Abstract
In today's real-world applications, there is an increasing need to integrate new information and knowledge into modelbuilding
processes to account for changing system dynamics, new operating conditions or environmental influences. This is essential to
increase the efficiency of models in terms of performance and process safety during on-line operation and production phases. Evolving
Intelligent Systems (EIS) [1] constitute a powerful methodology to address this need, integrating mechanism for continuous adaptation
of parameters, expansion of model structures, on-the-fly memory extension of system models and real-time modeling. The current
situation in EIS is that system knowledge builds largely upon data (usually measurements, features extracted from the process). There
is little active intervention by experts and/or operators working with the systems. Interaction is generally confined to passive
supervision or – at most - in form of good/bad rewards on model decisions.
This briefing article discusses requirements, possible methods and key components to enhance communication by dynamically
integrating the previous system experiences from human beings into evolving models (human feedback integration component). Model
interpretability and understandability are important topics to motivate users to provide enhanced feedback (model interpretation
component). Finally, the complete concept will lead to an enriched human-model interaction scenario, termed human-inspired evolving
machines, which might serve as a cornerstone for the next generation of evolving intelligent systems.
Original language | English |
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Number of pages | 8 |
Journal | IEEE SMC Newsletter |
Volume | 36 |
Publication status | Published - 2012 |
Fields of science
- 101001 Algebra
- 101 Mathematics
- 102 Computer Sciences
- 101013 Mathematical logic
- 101020 Technical mathematics
- 102001 Artificial intelligence
- 102003 Image processing
- 202027 Mechatronics
- 101019 Stochastics
- 211913 Quality assurance
JKU Focus areas
- Computation in Informatics and Mathematics
- Mechatronics and Information Processing
- Nano-, Bio- and Polymer-Systems: From Structure to Function