilities of grid technology in the engineering domain. Grid technology can be an essential part to overcome the business and market requirements of SMEs arising in the recent years.
What is required now is to build up confidentialness on the end user’s side to utilize a grid and portal solution to obtain simulation results based on tool designs that might even comprise company secrets. To support or boost this adoption process we have initialized some marketing activities, elaborating that grid is a stable, reliable and secure technology.
The obviously existing benefits of the grid solution in terms of cost effectiveness, quality and process improvements, and increased competitiveness in the market will convince a wide range of small- and medium-sized automotive suppliers to give grid a chance. Especially, the optimization capabilities of grid are very attractive for many suppliers.
The benefits for companies wishing to perform such virtual prototyping techniques include:
Access to brand new high-end simulation techniques like the DMU kinematics simulation of transfer systems.
Ability to optimize multi-stage deep drawing processes on remote cluster resources.
Cost effectiveness due to not required hard- and software systems as well as human resources to operate the simulation environments.
On-demand payment for hard- and software for easier budgeting.
Receiving competent consultancy from a simulation engineer to interpret the simulation results and develop solutions for design problems.
The University of Siegen leads the consortium involving Co.Com, an independent CAE technology and process provider, SCAI, a leading grid and numerical simulation researcher, T-Systems SfR, a telecommunication research unit of T-Systems, and FIUKA, a medium-sized automotive supplier.
