On the operating mode of bimetallic systems for environmental remediationNOUBACTEP, C.Journal of hazardous materials (Print). 2009, Vol 164, Num 1, pp 394-395, issn 0304-3894, 2 p.Article

Reduction of nitrobenzene and formation of corrosion coatings in zerovalent iron systemsHUANG, Yong H; ZHANG, Tian C.Water research (Oxford). 2006, Vol 40, Num 16, pp 3075-3082, issn 0043-1354, 8 p.Article

Synthesis of nanoscale reaction pits network on zerovalent iron powder surfaceLI, Chun-Man; CHEN, Yun-Chieh; CHIU, Kong-Hwa et al.Surface science. 2006, Vol 600, Num 6, pp 1382-1390, issn 0039-6028, 9 p.Article

Reduction of an azo dye Acid Black 24 solution using synthesized nanoscale zerovalent iron particlesSHU, Hung-Yee; CHANG, Ming-Chin; YU, Hsing-Hung et al.Journal of colloid and interface science. 2007, Vol 314, Num 1, pp 89-97, issn 0021-9797, 9 p.Article

Improving the sustainability of granular iron/pumice systems for water treatmentBILARDI, Stefania; CALABRO, Paolo S; CARE, Sabine et al.Journal of environmental management. 2013, Vol 121, pp 133-141, issn 0301-4797, 9 p.Article

Remediation of Atrazine-contaminated Soil and Water by Nano Zerovalent IronSATAPANAJARU, T; ANURAKPONGSATORN, P; PENGTHAMKEERATI, P et al.Water, air and soil pollution. 2008, Vol 192, Num 1-4, pp 349-359, issn 0049-6979, 11 p.Article

The Suitability of Metallic Iron for Environmental RemediationNOUBACTEP, Chicgoua.Environmental progress & sustainable energy (Print). 2010, Vol 29, Num 3, pp 286-291, issn 1944-7442, 6 p.Article

Degradation of 1-(2-chlorobenzoyl)-3-(4-chlorophenyl) urea by nanoscale zerovalent iron under aerobic and anaerobic conditionsHAIYING UN; SHAOGANG HOU; GUOHONG XIE et al.Journal of environmental science and health. Part A, Toxic/hazardous substances & environmental engineering. 2012, Vol 47, Num 14, pp 2270-2276, issn 1093-4529, 7 p.Article

Dispersion of zerovalent iron nanoparticles onto bentonites and use of these catalysts for orange II decolourisationYUNFEI XI; MEGHARAJ, Mallavarapu; NAIDU, Ravendra et al.Applied clay science. 2011, Vol 53, Num 4, pp 716-722, issn 0169-1317, 7 p.Article

Fe⁰-based trimetallic systems for the removal of aqueous diclofenac: Mechanism and kineticsGHAUCH, Antoine; HALA ABOU ASSI; BAYDOUN, Habib et al.Chemical engineering journal (1996). 2011, Vol 172, Num 2-3, pp 1033-1044, issn 1385-8947, 12 p.Article

Impact of MnO₂ on the efficiency of metallic iron for the removal of dissolved Cr^VI, Cu^II, Mo^VI, Sb^v, U^VI and Zn^IINOUBACTEP, C; BTATKEU, K. B. D; TCHATCHUENG, J. B et al.Chemical engineering journal (1996). 2011, Vol 178, pp 78-84, issn 1385-8947, 7 p.Article

Extending Service Life of Household Water Filters by Mixing Metallic Iron with SandNOUBACTEP, Chicgoua; CARE, Sabine; TOGUE-KAMGA, Fulbert et al.Clean (Weinheim. Print). 2010, Vol 38, Num 10, pp 951-959, issn 1863-0650, 9 p.Article

Comments on Decontamination of solutions containing EDTA using metallic iron by Gyliene O., et al. [J. Hazard. Mater. (2008)]NOUBACTEP, C.Journal of hazardous materials (Print). 2009, Vol 165, Num 1-3, pp 1261-1263, issn 0304-3894, 3 p.Article

Characterizing the reactivity of metallic iron upon methylene blue discoloration in Fe⁰/MnO₂/H₂O systemsNOUBACTEP, C.Journal of hazardous materials (Print). 2009, Vol 168, Num 2-3, pp 1613-1616, issn 0304-3894, 4 p.Article

Testing the suitability of metallic iron for environmental remediation: Discoloration of methylene blue in column studiesBTATKEU K., B. D; MIYAJIMA, K; NOUBACTEP, C et al.Chemical engineering journal (1996). 2013, Vol 215-16, pp 959-968, issn 1385-8947, 10 p.Article

Designing Iron-Amended Biosand Filters for Decentralized Safe Drinking Water ProvisionNOUBACTEP, Chicgoua; TEMGOUA, Emile; RAHMAN, Mohammad A et al.Clean (Weinheim. Print). 2012, Vol 40, Num 8, pp 798-807, issn 1863-0650, 10 p.Article

An analysis of the evolution of reactive species in Fe⁰/H₂O systemsNOUBACTEP, C.Journal of hazardous materials (Print). 2009, Vol 168, Num 2-3, pp 1626-1631, issn 0304-3894, 6 p.Article

Profiling iron corrosion coating on iron grains in a zerovalent iron system under the influence of dissolved oxygenZHANG, Tian C; HUANG, Yong H.Water research (Oxford). 2006, Vol 40, Num 12, pp 2311-2320, issn 0043-1354, 10 p.Article

Removal of trichloroethylene by zerovalent iron/activated carbon derived from agricultural wastesSU, Yuh-Fan; CHENG, Yu-Ling; SHIH, Yang-Hsin et al.Journal of environmental management. 2013, Vol 129, pp 361-366, issn 0301-4797, 6 p.Article

Effects of mixing granular iron with sand on the efficiency of methylene blue discolorationMIYAJIMA, K; NOUBACTEP, C.Chemical engineering journal (1996). 2012, Vol 200-202, pp 433-438, issn 1385-8947, 6 p.Article

Characterizing the reactivity of metallic iron in Fe⁰/U^VI/H₂O systems by long-term column experimentsNOUBACTEP, C.Chemical engineering journal (1996). 2011, Vol 171, Num 2, pp 393-399, issn 1385-8947, 7 p.Article

Nitrate removal from water using iron nanoparticles produced by arc discharge vs. reductionKASSAEE, M. Z; MOTAMEDI, E; MIKHAK, A et al.Chemical engineering journal (1996). 2011, Vol 166, Num 2, pp 490-495, issn 1385-8947, 6 p.Article

Metallic iron for environmental remediation: Learning from electrocoagulationNOUBACTEP, C; SCHÖNER, A.Journal of hazardous materials (Print). 2010, Vol 175, Num 1-3, pp 1075-1080, issn 0304-3894, 6 p.Article

Reductive removal of Cr(VI) by starch-stabilized Fe⁰ nanoparticles in aqueous solutionALIDOKHT, L; KHATAEE, A. R; REYHANITABAR, A et al.Desalination (Amsterdam). 2011, Vol 270, Num 1-3, pp 105-110, issn 0011-9164, 6 p.Article

Surfactant mediated HCB dechlorination in contaminated soils and sediments by micro and nanoscale Cu/Fe ParticlesSONGHU YUAN; ZHONGHUA ZHENG; MENG, Xiang-Zhou et al.Geoderma (Amsterdam). 2010, Vol 159, Num 1-2, pp 165-173, issn 0016-7061, 9 p.Article