Appleton T, Colder R, Kingman S, Lowndes I (2005) Microwave technology for energy-efficient
processing of waste. Appl Energy 81(1):85–113
Bachmann J, Horton R, Grant S, van der Ploeg R (2002) Temperature dependence of water
retention curves for wettable and water-repellent soils. Soil Sci Soc Am J 66(1):44–52
Baker R, Kuhlman M (2002) A description of the mechanics of in situ thermal destruction (ISTD)
reactions. In: El-Akabi H (ed) Proceedings of the 2nd international conference, oxidation and
reduction technologies for soil and groundwater (ORTs-2.), San Diego, CA
Baker R, LaChance J, Heron G (2004) Evaluating in-situ thermal remediation technologies—
optimize your selection process. In: Accelerating site closeout—improving performance and
reducing costs through optimization. U.S. Environmental Protection Agency, Dallas, TX
Baker R, Nielsen S, Heron G, Ploug N (2016) How effective is thermal remediation of DNAPL
source zones in reducing groundwater concentrations? Ground Water Monit Remediat 36
(1):38–53
Banerjee S (1996) Estimating water solubilities of organics as a function of temperature. Water Res
30(9):2222–2225
Barbosa de Lima A, Delgado J, Silva E, de Farias Neto S, Santos J, Barbosa de Lima W (2016)
Drying process in electromagnetic fields, chapter 5 in drying and energy technologies. In
Advanced structured materials. Springer, Cham, 228 p. isbn:978-3-319-19766-1
Bear J (1979) Hydraulics of groundwater. McGraw-Hill, New York, NY, 569 p. isbn:9780486453552.
Bejan A, Kraus A (2003) Heat transfer handbook, Har/Cdr edn. Wiley-Interscience, New York,
NY, 1496 p. isbn:978-0471390152
Beyke G, Fleming D (2005) In situ thermal remediation of DNAPL and LNAPL using electrical
resistance heating. Remediat J 15(3):5–22
Bradford S, Leij F (1996) Predicting two- and three-fluid capillary pressure-saturation relationships
of porous media with fractional wettability. Water Resour Res 32(2):251–259. https://doi.org/
10.1029/95WR03239
Broquaire M, Mondesir J, Reynard V (2014) Rapport de fin de travaux, RHODIA Chimie – Groupe
Solvay, Site X, Pilote de désorption thermique in-situ. Technical report, RHODIA Chimie –
Groupe Solvay/VEOLIA Propreté – GRS Valtech, 103 p
Buettner H, Daily W (1995) Cleaning contaminated soil using electrical heating and air stripping. J
Environ Eng 121(8):580–589
Burger J, Sourieau P, Combarnous M, Bia P, Sahuquet B (1984) Récupération assistée du pétrole –
Les méthodes thermiques. Publications de l’Institut Français du Pétrole, Paris,
416 p. isbn:2710804506
Burghardt J, Kueper B (2008) Laboratory study evaluating heating of tetrachloroethylene impacted
soil. Ground Water Monit Remediat 28(4):95–106
Campbell G, Jungbauer J, Bidlake W, Hungerford R (1994) Predicting the effect of temperature on
soil thermal-conductivity. Soil Sci 158:307–313
Chevalier L, Fonte J (2000) Correlation model to predict residual immiscible organic contaminants
in sandy soils. J Hazard Mater 72(1):39–52
Chien Y-C (2012) Field study of in situ remediation of petroleum hydrocarbon contaminated soil on
site using microwave energy. J Hazard Mater 199–200:457–461
Church R, Webb W, Salsman J (1988) Dielectric properties of low loss minerals. Technical report
USBOM report of investigations 9194, United States Department of the Interior – Bureau of
Mines, 28 p
Chute FS, Vermeulen F (1988) Present and potential applications of electromagnetic heating in the
in-situ recovery of oil. AOSTRA J Res 4(1):19–33
Clark D, Folz D, West J (2000) Processing materials with microwave energy. Mater Sci Eng A
A287(2):153–158
Colombano S, Saada A, Guerin V, Bataillard P, Bellenfant G, Beranger S, Hubé D, Blanc C,
Zornig C, Girardeau I (2010) Quelles techniques pour quels traitements – Analyse coût202
S. Colombano et al.
processing of waste. Appl Energy 81(1):85–113
Bachmann J, Horton R, Grant S, van der Ploeg R (2002) Temperature dependence of water
retention curves for wettable and water-repellent soils. Soil Sci Soc Am J 66(1):44–52
Baker R, Kuhlman M (2002) A description of the mechanics of in situ thermal destruction (ISTD)
reactions. In: El-Akabi H (ed) Proceedings of the 2nd international conference, oxidation and
reduction technologies for soil and groundwater (ORTs-2.), San Diego, CA
Baker R, LaChance J, Heron G (2004) Evaluating in-situ thermal remediation technologies—
optimize your selection process. In: Accelerating site closeout—improving performance and
reducing costs through optimization. U.S. Environmental Protection Agency, Dallas, TX
Baker R, Nielsen S, Heron G, Ploug N (2016) How effective is thermal remediation of DNAPL
source zones in reducing groundwater concentrations? Ground Water Monit Remediat 36
(1):38–53
Banerjee S (1996) Estimating water solubilities of organics as a function of temperature. Water Res
30(9):2222–2225
Barbosa de Lima A, Delgado J, Silva E, de Farias Neto S, Santos J, Barbosa de Lima W (2016)
Drying process in electromagnetic fields, chapter 5 in drying and energy technologies. In
Advanced structured materials. Springer, Cham, 228 p. isbn:978-3-319-19766-1
Bear J (1979) Hydraulics of groundwater. McGraw-Hill, New York, NY, 569 p. isbn:9780486453552.
Bejan A, Kraus A (2003) Heat transfer handbook, Har/Cdr edn. Wiley-Interscience, New York,
NY, 1496 p. isbn:978-0471390152
Beyke G, Fleming D (2005) In situ thermal remediation of DNAPL and LNAPL using electrical
resistance heating. Remediat J 15(3):5–22
Bradford S, Leij F (1996) Predicting two- and three-fluid capillary pressure-saturation relationships
of porous media with fractional wettability. Water Resour Res 32(2):251–259. https://doi.org/
10.1029/95WR03239
Broquaire M, Mondesir J, Reynard V (2014) Rapport de fin de travaux, RHODIA Chimie – Groupe
Solvay, Site X, Pilote de désorption thermique in-situ. Technical report, RHODIA Chimie –
Groupe Solvay/VEOLIA Propreté – GRS Valtech, 103 p
Buettner H, Daily W (1995) Cleaning contaminated soil using electrical heating and air stripping. J
Environ Eng 121(8):580–589
Burger J, Sourieau P, Combarnous M, Bia P, Sahuquet B (1984) Récupération assistée du pétrole –
Les méthodes thermiques. Publications de l’Institut Français du Pétrole, Paris,
416 p. isbn:2710804506
Burghardt J, Kueper B (2008) Laboratory study evaluating heating of tetrachloroethylene impacted
soil. Ground Water Monit Remediat 28(4):95–106
Campbell G, Jungbauer J, Bidlake W, Hungerford R (1994) Predicting the effect of temperature on
soil thermal-conductivity. Soil Sci 158:307–313
Chevalier L, Fonte J (2000) Correlation model to predict residual immiscible organic contaminants
in sandy soils. J Hazard Mater 72(1):39–52
Chien Y-C (2012) Field study of in situ remediation of petroleum hydrocarbon contaminated soil on
site using microwave energy. J Hazard Mater 199–200:457–461
Church R, Webb W, Salsman J (1988) Dielectric properties of low loss minerals. Technical report
USBOM report of investigations 9194, United States Department of the Interior – Bureau of
Mines, 28 p
Chute FS, Vermeulen F (1988) Present and potential applications of electromagnetic heating in the
in-situ recovery of oil. AOSTRA J Res 4(1):19–33
Clark D, Folz D, West J (2000) Processing materials with microwave energy. Mater Sci Eng A
A287(2):153–158
Colombano S, Saada A, Guerin V, Bataillard P, Bellenfant G, Beranger S, Hubé D, Blanc C,
Zornig C, Girardeau I (2010) Quelles techniques pour quels traitements – Analyse coût202
S. Colombano et al.