Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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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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Aalto University

in Cooperation with on an Cooperation-Score of 37%

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Publications (15/15 displayed)

  • 2024Size-Effect induced by cold-forming on the Strength of a HSS Truss Jointcitations
  • 2023Combined NDT methods to determine the variations in compressive strength throughout concrete structurescitations
  • 2023Determining the Location of Steel Reinforcement in Thick Concrete Walls by Non-Destructive Inspectioncitations
  • 2021Post-Fire Mechanical Properties of Steel S900MC1citations
  • 2021Factors affecting the performance of ventilation cavities in highly insulated assemblies6citations
  • 2021Factors affecting the performance of ventilation cavities in highly insulated assemblies6citations
  • 2020Experimental studies on mechanical properties of S700 MC steel at elevated temperatures34citations
  • 2019Design, construction, and NDT of a mock-up for reinforced concrete walls in NPPcitations
  • 2018Mock-up wall for NDT&E of NPP thick-walled reinforced concrete structurescitations
  • 2018Mock-up wall for non-destructive testing and evaluation of thick reinforced concrete structures in nuclear power plantscitations
  • 2018Response of high-strength steel beam and single-storey frame in fire : Numerical simulation17citations
  • 2017“NDT MATRIX” - A Tool for Selecting Non-Destructive Testing Methods for NPP Concrete Structurescitations
  • 2016Selection Matrix for Non-Destructive Testing of NPP Concrete Structurescitations
  • 2013Condition assessments and corrosion measurements of cooling water chambers in a nuclear power plantcitations
  • 2013Condition assessments and corrosion measurements of cooling water chambers in a nuclear power plantcitations

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Saremi, Pooya
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Lu, Wei
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Ferreira, Miguel
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Shakil, Saani
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Lü, Xiaoshu
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Lu, Xiaoshu
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Co-Authors (by relevance)

  • Saremi, Pooya
  • Lu, Wei
  • Ferreira, Miguel
  • Al-Neshawy, Fahim
  • Shakil, Saani
  • Abebe, Zemenu
  • Viljanen, Klaus
  • Lü, Xiaoshu
  • Lu, Xiaoshu
  • Effner, Ute
  • Ferreira, Rui Miguel
  • Ojala, Teemu
  • Niederleithinger, Ernst
  • Sjöblom, Ville
  • Bohner, Edgar
  • Ferreira, M.
  • Sistonen, Esko
  • Vesikari, Erkki
  • Piironen, Jukka
OrganizationsLocationPeople

article

Factors affecting the performance of ventilation cavities in highly insulated assemblies

  • Lu, Xiaoshu
  • Viljanen, Klaus
  • Puttonen, Jari
Abstract

<p>The article presents experimental studies of typical Finnish highly insulated (HI) envelopes with thermal resistance values (R value) for the wall and roof inside the ventilation cavity between 7.7 and 8.1 m<sup>2</sup>K/W and 13 m<sup>2</sup>K/W, respectively. The conditions in the ventilation cavities were studied by using typical and increased R values for the exterior part of the cavity, which were 0.18 m<sup>2</sup>K/W and 1.57 m<sup>2</sup>K/W in the walls, and 0.13 m<sup>2</sup>K/W and 2.13 m<sup>2</sup>K/W for the roof. With higher exterior R values of 1.57 m<sup>2</sup>K/W and 2.13 m<sup>2</sup>K/W, the cavity temperature increased only after closing the inlet gap of the cavities. If the cavity inlet was closed, the restriction of the outlet gap from 20–25 mm to 10 mm had no significant effect on the temperatures. A closed ventilation inlet resulted in increased absolute humidity in the cavity, which indicates that the restriction of cavity ventilation should be made with care to avoid impairing the drying-out ability. The computational analysis showed that the optimal air change rates in the wall and roof cavities of HI structures were 4–40 1/h and 20 1/h, respectively. The conventional 22-mm-thick wood cladding enables safe cavity conditions in HI walls if the vapor barrier is vapor tight and other moisture sources are low. A lower heat flux and additional heat loss caused by cloudless sky at night support the observation that HI roofs have a higher moisture risk. In HI roofs, a conventional exterior R value of 0.13 m<sup>2</sup>K/W should at least be increased to the range of 0.3–0.4 m<sup>2</sup>K/W, which is achieved, for example, by a 20-mm-thick mineral wool board under the roofing. The use of mold-resistant materials in the ventilation cavity is recommended to mitigate the possible ramifications of the moisture behavior of HI roofs.</p>

Topics
  • impedance spectroscopy
  • mineral
  • wood
  • drying