TY - JOUR
T1 - Digitalisation for nuclear waste management: predisposal and disposal
AU - Kolditz, Olaf
AU - Jacques, Diederik
AU - Claret, Francis
AU - Bertrand, Johan
AU - Churakov, Sergey
AU - Christophe, Debayle
AU - Diaconu, Daniela
AU - Fuzik, Kateryna
AU - Garcia, David
AU - Graebling, Nico
AU - Grambow, Bernd
AU - Holt, Erika
AU - Idiart, Andrés
AU - Leira, Petter
AU - Montoya, Vanessa
AU - Niederleithinger, Ernst
AU - Markus, Olin
AU - Pfingsten, Wilfried
AU - Prasianakis, Nikolaos I.
AU - Rink, Karsten
AU - Samper, Javier
AU - Szöke, István
AU - Szoke, Réka
AU - Theodon, Louise
AU - Wendling, Jacques
N1 - Score=10
Funding Information:
The growing interest in data science topics within the nuclear geosciences community has been clearly stated, and several workshops have been conducted to report the status-quo and define the needs from various perspectives, e.g. waste management organisations, research and development organisations and other stakeholders. More specific workshops facilitating the process are planned. The endeavour is supported by EURAD, PREDIS, EuradScience, IGDTP, SITEX.Network, and ETSON under the umbrella of activities initiated by the EuradScience Working group “Machine Learning and Digital Twins in Waste Disposal”.
Funding Information:
This work has been financed within the framework of EURAD, the European Joint Programme on Radioactive Waste Management (Grant Agreement No 847593) and PREDIS (Pre-disposal management of radioactive waste, Euratom research and training programme, grant agreement No 945098). The contribution of Javier Samper (UDC) was partly funded by Project PID2019-109544RB-I00). These supports are gratefully acknowledged.
Publisher Copyright:
© 2022, The Author(s).
PY - 2023/1/2
Y1 - 2023/1/2
N2 - Data science (digitalisation and artificial intelligence) became more than an important facilitator for many domains in fundamental and applied sciences as well as industry and is disrupting the way of research already to a large extent. Originally, data sciences were viewed to be well-suited, especially, for data-intensive applications such as image processing, pattern recognition, etc. In the recent past, particularly, data-driven and physics-inspired machine learning methods have been developed to an extent that they accelerate numerical simulations and became directly usable for applications related to the nuclear waste management cycle. In addition to process-based approaches for creating surrogate models, other disciplines such as virtual reality methods and high-performance computing are leveraging the potential of data sciences more and more. The present challenge is utilising the best models, input data and monitoring information to integrate multi-chemical-physical, coupled processes, multi-scale and probabilistic simulations in Digital Twins (DTw) able to mirror or predict the performance of its corresponding physical twins. Therefore, the main target of the Topical Collection is exploring how the development of DTw can benefit the development of safe, efficient solutions for the pre-disposal and disposal of radioactive waste. A particular challenge for DTw in radioactive waste management is the combination of concepts from geological modelling and underground construction which will be addressed by linking structural and multi-physics/chemistry process models to building or tunnel information models. As for technical systems, engineered structures a variety of DTw approaches already exist, the development of DTw concepts for geological systems poses a particular challenge when taking the complexities (structures and processes) and uncertainties at extremely varying time and spatial scales of subsurface environments into account.
AB - Data science (digitalisation and artificial intelligence) became more than an important facilitator for many domains in fundamental and applied sciences as well as industry and is disrupting the way of research already to a large extent. Originally, data sciences were viewed to be well-suited, especially, for data-intensive applications such as image processing, pattern recognition, etc. In the recent past, particularly, data-driven and physics-inspired machine learning methods have been developed to an extent that they accelerate numerical simulations and became directly usable for applications related to the nuclear waste management cycle. In addition to process-based approaches for creating surrogate models, other disciplines such as virtual reality methods and high-performance computing are leveraging the potential of data sciences more and more. The present challenge is utilising the best models, input data and monitoring information to integrate multi-chemical-physical, coupled processes, multi-scale and probabilistic simulations in Digital Twins (DTw) able to mirror or predict the performance of its corresponding physical twins. Therefore, the main target of the Topical Collection is exploring how the development of DTw can benefit the development of safe, efficient solutions for the pre-disposal and disposal of radioactive waste. A particular challenge for DTw in radioactive waste management is the combination of concepts from geological modelling and underground construction which will be addressed by linking structural and multi-physics/chemistry process models to building or tunnel information models. As for technical systems, engineered structures a variety of DTw approaches already exist, the development of DTw concepts for geological systems poses a particular challenge when taking the complexities (structures and processes) and uncertainties at extremely varying time and spatial scales of subsurface environments into account.
KW - Data science
KW - Nuclear waste management
KW - Digital Twins (DTw)
UR - https://ecm.sckcen.be/OTCS/llisapi.dll/open/53323536
UR - http://www.scopus.com/inward/record.url?scp=85145415563&partnerID=8YFLogxK
U2 - 10.1007/s12665-022-10675-4
DO - 10.1007/s12665-022-10675-4
M3 - Article
SN - 1866-6280
VL - 82
JO - Environmental Earth Sciences
JF - Environmental Earth Sciences
IS - 1
M1 - 42
ER -