%0 Journal Article %1 meder2015comparative %A Meder, Roger %A Franich, Robert A. %A Callaghan, Paul T. %A Behr, Volker C. %D 2015 %J Holzforschung %K mri %N 9 %P 1137-1142 %R 10.1515/hf-2014-0134 %T A comparative study of dewatering of Pinus radiata sapwood using supercritical CO2 and conventional forced air-drying via in situ magnetic resonance microimaging (MRI) %V 69 %X A comparison of moisture loss from Pinus radiata sapwood by conventional forced air-drying and a novel supercritical carbon dioxide (scCO2) dewatering process has been examined in situ using magnetic resonance microimaging. Air-drying results in the nonuniform removal of moisture within the wood volume, leading to a dry core and wet perimeter where water evaporated, whereas the scCO2 dewatering process resulted in moisture expulsion more uniformly throughout the volume of the specimen, especially so within the earlywood.

@article{meder2015comparative, abstract = {A comparison of moisture loss from Pinus radiata sapwood by conventional forced air-drying and a novel supercritical carbon dioxide (scCO2) dewatering process has been examined in situ using magnetic resonance microimaging. Air-drying results in the nonuniform removal of moisture within the wood volume, leading to a dry core and wet perimeter where water evaporated, whereas the scCO2 dewatering process resulted in moisture expulsion more uniformly throughout the volume of the specimen, especially so within the earlywood.}, added-at = {2020-03-30T13:48:15.000+0200}, author = {Meder, Roger and Franich, Robert A. and Callaghan, Paul T. and Behr, Volker C.}, biburl = {https://www.bibsonomy.org/bibtex/2cc793406340faf2601ea9050e0942432/ep5mri}, doi = {10.1515/hf-2014-0134}, interhash = {d3570ff853e437e299206ae7d2598de1}, intrahash = {cc793406340faf2601ea9050e0942432}, issn = {0018-3830}, journal = {Holzforschung}, keywords = {mri}, month = {11}, number = 9, pages = {1137-1142}, timestamp = {2020-04-01T15:47:22.000+0200}, title = {A comparative study of dewatering of Pinus radiata sapwood using supercritical CO2 and conventional forced air-drying via in situ magnetic resonance microimaging (MRI)}, volume = 69, year = 2015 }