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A Zaman, R Alèn, R Kotilainen (2000)
Thermal behavior of Scots pine (Pinus sylvestris) and silver birch (Betula pendula) at 200–230°CWood Fiber Sci, 32
D Fengel, G Wegener (2003)
Wood: chemistry, ultrastructure
CAS Hill, AJ Norton, G Newmann (2010)
The water vapour sorption properties of Sitka spruce determined using a dynamic vapour sorption apparatusWood Sci Technol, 44
J Adolphs (2007)
Excess surface work-A modelless way of getting surface energies and specific surface areas directly from sorption isothermsAppl Sur Sci, 253
JH Boer, CZ Zwicker (1929)
Adsorption als folge von polarisation. Die adsorptionsisotherme (adsorption as a result of polarization. The adsorption isotherms)Z Physik Chem, B3
R Hosseinpourpia, S Adamopoulos, N Holstein, C Mai (2017)
Dynamic vapour sorption and water-related properties of thermally modified Scots pine (Pinus sylvestris L.) wood pre-treated with proton acidPolym Degrad Stab, 138
L Salmén, E Bergström (2009)
Cellulose structural arrangement in relation to spectral changes in tensile loading FTIRCellulose, 16
ET Engelund, LG Thygesen, S Svensson, CAS Hill (2013)
A critical discussion of the physics of wood-water interactionsWood Sci Technol, 47
H Bächle, B Zimmer, E Windeisen, G Wegener (2010)
Evaluation of thermally modified beech and spruce wood and their properties by FT-NIR spectroscopyWood Sci Technol, 44
(2010)
Determination of the specific area of solids by gas adsorption—BET method
V Repellin, R Guyonnet (2005)
Evaluation of heat-treated wood swelling by differential scanning calorimetry in relation to chemical compositionHolzforschung, 59
R Herrera, X Erdocia, J Labidi, R Llano-Ponte (2015)
Chemical analysis of industrial-scale hydrothermal wood degraded by wood-rotting basidiomycetes and its action mechanismsPolym Degrad Stab, 117
K Rübner, C Prinz, J Adolphs, S Hempel, A Schell (2015)
Microstructural characterisation of lightweight granules made from masonry rubbleMicropor Mesopor Mater, 209
ET Engelund, LG Thygesen, I Burgert (2017)
Hydroxyl accessibility in wood cell walls as affected by drying and re-wetting proceduresCellulose, 24
W Olek, JT Bonarski (2014)
Effects of thermal modification on wood ultrastructure analyzed with crystallographic textureHolzforschung, 68
R Herrera, M Muszynska, T Krystofiak, J Labidi (2015)
Comparative evaluation of different thermally modified wood samples finishing with UV-curable and water borne coatingsAppl Sur Sci, 357
J Adolphs, MJ Setzer (1996)
Energetic Classification of Adsorption IsothermsJ Colloid Interface Sci, 184
J Bourgois, R Guyonnet (1988)
Characterization and analysis of torrefied woodWood Sci Technol, 22
W Olek, J Majka, Ł Czaikowski (2013)
Sorption isotherms of thermally modified woodHolzforschung, 67
A Pfriem, M Zauer, A Wagenführ (2010)
Alteration of the unsteady sorption behaviour of maple (Acer pseudoplatanus L.) and spruce (Picea abies (L.) Karst.) due to thermal modificationHolzforschung, 64
W Sandermann, H Augustin (1963)
Chemical investigations on the thermal decomposition of wood. Part I: stand of researchHolz Roh Werkst, 21
NV Churaev, MJ Setzer, J Adolphs (1998)
A model to describe adsorption isothermsJ Colloid Interface Sci, 197
J Adolphs, MJ Setzer (1998)
Description of gas adsorption isotherms on porous and dispersed systems with the excess surface work modelJ Colloid Interface Sci, 207
S Brunauer, PH Emmet, E Teller (1938)
Adsorption of gases in multimolecular layersJ Am Chem Soc, 60
D Enke, M Rückriem, A Schreiber, J Adolphs (2010)
Water vapor sorption on hydrophilic and hydrophobic nanoporous materialsAppl Sur Sci, 256
BV Derjaguin, NV Churaev, VM Muller (1987)
Surface forces
M Borrega, K Niemelä, H Sixta (2013)
Effect of hydrothermal treatment intensity on the formation of degradation products from birchwoodHolzforschung, 67
S Himmel, C Mai (2016)
Water vapour sorption of wood modified by acetylation and formalization-analysed ba a sorption kinetics model and thermodynamic considerationsHolzforschung, 70
JJ Weiland, R Guyonnet (2003)
Study of chemical modification and fungi degradation of thermally modified wood using DRFIT spectroscopyHolz Roh Werkst, 61
G Peschel, KH Adlfinger (1971)
Thermodynamic investigations of thin layers between solid surfacesZeit Naturforsch, 26A
C Skaar (1988)
Wood-water relations
CAS Hill (2006)
Wood modification: chemical, thermal and other processes
CAS Hill, J Ramsay, B Keating, K Laine, L Rautkari, M Hughes, B Constant (2012)
The water vapour sorption properties of thermally modified and densified woodJ Mater Sci, 47
E Windeisen, C Strobel, G Wegener (2007)
Chemical changes during the production of thermo- treated beech woodWood Sci Technol, 41
CM Popescu, CAS Hill (2013)
The water vapour adsorption-desorption behaviour of naturally aged Tilia codorata Mill. woodPolym Degrad Stab, 98
JMB Fernandes Diniz, MH Gil, JAAM Castro (2004)
Hornification-its origin and interpretation in wood pulpsWood Sci Technol, 37
M Zauer, A Kowalewski, R Sproßmann, H Stonjek, A Wagenführ (2016)
Thermal modification of European beech at relatively mild temperatures for the use in electric bass guitarsEur J Wood Prod, 74
A Pètrissans, R Younsi, M Chaoch, P Gèrardin, M Pètrissans (2012)
Experimental and numerical analysis of wood thermodegradation: mass loss kineticsJ Therm Anal Calorim, 109
E Roffael, R Kraft (2012)
Influence of thermal wood modification on the water retention value (WRV)Eur J Wood Prod, 70
Water vapor sorption surface areas and sorption energies of untreated and thermally modified Norway spruce [Picea abies (L.) Karst.], sycamore maple (Acer pseudoplatanus L.) and European ash (Fraxinus excelcior L.) were investigated by means of dynamic vapor sorption (DVS) measurements and excess surface work (ESW) evaluation method, respectively. Adsorption and desorption experiments in the hygroscopic range and desorption tests from water saturation were conducted. Thermodynamically, ESW is the sum of the surface free energy and the isothermal isobaric work of sorption. From the amount adsorbed in the first minimum a specific surface area similar to the BET surface area can be obtained. The results show that untreated spruce has a significantly higher specific water vapor sorption surface and sorption energy compared to both hardwoods maple and ash. Thermal modification of the woods leads to a significant reduction of water vapor sorption surface and sorption energy. The determined surface area and energy are higher in desorption direction than in adsorption direction, whereby the highest values in desorption direction from water saturation, especially for maple and ash, were obtained. The surface areas calculated by means of the ESW method are similar to the surface areas calculated by means of the BET method, particularly in adsorption direction.
Wood Science and Technology – Springer Journals
Published: May 17, 2018
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