IFACOM | Intelligent Fault Correction and self Optimizing Manufacturing systems

Summary
The vision of IFaCOM is to achieve a near zero defect level of manufacturing for all kinds of manufacturing, with emphasis on production of high value parts, on large variety custom design manufacturing and on high performance products. This shall be achieved through: - Improved performance process control to reduce defect output and reduce the costs of defect avoidance. - Enhanced quality control to obtain more predictable product quality. - Enhanced manufacturing process capability independent of manufactured parts. The project has three core objectives: 1) Reach a level of excellence for a systematic body of knowledge on near zero defect manufacturing output through improved process control, and long range stability by use of intelligent manufacturing quality control systems. 2) Development of new manufacturing strategies and methods which will be demonstrated in industrial cases. Manufacturing processes will be brought into higher stability both on short and long term. 3) Implement process control strategies based on the use of advanced computational intelligence methods for analysis and decision making.
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More information & hyperlinks
Web resources: http://www.ifacom.org
https://cordis.europa.eu/project/id/285489
Start date: 01-11-2011
End date: 30-04-2015
Total budget - Public funding: 10 487 272,00 Euro - 6 997 240,00 Euro
Cordis data

Original description

The goal of zero defect manufacturing encompasses both short and long term perspectives. The short term perspective is to develop and implement a real time process control system that eliminates the production of any faulty component due to variances in materials, components and process properties. The long term perspective is to minimize all failures by continuous optimizing of the production process and the manufacturing system.
A framework of an Intelligent Fault Correction and self Optimizing Manufacturing system (IFaCOM) will be developed, which can become a general framework for manufacturing equipment and processes for different industrial branches. In this framework it is proposed to extend the use of closed loop control to all vital parameters of a component or product. In today's manufacturing it is still the case that many vital parameters are controlled indirectly, thus creating a larger variability in the output than acceptable within the zero-defect paradigm. The project will create a basic understanding of the method of direct closed loop control of vital parameters and apply this control principle both to single operations and to the entire part manufacturing process in order to eliminate the propagation of defects along the process stages.
The principles can be extended to processes where the input material has too large variability leading to high defect rates in production. This involves both the development of suitable measurement and monitoring techniques of the input condition of components as well as development of the necessary actuation methods and mechanisms to implement the necessary control actions.
To establish and continuously improve the closed loop methods and to extend them over the entire process chain of part manufacturing, the control models must be upgraded in accordance with the increased insight in the operations that can be obtained by analysis of large amounts of data available from multiple sensors both in the manufacturin

Status

ONG

Call topic

FoF.NMP.2011-5

Update Date

27-10-2022
Geographical location(s)
Structured mapping
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Factories of the Future Partnership - Made in Europe Partnership

FP7 - Factories of the Future
FP7-FoF-2011
FoF.NMP.2011-5 - Towards zero-defect manufacturing
Large-scale integrating project

Project clusters are groups of projects that cooperate by organising events, generating joint papers, etc...

Zero-defect project cluster
Standards
Economic sustainability
Comment:
Environmental sustainability
Material efficiency
Waste minimisation
Circular economy
Information and communication technologies
IoT - Internet of Things
Human Machine Interfaces
Advanced and ubiquitous human machine interaction
Data spaces
Digital manufacturing platforms - data platforms
Advanced material processing technologies
High productivity and “self assembly” technologies development of conventional (joining, forming, machining) and new micro/nano-manufacturing processes
Methods for handling of parts, metrology and inspection
Replication, Equipment for flexible scalable prod/Assembly , Coatings
Shaping technology for difficult to shape materials
Mechatronics and robotics technologies
Measurement, sensing, condition and performance monitoring technologies
Control technologies
Intelligent machinery components, actuators and end-effectors
Comment:
Engineering tools
System modelling - digital twins, simulation
Manufacturing the products of the future
Customised products
Complex structures, geometries and scale
C MANUFACTURING
Result items:
C28 Manufacture of machinery and equipment n.e.c.
C29 Manufacture of motor vehicles, trailers and semi-trailers
C30.2 Manufacture of railway locomotives and rolling stock