portable iron ore system sand production line in ulsan city

iron ore by fastlane production (pty) ltd. supplier from south africa. product id 1118284

IRON ORE is suitable for tubular high resistance water distribution systems. In the three-layer filter, it is usually matched with anthracite filter material and quartz sand filter material. It is a good batching program, and has good adaptability to the improved filter layer and water distribution system. It is an indispensable filter for the multi-layer filter material. It has the advantage of a filtration rate of 30-40 m / h. Therefore, magnetite filter material is an important filter material. Common Size: 0.25~0.5mm 0.5~1.0mm 1.0~2.0mm 2.0~4.0mm 4.0~8.0mm 8.0~16.0mm 16.0~32.0mm

Iron ore with Fe Content 45-50% (on delivery terms of FOB Black Sea) Iron ore with Fe Content 55-59% (on delivery terms of FOB Black Sea) Test report of iron-containing raw materials No.1: Fe total - 46,21%, Fe2O3 - 65,2%, SiO2 - 31,98%, Al2O3 - 0,92%, P - 0,043%, FeO - 0,77%, CaO - 0,14%, MgO - 0,21%, TiO2 - 0,033%, MnO - 0,009%, S - 0,027%, Insoluble residue - 0,93%. No.2: Fe total - 50,56 %, Fe2O3 - 71,28%, SiO2 - 25,6%, Al2O3 - 1,05%, P - 0,039%, FeO - 0,90%, CaO - 0,17%, MgO - 0,14%, , TiO2 - 0,038%, MnO - 0,016%, S - 0,025%, Insoluble residue - 0,98%. No.3: Fe total - 55,49 %, Fe2O3 - 78,33%, SiO2 - 18,98%, Al2O3 - 0,80%, P - 0,045%, FeO - 0,90%, CaO - 0,13%, MgO - 0,21%, , TiO2 - 0,030%, MnO - 0,013%, S - 0,012%, Insoluble residue - 0,82%. No.4: Fe total - 59,84 %, Fe2O3 - 84,83%, SiO2 - 12,96%, Al2O3 - 0,65%, P - 0,055%, FeO - 0,64%, CaO - 0,11%, MgO - 0,17%, , TiO2 - 0,029%, MnO - 0,011%, S - 0,009%, Insoluble residue - 0,76%. Note: the chemical composition is given for reference and is not defective, with the exception of iron and is given for information.Iron ore from Ukraine with Fe content 59%. Fe total - 59,54%, Fe2O3 - 84,33%, SiO2 - 12,9%, Al2O3 - 1,01%, P - 0,012%, FeO - 0,71%, CaO - 0,14%, MgO - 0,22%, TiO2 - 0,035%, MnO - 0,025%, S - 0,01%, insoluble residue - 0,87%. Iron ore from Ukraine with Fe content 57%. Fe total - 57,3%, Fe2O3 - 79,9%, SiO2 - 15,0%, Al2O3 - 1,34%, P - 0,027%, FeO - 1,81%, CaO - 0,17%, MgO - 0,27%, TiO2 - 0,056%, MnO - 0,037%, S - 0,013%, insoluble residue - 1,81%. Note: the chemical composition is given for reference and is not defective, with the exception of iron and is given for information.

Iron Ore 62% -63% Fines and Lump >=10000 Metric Tons US$ 90.00 Lead Time : Quantity(Metric Tons) 1 - 50000 >500000 Est. Time(days) 30 Negotiable

source and remediation for heavy metals of soils at an iron mine of ulsan city, korea | springerlink

Ulsan mine produced the iron ore minerals of magnetite, arsenopyrite, and scheelite in 1992, and serpentine was developed from 1977 to 2002. The soils of the mine were contaminated by heavy metals such as As, Zn, Ni, and Cd. Heavy metals of Ni and Zn came mostly from serpentinite, and As was derived mainly from arsenopyrite in the scan-type iron ore body. As, Zn, and Ni were major contaminants, but Cd was a minor contaminant on a basis of Korean standard. The heavy metals in the deep depth (>5m) came from the host rocks, and those in the shallow depth (<5m) were derived from the organicmineral complexation soil. The remediation plan was a soil washing for highly contaminated soils and the containment of clay materials for less contaminated soils. Even though the remediation methods were successful, the continuous monitoring and the analysis of monitoring data are still necessary for the conservation of soil and groundwater around the study area.

Gagnon C, Turcotte P, Vigneault B (2009) Comparative study of the fate and mobility of heavy metals discharged in mining and urban effluents using sequential extractions on suspended solids. Environ Geochem Health 31:657671

Godbold DL, Httermann A (1985) Effect of zinc, cadmium and mercury on root elongation of Picea abies (Karst.) seedlings, and the significance of these heavy metals to forest die-back. Environ Pollut Ser A Ecol Biol 38:375381

Hu B, Jia X, Hu J, Xu D, Xia F, Li Y (2017) Assessment of heavy metal pollution and health risks in the soil-plant-human system in the Yangtze River Delta, China. Int J Environ Res Public Health 14(9):1042

Kim SW, Chae Y, Moon J, Kim D, Cui R, An G, Jeong SW, An YJ (2017) In situ evaluation of crop productivity and bioaccumulation of heavy metals in paddy soils after remediation of metal-contaminated soils. J Agric Food Chem 65(6):12391246

Maia F, Pinto C, Waerenborgh J, Gonalves M, Prazeres C, Carreira O, Srio S (2012) Heavy metal partitioning in sediments andmineralogical controls on the acid mine drainage in Ribeira DA gua Forte (Aljustrel, Iberian Pyrite Belt, Southern Portugal). Appl Geochem 27:0631080

Martinez-Martinez S, Acosta JA, Faz Cano A, Carmona DM, Zornoza R, Cerda C (2013) Assessment of the lead and zinc contents in natural soils and tailing ponds from the Cartagena-La Unin mining district, SE Spain. J Geochem Explor 124:166175

Morton-Bermea O, Hernandez-Alvarez E, Gonzalez-Hernandez G, Romero F, Lozano R, Beramendi-Orosco LE (2009) Assessment of heavy metal pollution in urban topsoils from the metropolitan area of Mexico city. J Geochem Explor 101:218224

Valente T, Grande JA, De la Torre ML, Gomes P, Santisteban M, Borrego J, Sequeria Braga MA (2015) Mineralogy and geochemistry of a clogged mining reservoir affected by historical acid mine drainage in an abandoned mining area. J Geochem Explor 157:6676

Venkatramanan S, Chung SY, Rajesh R, Lee SY, Ramkumar T, Prasanna MV (2015) Comprehensive studies of hydrogeochemical processes and quality status of groundwater with tools of cluster, grouping analysis, and fuzzy set method using GIS platform: a case study of Dalcheon in Ulsan City, Korea. Environ Sci Pollut Res 22:1120911223

Wahsha M, Bini C, Fontana S, Wahsha A, Zilioli D (2012) Toxicity assessment of contaminated soils from a mining area in Northeast Italy by using the lipid peroxidation assay. J Geochem Explor 113:112117

Wuana R, Okieimen F (2011) Heavy metals in contamination soils: a review of sources, chemistry, risks and best available strategies for remediation. ISRN Ecology 2011:120. https://doi.org/10.5402/2011/402647

Chung, S.Y., Senapathi, V., Park, K.H. et al. Source and remediation for heavy metals of soils at an iron mine of Ulsan City, Korea. Arab J Geosci 11, 769 (2018). https://doi.org/10.1007/s12517-018-4141-y