The Experts below are selected from a list of 12 Experts worldwide ranked by ideXlab platform

Jaakko E Laine - One of the best experts on this subject based on the ideXlab platform.

  • manufacture of fiberboard from wood fibers activated with Fentons Reagent h2o2 feso4
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Pia Qvintusleino, Simo Tuominen, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

  • Manufacture of Fiberboard from Wood Fibers Activated with Fentons Reagent (H2O2/FeSO4)
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Simo Tuominen, Pia Qvintus-leino, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

Petri Widsten - One of the best experts on this subject based on the ideXlab platform.

  • manufacture of fiberboard from wood fibers activated with Fentons Reagent h2o2 feso4
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Pia Qvintusleino, Simo Tuominen, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

  • Manufacture of Fiberboard from Wood Fibers Activated with Fentons Reagent (H2O2/FeSO4)
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Simo Tuominen, Pia Qvintus-leino, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

Simo Tuominen - One of the best experts on this subject based on the ideXlab platform.

  • manufacture of fiberboard from wood fibers activated with Fentons Reagent h2o2 feso4
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Pia Qvintusleino, Simo Tuominen, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

  • Manufacture of Fiberboard from Wood Fibers Activated with Fentons Reagent (H2O2/FeSO4)
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Simo Tuominen, Pia Qvintus-leino, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

Pia Qvintusleino - One of the best experts on this subject based on the ideXlab platform.

  • manufacture of fiberboard from wood fibers activated with Fentons Reagent h2o2 feso4
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Pia Qvintusleino, Simo Tuominen, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.

Pia Qvintus-leino - One of the best experts on this subject based on the ideXlab platform.

  • Manufacture of Fiberboard from Wood Fibers Activated with Fentons Reagent (H2O2/FeSO4)
    Holzforschung, 2003
    Co-Authors: Petri Widsten, Simo Tuominen, Pia Qvintus-leino, Jaakko E Laine
    Abstract:

    Summary Fiberboard was manufactured without synthetic resins from spruce and beech fibers activated by treatment with Fenton’s Reagent (H2O2/FeSO4) and the formation of radicals in the fibers by the action of Fenton’s Reagent was studied. The treatment resulted in a strong improvement of board strength and a large increase in fiber free radical content. The improved adhesion is probably largely due to interfiber bonds formed by reactions of radicals or other reactive groups generated in the fibers by Fenton’s Reagent. The reactivity of spruce fibers in terms of radical formation increased as defibration temperature increased. The thickness swell of the boards depended more on the amount of sizing agent or other additive than on the defibration temperature or fiber reactivity toward Fenton’s Reagent.