AutoGrünBeton - Auto-adaptive learning process for optimizing recycled concrete production
Brief description
The AutoGrünBeton project aims to improve sustainability in the concrete industry. It integrates up to 90% recycled material from construction and demolition waste and reduces cement consumption by up to 70% in order to reduceCO2 emissions and the consumption of natural resources. The focus is on the development of a machine learning system that ensures the quality of the recycled concrete during production, optimizes the manufacturing process and dynamically adjusts the recipe. The system helps to increase production efficiency by predicting concrete quality, identifying production deviations at an early stage and adapting to varying properties of the recycled materials.
Focus of the work:
- Characterization of the recycled raw materials
- Conducting laboratory and field tests
- Development of test plans using active learning
- Development of an automatic camera-based slump flow test system.
- Increasing production efficiency by predicting concrete quality, detecting production errors at an early stage and adapting to the properties of the recycled materials.
Processor
M.Sc. Farzad Rezazadeh Pilehdarboni
Period
January 2024 - September 2024
Promotion
State of Hesse LOEWE 3
Publications on the project
- Felix Wittich; Farzad Rezazadeh; Andreas Kroll: Four Benchmark Datasets for Nonlinear Regression in Engineering Sciences, 35. Workshop Computational Intelligence, 47-63, KIT Scientific Publishing, doi:10.5445/IR/1000186052, https://publikationen.bibliothek.kit.edu/1000186052, 2025
- Farzad Rezazadeh; Emad Olfatbakhsh; Andreas Kroll: Sign Diversity: A Method for Measuring Diversity in Base Learner Selection for Ensemble Regression, 2025 IEEE Symposium on Computational Intelligence (SSCI) on Engineering/Cyber Physical Systems (CIES), Trondheim Norway, 1-9, doi:10.1109/CIES64955.2025.11007635, https://ieeexplore.ieee.org/document/11007635, 2025
- Farzad Rezazadeh; Axel Dürrbaum; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: Mechanical Properties of Normal Concrete, DaKS - University of Kassel's research data repository, doi:10.48662/daks-491, https://daks.uni-kassel.de/handle/123456789/642, 2025
- Farzad Rezazadeh; Axel Dürrbaum; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: Mechanical Properties of Ultra-High Performance Concrete (UHPC), DaKS - University of Kassel's research data repository, doi:10.48662/daks-56.2, https://daks.uni-kassel.de/handle/123456789/251, 2025
- Farzad Rezazadeh; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: Dataset on the reproducibility of UHPC mechanical properties under a fixed recipe with controlled production variability, Scientific Data, 2025
- Farzad Rezazadeh; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: Monitoring of ultra-high performance concrete manufacturing for reproducible quality and waste reduction, Scientific Reports (Sci Rep), 15, Springer Nature, doi:10.1038/s41598-025-32975-y, 10.1038/s41598-025-32975-y, 2025
- Farzad Rezazadeh; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: Investigating quality inconsistencies in the ultra-high performance concrete manufacturing process using a search-space constrained non-dominated sorting genetic algorithm II, at - Automatisierungstechnik, 73, 10, 791-807, doi:10.1515/auto-2025-0025, https://www.degruyterbrill.com/document/doi/10.1515/auto-2025-0025/html, 2025
- Farzad Rezazadeh P; Amin Abrishambaf; Axel Dürrbaum; Gregor Zimmermann; Andreas Kroll: Investigating Reproducibility of Ultra-High Performance Concrete with Consistent Mechanical Properties: A Modeling Pipeline for Sparse Data in Complex Manufacturing, 34. Workshop Computational Intelligence, 143-148, KIT Scientific Publishing, doi:10.5445/KSP/1000174544, 2024
- Farzad Rezazadeh; Axel Dürrbaum; Amin Abrishambaf; Gregor Zimmermann; Andreas Kroll: AutoGrünBeton - Autoadaptiver Lernprozess zur Optimierung der Recyclingbetonproduktion, Abschlussbericht, MRT-Nr. TR-036, 2024