LEADER 03814nam  2200925z- 450 
001 9910404079803321
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010   $a3-03928-940-3
035   $a(CKB)4100000011302340
035   $a(oapen)https://directory.doabooks.org/handle/20.500.12854/40297
035   $a(EXLCZ)994100000011302340
100   $a20202102d2020      |y             0
101 0 $aeng
135   $aurmn|---annan
181   $ctxt$2rdacontent
182   $cc$2rdamedia
183   $acr$2rdacarrier
200 10$aAdvances in Hydrometallurgy
210   $cMDPI - Multidisciplinary Digital Publishing Institute$d2020
215   $a1 electronic resource (188 p.)
311   $a3-03928-939-X 
330   $aThe development of new technologies and the increasing demand for mineral resources from emerging countries are responsible for significant tensions in the pricing of non-ferrous metals. Some metals have become strategic and critical because they are used in many technological applications such as flat panel TVs (indium), solar panel cells (indium), lithium-ion batteries for electric vehicles (lithium, cobalt), magnets (rare earth elements, such as neodymium and dysprosium), scintillators (rare earths), and aviation and medical applications (titanium); their availabilities remain limited. The secured supply of these metals is crucial to continue producing and exporting these technologies, and because the specific properties of these metals make them essential and difficult to substitute for a given industrial application. Hydrometallurgy have the advantages of being able to process low-grade ores, to allow better control of co-products, and have a lower environmental impact providing that the hydrometallurgical route is optimized and cheap. The need to develop sustainable, efficient, and cheap processes to extract metals from complex and poor polymetallic matrices is real. The aim of this book was to highlight recent advances related to hydrometallurgy to face new challenges in metal production.
610   $agold recovery
610   $ametal extraction
610   $asecondary raw materials
610   $adegradation
610   $aprecipitation
610   $ayttrium
610   $aseparation
610   $aseawater
610   $achloride
610   $achalcopyrite
610   $ametal recovery
610   $aelectrochemistry
610   $asolvent extraction
610   $arare-earth elements
610   $acuprite
610   $ascandium
610   $aleaching
610   $asurface product
610   $asolid-liquid extraction
610   $aphosphoric acid
610   $aintermediate
610   $aionic liquids
610   $amercury ions
610   $achromium(VI)
610   $acompetitive adsorption
610   $avoltammetry
610   $atitanium
610   $aliquid-liquid extraction
610   $aWEEE
610   $avalue chain
610   $afayalite
610   $agold cyanidation
610   $areusability
610   $arecovery
610   $aplatinum group metals
610   $arefining
610   $atri-n-octylamine
610   $ared mud
610   $aelectroleaching
610   $aAlamineŽ 336
610   $aindium
610   $aintensification behavior
610   $abase metal production
610   $abauxite residue
610   $ahydrometallurgy
610   $astructure
610   $anickel iron oxide
610   $apregnant thiosulfate solutions
610   $aresin adsorption technique
610   $aion exchange resin
610   $aelectrodeposition
610   $aback-extraction
610   $aeluent
700   $aChagnes$b Alexandre$4auth$01323726
906   $aBOOK
912   $a9910404079803321
996   $aAdvances in Hydrometallurgy$93035778
997   $aUNINA