
Differential addition of spodumene to slag

Utilizing spodumene slag as a supplementary cementitious
2024年11月24日 Spodumene slag provides additional nucleation sites for cement hydration Spodumene slag extends initial setting time and reduces fluidity Compressive strength is acceptable up to 20% SPS replacement This study investigates the potential of spodumene The developed composite phase change materials show a muchimproved hightemperature stability, as with the addition of spodumene slag, the peak decomposition temperature of Hightemperature (800 °C) performance of spodumene slagbased The integration of spodumene slag with ternary sulphate presents a green and promising approach to achieve resource recycling and highperformance composite phase change Hightemperature (800 °C) performance of spodumene slagbased 2024年11月1日 Insight to workability, compressive strength and microstructure of lithium slagsteel slag based cement under standard condition Mengya Zhou Jiahao Yan +6 authors Utilizing spodumene slag as a supplementary Semantic Scholar

Novel extraction route of lithium from αspodumene
A differential thermal analysis by both Barbosa et al 39 and Dang et al 36 revealed interesting results in this temperature range during their study on spodumene and simulated slag respectively with CaCl 22023年8月24日 According to the XRD analysis, gehlenite (Ca 2 Al 2 SiO 7) and lithium aluminate (LiAlO 2) constitute the main phases in the LIB recycling slag The major mineral Chlorination Roasting of LiBearing Minerals and Slags: Combined 2016年3月31日 In addition, a modified model was developed successfully to predict the mechanical strength of the asobtained green composites This work provides a new way to fabricate a novel green polymer composite with Recycling of spodumene slag: preparation of green 2024年11月24日 Spodumene slag provides additional nucleation sites for cement hydration Spodumene slag extends initial setting time and reduces fluidity Compressive strength is Utilizing spodumene slag as a supplementary cementitious

Phase Transitions in the α–γ–β Spodumene
2020年6月5日 Results show that metastable γspodumene may hinder the formation of βspodumene at lower heat treatment temperatures Some heattreated samples presented nonnegligible γspodumene content and lithium 2019年7月10日 Heat activation triggered the transformation of leached spodumene to glassy in LS The elevated temperature facilitated the formation of more active constituents The rate A green route to sustainable alkaliactivated materials by heat and Nowadays spodumene ores become an important lithium resource The generated slag, as the new member of slag family, would make the environmental burden mount up Therefore, recycling of spodumene slag was studied in this work, with the objective of exploring the possibility of spodumene slag to be used as a common polymer fillerRecycling of Spodumene Slag: Preparation of Green Polymer 2023年9月10日 Based on the unique crystal structure characteristics of natural spodumene (LiAlSi 2 O 6) with six coordination of Li at the M2 position and monoclinic crystal system, an innovative approach is developed for the simultaneous recovery of Co, Ni, and Cu, while selectively enriching Li into the slagThe slag system was designed and controlled according A novel method for recovering valuable metals from spent lithium

Phase transformation mechanism of spodumene during its
2019年8月15日 Natural spodumene occurs as αphase, the lowtemperature, monoclinic polymorph of LiAlSi 2 O 6 that resists dissolution by most chemical agents (Rosales et al, 2014) In lithium refineries, the thermal treatment of αspodumene at temperatures above 1050 °C (typically around 1080 °C) transforms it into the more reactive βphase that affords ion 2024年11月24日 The leachable Mn and Cr concentrations in SPS are much lower than other slags such as electricfurnace ferronickel slag, copper slag, and manganese slag [42], [58], [59] According to a Chinese national standard GB 508532007 (Identification standards for hazardous wasteidentification for extraction toxicity), the leaching limit for Cr at the pH of 32 is 15 ppmUtilizing spodumene slag as a supplementary cementitious 2012年5月1日 In addition, zeolite X was successfully synthesized from spodumene leachate residue (Lislag) after adjusting the initial Si/Al ratio to 2/1 using a hydrothermal process assisted by alkaline Synthesis and characterization of zeolite X from lithium slag2020年9月30日 This review adds to the public domain literature on the extraction of lithium from mineral ores The focus is on the pyrometallurgical pretreatment of spodumene(PDF) Literature Review and Thermodynamic Modelling of

A green route to sustainable alkaliactivated materials by heat
2019年7月10日 Lithium slag from Tianqi Lithium (Sichuan, China) was discharged after sulfation processing spodumene In addition to the bulk of SiO 2 and Al 2 O 3, the added sulfuric acid resultted in relatively higher content of sulfate, as Table 1 and Fig 2 shown The particles size diameters of leached residue are too high to utilize directly2023年6月25日 In addition, most investigations have focused on βspodumene instead of αspodumene, whereas the extra energy consumption is caused inevitably by hightemperature crystal transformation (αphase to βphase)Thus, some researchers directly choose αspodumene as the object of studyXing et al [33] successfully achieved the extraction of An effective method for directly extracting lithium from αspodumene 2023年2月1日 However, chemisorption plays a role, in addition to electrostatic attraction, in the case of the spodumene surface, explaining why the differential recovery is higher Similarly, another mixed collector, prepared by mixing hexyloxypropylamine (HPA) and NDodecyliminodiacetic acid (DIDA) at a mass ratio of 1:3, further increased the difference in the Recovery of lithium from spodumenebearing pegmatites: A 2023年8月24日 Lithium was recovered from both Libearing minerals (kunzite, hiddenite, and lepidolite) and Libearing slags, using a chlorination roasting process at 1100 °C under an argon atmosphere According to the XRD analysis, gehlenite (Ca2Al2SiO7) and lithium aluminate (LiAlO2) constitute the main phases in the LIB recycling slag The major mineral phases Chlorination Roasting of LiBearing Minerals and Slags: Combined

Recycling of spodumene slag: preparation of green polymer
Nowadays, spodumene ores have become an important lithium resource The generated slag, as a new member of the slag family, would cause the environmental burden to mount up Therefore, the recycling of spodumene slag was studied in this work, with the objective of exploring the possibility of using spodumene slag as a common polymer filler2015年4月10日 A differential thermal analysis by both Barbosa et al 39 and Dang et al 36 revealed interesting results in this temperature range during their study on spodumene and simulated slag respectively Extraction of lithium from βspodumene using chlorination Spodumene concentrates, which contain the dense and unreactive polymorph of αspodumene, are conventionally processed by decrepitation at around 1100 • C to obtain βspodumene (Abdullah et al The chemical compositions of spodumene concentrate2017年3月9日 where coefficients \(a1,\ a2,\ a3,\ a4\) and \(a6\) are in \(\mathbb {F}\)There are many other ways to represent elliptic curves such as Legendre equation, cubic equations, quartic equations and intersection of two quadratic surfaces []The use of elliptic curves over finite fields based on their finite groups in cryptography (ECC) was independently proposed in the Differential Addition on Binary Elliptic Curves SpringerLink

Preparation of acidresistance glass and glassceramic using copper slag
2004年5月1日 The preparation and crystallization behavior of steel slagderived glassceramics were investigated using differential thermal analysis (DTA), physical and mechanical properties, Xray diffraction 2019年8月15日 Natural spodumene occurs as αphase, the lowtemperature, monoclinic polymorph of LiAlSi 2 O 6 that resists dissolution by most chemical agents (Rosales et al, 2014)In lithium refineries, the thermal treatment of αspodumene at temperatures above 1050 °C (typically around 1080 °C) transforms it into the more reactive βphase that affords ion Phase transformation mechanism of spodumene during its 2020年6月17日 Lithium slag (LS) from lithium mica is the fastest growing solid waste in the Jiangxi Province of China in recent years, and a suitable utilization method has not been found In this paper, the effects of LS on the physical and mechanical properties of white reactive powder concrete (WRPC) were investigated The microstructure of the WRPC with LS was studied by Recycling of lithium slag as a green admixture for white reactive Download scientific diagram Composition of Lirich slag and spodumene concentrate [5963] from publication: Industrial Recycling of LithiumIon Batteries A Critical Review of Metallurgical Composition of Lirich slag and spodumene concentrate [5963]

Comprehensive utilization of spodumene ore through
spodumene ore while also extracting lithium (Li) The high valueadded sputum heat reduction process of spodumene ore was proposed Fe 2O 3 was used as an auxiliary agent Si is combined with Fe to form SiFe alloy and Al is enriched in the slag The experimental results showed that the addition of Fe 2ODownload Citation On Nov 1, 2024, Yahui Chen and others published Hightemperature (800 °C) performance of spodumene slagbased ternary sulphate composite phase change materials with improved Hightemperature (800 °C) performance of spodumene slag 2019年12月18日 Taking spodumene concentrate with 6% Li 2 O content as an example, for every ton of lithium carbonate (Li 2 CO 3 ) that is produced, 810 tons of hazardous waste slag and 69 tons of highsalt Production of Lithium –A Literature Review Part 22023年6月27日 Due to the refractory nature of αspodumene (LiAlSi2O6) and petalite (LiAlSi4O10), two major lithium minerals, conventional lithium recovery processes involve a hightemperature pretreatment (>1000 °C) to induce a AlkaliInduced Phase Transition to βSpodumene

TwoStep Reaction Mechanism of Roasting Spodumene with
2021年3月3日 There are minor changes for the band 1085 cm −1 which is shouldering for the βspodumene phase The reason that leucite was selected for comparison in Figure S1, apart from being very similar 2023年7月26日 The carbothermal reduction process of spodumene ore effectively separates Al and Si components from spodumene ore while also extracting lithium (Li) The high valueadded sputum heat reduction process of spodumene ore was proposed Fe2O3 was used as an auxiliary agent Si is combined with Fe to form SiFe alloy and Al is enriched in the slag The Comprehensive utilization of spodumene ore through 2021年6月21日 Zeta potential of spodumene tailings with the presence of KCl (salt) in deionized water and without flocculant Salt concentrations 0001, 001, 01 and 05 M(PDF) Effect of the Addition of Flocculants and KCl on 2019年8月1日 This contribution provides a detailed insitu account of transformation reactions during calcination of a typical highgrade αspodumene (αLiAlSi2O6) concentrate, a pretreatment step required Phase transformation mechanism of spodumene during its

Effect of Lithium Slag Application on Salinendash;Alkali Soil
2024年4月19日 Increased attention has been attracted to saline–alkali soil amelioration due to the growing serious salinization of soils in the world Lithium slag (LS) is an acid byproduct of lithium production with potential properties to ameliorate alkalinity in saline–alkali soils In this study, LS was reused as a saline–alkali soil amendment and potted plant experiments in a 2014年1月1日 PDF Lithium aluminosilicates, such as spodumene, have been used as raw materials in the production of thermal shock resistant whiteware and Find, read and cite all the research you need on (PDF) Effect of spodumene addition on pyroplastic deformation 2022年5月5日 This work explored the use of spodumene flotation tailings (SFT) as an aggregate used in cement mortar to mitigate their environmental impact The principal phase compositions of SFT were quartz (Qtz), feldspar (Fsp) and muscovite (Ms) So, the effects of variations in the particle size of Qtz, and mineral additives, Ms and Fsp, on the compressive strength and Effects of spodumene flotation tailings as aggregates on 2020年8月15日 The chemical composition of copper slag, spodumene tailings and kaolin, determined by Xray fluorescence is presented in Table 1 The asreceived copper slag, with an average median particle diameter (d 50) So, it could be deduced that kaolin addition was not beneficial for strength development in the studied temperature rangeReuse of copper slag in highstrength building ceramics containing

(PDF) Phase Transitions in the α–γ–β Spodumene
2020年6月5日 PDF Heattreatment of spodumene concentrate at 1323 K (1050 °C) for 30 min in a rotary kiln yielded a successful decrepitation Particle size Hightemperature (800 °C) performance of spodumene slagbased ternary sulphate composite phase change materials with improved mechanical property Author links open overlay panel Yahui Chen a, Ruixing Quan a, as with the addition of spodumene slag, the peak decomposition temperature of composite phase change material is delayed 500 °C, Hightemperature (800 °C) performance of spodumene slag 2024年6月12日 The nonmetallic minerals industry is the thirdlargest industrial energy consumer, and it constitutes around 7% of global CO2 emissions due to the high energy intensity of production processesProperties of low sulfur leached spodumene as supplementary 2023年3月16日 A large amount of mineralgenerated lithium slag will be produced after extracting lithium from spodumene However, most lithium slag has not been well utilized(PDF) Effect of MineralGenerated Lithium Slag on the Properties

Transformations of Critical Lithium Ores to BatteryGrade MDPI
2024年10月28日 The escalating demand for lithium has intensified the need to process critical lithium ores into batterygrade materials efficiently This review paper overviews the transformation processes and cost of converting critical lithium ores, primarily spodumene and brine, into highpurity batterygrade precursors We systematically examine the study findings A differential thermal analysis by both Barbosa et al 39 and Dang et al 36 revealed interesting results in this temperature range during their study on spodumene and simulated slag respectively with CaCl 2They both observed two endothermic peaks within this range where the low and high temperature peaks were linked to the commencement of reaction and the melting of CaCl 2 Novel extraction route of lithium from αspodumene by dry 2024年2月3日 Mechanochemical approaches are one of the most promising alternative lithium extraction processes Milling αspodumene in a planetarystyle mill for only 30 min drastically reduces the particle size, increases surface area, destroys crystallinity, and cleaves OM (M = Li, Al, and Si) bonds [19, 20]Further, employing a conventional sulfuricacid roasting after Mechanochemical Extraction of Lithium from αSpodumene at 2024年9月30日 Lithium (Li), a leading cathode material in rechargeable Liion batteries, is vital to modern energy storage technology, establishing it as one of the most impactful and strategical elements Given the surge in the electric car market, it is crucial to improve lithium recovery from its rich mineral deposits using the most effective extraction technique In recent years, both Aspects of Spodumene Lithium Extraction Techniques MDPI

Selective and efficient extraction of lithium from spodumene via
2024年4月5日 αspodumene, a monoclinic aluminum silicate mineral, possesses a dense structure and exhibits minimal reactivity with acids or bases, except for hydrofluoric acid The crystal structure of αspodumene (Fig 3 (a)) primarily consists of [SiO 4] tetrahedra and [AlO 6] octahedra oriented perpendicular to the caxis (Abdullah et al, 2019)2024年7月1日 The lithium slag selected for this study mainly consists of spodumene, quartz, and calcium carbonate As mentioned earlier, spodumene exhibits a layered zeolitelike structure similar to βLiAlSi 2 O 6, with exchangeable cations such as Li +, Na +, and K + This gives spodumene excellent ion exchange and molecular sieving propertiesPreparation of geopolymers from thermally activated lithium slag