Materials Map

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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Søgaard, Erik Gydesen

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Aalborg University

in Cooperation with on an Cooperation-Score of 37%

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Publications (12/12 displayed)

  • 2021A Geothermal Plant from a Time-Scale Perspective4citations
  • 2018Towards understanding the breakdown and mechanisms of glass fiber reinforced polyester composites in sub-critical water using some of the most employed and efficient additives from literature11citations
  • 2017Optimized process for recovery of glass- and carbon fibers with retained mechanical properties by means of near- and supercritical fluids41citations
  • 2017Investigation of degradation products produced by recycling the solvent during chemical degradation of fiber-reinforced composites15citations
  • 2017Investigation of degradation products produced by recycling the solvent during chemical degradation of fiber-reinforced composites15citations
  • 2015MICROWAVE INDUCED DEGRADATION OF GLASS FIBER REINFORCED POLYESTER FOR FIBER AND RESIN RECOVERYcitations
  • 2015MICROWAVE INDUCED DEGRADATION OF GLASS FIBER REINFORCED POLYESTER FOR FIBER AND RESIN RECOVERYcitations
  • 2015Identification of TiO2 clusters present during synthesis of sol-gel derived TiO2 nano-particlescitations
  • 2014Precipitation of halite from supersaline brine from Tønder formationcitations
  • 2011Fluoropolymer - TiO2 coatings and their superhydrophilicitycitations
  • 2010Electrochemical Oxidation of PAHs in Water from Harbor Sediment Purificationcitations
  • 2002Kemisk/biologisk filter til rensning af vand, forurenet med klorerede opløsningsmidlercitations

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Knudby, Christen
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Mora, Jacquelin Elizabeth Cobos
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Ucar Sokoli, Hülya
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Simonsen, Morten Enggrob
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Beauson, Justine
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Brøndsted, Povl
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Fraisse, Anthony
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Aturi, Katarzyna
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Muff, Jens
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Christensen, Steen Ravn
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Co-Authors (by relevance)

  • Knudby, Christen
  • Mora, Jacquelin Elizabeth Cobos
  • Ucar Sokoli, Hülya
  • Simonsen, Morten Enggrob
  • Beauson, Justine
  • Brøndsted, Povl
  • Fraisse, Anthony
  • Ucar, Hülya
  • Nielsen, Rudi Pankratz
  • Kasia, R. Arturi
  • Aturi, Katarzyna
  • Callsen, Jesper N.
  • Jepsen, Henrik
  • Muff, Jens
  • Christensen, Steen Ravn
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document

Precipitation of halite from supersaline brine from Tønder formation

  • Kasia, R. Arturi
  • Søgaard, Erik Gydesen
Abstract

This project deals various treatments for geothermal brine, which is a highly salty solution containing more that 50 TDS (Total Dissolved Solids). This project focuses on the brine from Tønder formation (T=73°C), which has an extraordinarily high salt content NaCl ([C] = 300-310 g/l). According to the data, the brine is either saturated or very close to saturated with sodium chloride, which can give huge precipitation problems on a geothermal plant. Calculations have shown that, if the solution is saturated, cooling from ≈70°C to 30-40°C will result in precipitation of 5 g NaCl per liter solution. With a flow of 200 m3/h, that gives precipitation of 100 kg salt per hour. The purpose behind this project is to determine if the precipitation will take place, and how it can be avoided. Additionally, membrane filtration will be examined as a potential tool for removal of salt from brine before the re-injection. The composition of the brine has been studied in detail, but it can not with certainty be determined whether the solution is saturated or undersaturated. No matter the thermodynamic considerations, there are also kinetic factors that must be taken into account. According to the results, there is no precipitation of NaCl as a result of cooling. Neither the heat exchanger nor the system were afflicted by scaling problems, formation of coating or clogging. The were no problems with the flow of brine in the plant whatsoever. The absence of precipitation was confirmed by both concentration measurements (titration and ICP), conductivity measurements, and filtration experiments. It is possible that the precipitation takes place in the system, yet it can not be traced analytically, partially because of the relatively small amounts of salt to precipitate, and in part because of the large natural variation for the concentration measurements. Precipitation of salt in the bulk rather than on the surface would not be surprising, taking into account the brine’s high concentrations. Homogeneous nucleation is a frequent phenomenon in concentrated solutions. In any case, NaCl seems to remain in the brine, regardless of the precipitation scenario. However, the precipitation of salt due to cooling was refuted by both ultrafiltration studies and XRD analyzes, and can be considered to be an unlikely phenomenon to occur. Ceramic membranes have been found to be ineffective for removal of salt. This applies both to the simple mechanism of retention and to mechanism of increased precipitation due to the presence of fouling (cake filtration mechanism).

Topics
  • impedance spectroscopy
  • surface
  • x-ray diffraction
  • experiment
  • Sodium
  • precipitate
  • precipitation
  • ceramic
  • titration