Scientific Results

This catalogue is obtained by conducting a systematic literature review of scientific studies and reviews related to monitoring, forecasting, and simulating the inland water cycle. The analysis maps scientific expertise across research groups and classifies findings by the type of inland water studied, application focus, and geographical scope. A gap analysis will identify missing research areas and assess their relevance to policymaking.

ID ā–² Type Year Authors Title Venue/Journal DOI Research type Water System Technical Focus Abstract Link with Projects Link with Tools Related policies ID
publications-251 Nikitina, Elena Russiaā€™s climate policy and the Kyoto ratification deal: Assessing the science-practice interface Uncategorized Uncategorized No abstract available 226571
publications-252 PEER REVIEWED ARTICLE 2013 Lebel, Louis Institutional fit and river basin governance 10.5751/es-05097-180101 Simulation & Modeling Uncategorized No abstract available 226571
publications-253 PEER REVIEWED ARTICLE 2012 Pahl-Wostl, Claudia From applying panaceas to mastering complexity: Towards adaptive water governance in river basins 10.1016/j.envsci.2012.07.014 Simulation & Modeling Uncategorized No abstract available 226571
publications-254 PEER REVIEWED ARTICLE 2010 Weiss M, M Junginger, M.K. Patel, K Blok A review of experience curve analyses for energy demand technologies 10.1016/j.techfore.2009.10.009 Data Management & Analytics Uncategorized No abstract available 227078
publications-255 PEER REVIEWED ARTICLE 2010 Huijbregts MAJ, S Hellweg, R Frischknecht, HWM Hendriks, K Hungerbuhler, AJ Hendriks Cumulative Energy Demand As Predictor for the Environmental Burden of Commodity Production 10.1021/es902870s Data Management & Analytics Uncategorized No abstract available 227078
publications-256 PEER REVIEWED ARTICLE 2010 Michael Curran, L De Baan, AM De Schryver, R van Zelm, S Hellweg, T Koellner, G Sonneman, MAJ Huijbregts Toward Meaningful End Points of Biodiversity in Life Cycle Assessment 10.1021/es101444k Simulation & Modeling Irrigation Systems No abstract available 227078
publications-257 PEER REVIEWED ARTICLE 2011 Tobias Walser, Evangelia Demou, Daniel J. Lang, Stefanie Hellweg Prospective Environmental Life Cycle Assessment of NanosilverT-Shirts 10.1021/es2001248 Simulation & Modeling Uncategorized No abstract available 227078
publications-258 PEER REVIEWED ARTICLE 2011 De Schryver AM, Van Zelm R, Humbert S, Pfister S, McKone TE, MAJ Huijbregts Value choices in life cycle impact assessment of human health 10.1111/j.1530-9290.2011.00371.x Uncategorized Uncategorized No abstract available 227078
publications-259 PEER REVIEWED ARTICLE 2011 Pfister Stephan, P Bayer, A Koehler, S Hellweg Environmental Impacts of Water Use in Global Crop Production: Hotspots and Trade-Offs with Land Use 10.1021/es1041755 Uncategorized Uncategorized No abstract available 227078
publications-260 PEER REVIEWED ARTICLE 2011 De Meester, S., Callewaert, C., De Mol, E., Van Langenhove, H., Dewulf, J. The resource footprint of biobased products: a key issue in the sustainable development of biorefineries 10.1002/bbb.304 Data Management & Analytics Uncategorized AbstractThe multifunctionality of bioresources is a major opportunity for the future; it offers the ability to replace fossilā€related market demands in a carbon neutral way. However, the switchover to a biobased economy faces two main challenges in comparison with the current fossilā€based situation: biofeedstock requires an intensive cultivation step and furthermore there is a certain competition with the food chain which limits the amount of land available for new markets. So whilst biomass is seen as a ā€˜renewableā€™ resource, it is definitely not ā€˜gratuiteā€™, inducing the need of an efficient cultivation and valorization. In this paper, a case study is executed to highlight that biorefining feedstock into a wide range of products is a thermodynamically efficient (81.1%) way of processing all molecules of the bioresources for specific purposes in different segments of the market demand. On the other hand, it is demonstrated in the second part of the paper that replacing fossils requires a certain amount of inputs from the Earth's crust causing additional thermodynamic losses in the production chain (15.3% efficient), which are quantified based on the resource footprint of the Cumulative Exergy Extracted from the Natural Environment (CEENE) methodology. A scenario assessment demonstrates the resulting tradeoff between the carbon footprint of bioproducts and the land, water, and minerals footprint; in the case study executed, 27% fossil resources are saved at the cost of 93% extra land, water and mineral input from the natural environment. Ā© 2011 Society of Chemical Industry and John Wiley & Sons, Ltd 227078