[1] P. Blanchet, A. K. Kaboorani and Cecilia Bustos, Understanding the
effects of drying methods on wood mechanical properties at ultra and
cellular levels, Wood and Fiber Science 48(2) (2016), 117-128.
[2] X. He, X. Xiong, J. Xie, Y. Li, Y. Wei, P. Quan, Q. Mou and X. Li,
Effect of microwave pretreatment on permeability and drying properties
of wood, BioResources 12(2) (2017), 3850-3863.
[3] M. Khan, G. Brodie and D. Gupta, Effect of microwave (2.45GHz)
treatment of soil on yield components of wheat (Triticum aestivum L.),
Journal of Microwave Power and Electromagnetic Energy 50(3) (2016),
191-200.
DOI: https://doi.org/10.1080/08327823.2016.1228441
[4] M. Lemos de Peres, R. Delucis, D. A. Gatto and R. Beltrame,
Mechanical behavior of wood species softened by microwave heating
prior to bending, European Journal of Wood and Wood Products 74(2)
(2016), 143-149.
DOI: https://doi.org/10.1007/s00107-015-0978-x
[5] Yu. N. Pchelnikov, Features of slow waves and potentials for their
nontraditional application, Journal of Communications Technology and
Electronics 48(4) (2003), 450-462.
[6] Yu. N. Pchelnikov, SWS - based applicators for agriculture
application, Unpublished Report for Melbourne University of Company
“Pchelnikov Consulting†(2014), pp. 39.
[7] R. A. Silin, Periodic Waveguides, Publisher Fazis, Moscow (2002),
[in Russian].
[8] K. Sugiyaento, P. Vinden, G. Torgovnikov and S. Przewloka,
Microwave surface modification of Pinus radiata peeler cores:
Technical and cost analyses, Forest Products Journal 60(4) (2010),
346-352.
DOI: https://doi.org/10.13073/0015-7473-60.4.346
[9] G. I. Torgovnikov, Dielectric Properties of Wood and Wood Based
Materials, Publisher Springer-Verlag, Berlin, 1993.
[10] G. Torgovnikov and P. Vinden, Microwave modification of the
peeler cores for preservative treatment, Journal of Materials Science
and Engineering with Advanced Technology 9(1) (2014), 51-68.
[11] G. Torgovnikov, P. Vinden and B. Balboni, Microwave conversion of
plantation grown Blue gum (Eucalyptus globulues L’Herit) wood
to Torgvin and impregnation with metal alloy, Journal of Materials
Science and Engineering with Advanced Technology 11(1) (2015),
1-19.
DOI: http://dx.doi.org/10.18642/jmseat_7100121430
[12] G. Torgovnikov and P. Vinden, Microwave wood modification
technology and equipment for its commercialization (Conference paper),
July 15-29; Cartagena, Spain, 3rd Global Congress on Microwave Energy
Applications (3GCMEA), (2016). Proceedings, pp 120-129.
[13] A. Treu and S. Gjolsjo, Spruce impregnation, finally a
breakthrough by means of microwave radiation? In: Proc. 4th Meeting of
the Nordic Baltic Network in Wood Material Science & Engineering
(WSE), Nov. 13-14, 2008 Riga, Latvia (2008), pp. 42-48.
[14] US Department of Energy, Industrial Technologies Program, Forest
Products, Increasing yield and quality of low-temperature, low-alkali
kraft cooks with microwave pretreatment, Project Fact Sheet (2007),
1-2.
[15] P. Vinden, J. Romero and G. Torgovnikov, A method for increasing
the permeability of wood, US Patent No 6,596,975 (2003).
[16] P. Vinden, G. Torgovnikov and J. Hann, Microwave modification of
Radiata pine railway sleepers for preservative treatment, European
Journal of Wood and Wood Products 69(2) (2011), 271-279.
DOI: https://doi.org/10.1007/s00107-010-0428-8
[17] D. A. Watkins, Topics in Electromagnetic Theory, Publisher Willy
& Sons Inc., N.Y., 1958.
[18] A. A. Yelizarov and Yu N. Pchelnikov, Radio-Wave Elements of
Technological Devices and Equipment on Slow-Wave Structures, Publisher
Radio and Communications, Moscow (2002), [in Russian].
[19] A. Yelizarov, R. Shaymardanov and Y. Pchelnikov, Methods and
apparatus for microwave thermotherapy based on slow-wave systems,
(Conference paper), March 14-16, Bochum, Germany. 10th German
Microwave Conference, GeMiC 2016. Proceedings (2016). INSPEC Accession
Number: 15970025. Publisher IEEE.
DOI: https://doi.org/10.1109/GEMIC.2016.7461606