Terje Kanstad

Prof. Dr. Terje Kanstad


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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6 November 2012 in Materials and Structures
Verified
Journal Article
Closed access
PDF file
GJGuomin Ji
Guomin Ji
TKTerje Kanstad
Terje Kanstad
ØBØ. Bjøntegaard
Ø. Bjøntegaard
ESE. J. Sellevold
E. J. Sellevold

13 November 2015 in Structural Concrete
Verified
Journal Article
Closed access
PDF file
GŽGiedrius Žirgulis
Giedrius Žirgulis
OŠOldřich Švec
Oldřich Švec
MGMette Rica Geiker
Mette Rica Geiker
Andrzej CwirzenAndrzej Cwirzen
Andrzej Cwirzen
TKTerje Kanstad
Terje Kanstad

5 December 2018 in Materials and Structures
Verified
Journal Article
Closed access
PDF file
AKAnja Estensen Klausen
Anja Estensen Klausen
TKTerje Kanstad
Terje Kanstad
ØBØyvind Bjøntegaard
Øyvind Bjøntegaard
ESErik J. Sellevold
Erik J. Sellevold

1 October 2021 in Engineering Structures
Verified
Journal Article
Open access
SKSimen Sørgaard Kongshaug
Simen Sørgaard Kongshaug
RLRolf Magne Larssen
Rolf Magne Larssen
MHMax Hendriks
Max Hendriks
TKTerje Kanstad
Terje Kanstad
GMGro Markeset
Gro Markeset

14 December 2019 in Advances in Materials Science and Engineering
Verified
Journal Article
Open access
PDF file
AKAnja Estensen Klausen
Anja Estensen Klausen
TKTerje Kanstad
Terje Kanstad
ØBØyvind Bjøntegaard
Øyvind Bjøntegaard
Early age cracking (EAC) is a well-known problem area when it comes to concrete structures. The driving forces behind EAC are thermal dilation and autogenous deformation, but EAC is also strongly dependent on material and geometrical properties such as hydration heat development, tensile strength, E-modulus, creep, cross-sectional dimensions, and degree of restraint. The current document contains a description of the EAC design methodology that is currently being implemented in Norway. The basis of the methodology is to define and describe the material properties of a given concrete through laboratory testing and succeeding model fitting. The obtained material parameters are then evaluated and calibrated by comparing (1) stress development measured in a Temperature-Stress Testing Machine with (2) stress development calculated by using the obtained material properties and various multiphysical EAC calculation approaches. Special consideration is given to the effect of realistic curing temperature regimes on the various material properties and consequently on the EAC.