Requirements on and Selection of Data Storage Technologies for Life Cycle Assessment

被引:1
|
作者
Ulbig, Michael [1 ]
Merschak, Simon [1 ]
Hehenberger, Peter [1 ]
Bachler, Johann [2 ]
机构
[1] Univ Appl Sci Upper Austria, Res Ctr Low Carbon Special Powertrain, Wels Campus,Stelzhamerstr 23, A-4600 Wels, Austria
[2] AVL List GmbH, Hans List Pl 1, A-8020 Graz, Austria
关键词
Carbon footprint; Life cycle assessment; Data engineering; Data storage technology;
D O I
10.1007/978-3-031-25182-5_9
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The importance of a centralized data storage system for life cycle assessment (LCA) will be addressed in this paper. Further, the decision-making process for a suitable data storage system is discussed. LCA requires a lot of relevant data such as resource/material data, production process data and logistics data, originating from many different sources, which must be integrated. Therefore, data collection for LCA is quite difficult. In practice, relevant data for LCA is often not available or is uncertain and has therefore to be estimated or generalized. This implies less accuracy of the calculated carbon footprint. State of the Art research shows that the LCA data collection process can benefit from data engineering approaches. Key of these approaches is a suitable and efficient data storage system like a data warehouse or a data lake. Depending on the LCA use case, a data storage system can also benefit from the combination with other technologies such as big data and cloud computing. As a result, in this paper a criteria catalog is developed and presented. It can be used to evaluate and decide which data storage systems and additional technologies are recommended to store and process data for more efficient and more precise carbon footprint calculation in life cycle assessment.
引用
收藏
页码:86 / 95
页数:10
相关论文
共 50 条
  • [1] Life cycle assessment of future fossil technologies with and without carbon capture and storage
    Dones, Roberto
    Bauer, Christian
    Heck, Thomas
    Mayer-Spohn, Oliver
    Blesl, Markus
    LIFE-CYCLE ANALYSIS FOR NEW ENERGY CONVERSION AND STORAGE SYSTEMS, 2008, 1041 : 147 - 158
  • [2] Life cycle assessment of emerging technologies: A review
    Moni, Sheikh Moniruzzaman
    Mahmud, Roksana
    High, Karen
    Carbajales-Dale, Michael
    JOURNAL OF INDUSTRIAL ECOLOGY, 2020, 24 (01) : 52 - 63
  • [3] Life cycle assessment on energy utilization technologies
    Wang, SJ
    Song, Q
    Chen, CG
    ENERGY CONVERSION AND APPLICATION, VOL I AND II, 2001, : 166 - 168
  • [4] Life cycle assessment of ocean energy technologies
    Uihlein, Andreas
    INTERNATIONAL JOURNAL OF LIFE CYCLE ASSESSMENT, 2016, 21 (10): : 1425 - 1437
  • [5] Life cycle assessment of ocean energy technologies
    Andreas Uihlein
    The International Journal of Life Cycle Assessment, 2016, 21 : 1425 - 1437
  • [6] Life cycle assessment of biogas upgrading technologies
    Starr, Katherine
    Gabarrell, Xavier
    Villalba, Gara
    Talens, Laura
    Lombardi, Lidia
    WASTE MANAGEMENT, 2012, 32 (05) : 991 - 999
  • [7] Selection of odour removal technologies in wastewater treatment plants: A guideline based on Life Cycle Assessment
    Alfonsin, Carolina
    Lebrero, Raquel
    Estrada, Jose M.
    Munoz, Raul
    Kraakman, N. J. R.
    Feijoo, Gumersindo
    Teresa Moreira, Ma
    JOURNAL OF ENVIRONMENTAL MANAGEMENT, 2015, 149 : 77 - 84
  • [8] Life cycle assessment for selection processes on materials
    Schonemann, K
    Krahling, H
    vonFlotow, P
    LIFE CYCLE ENGINEERING OF PASSENGER CARS: RESOURCES - PRODUCTION - USAGE - RECYCLING, 1996, 1307 : 331 - 347
  • [9] Green buildings: Requirements, features, life cycle, and relevant intelligent technologies
    Yin, Siyi
    Wu, Jinsong
    Zhao, Junhui
    Nogueira, Michele
    Lloret, Jaime
    Internet of Things and Cyber-Physical Systems, 2024, 4 : 307 - 317
  • [10] Framework for Analyzing Transformative Technologies in Life Cycle Assessment
    Miller, Shelie A.
    Keoleian, Gregory A.
    ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2015, 49 (05) : 3067 - 3075