Artificial graphite anode material are mainly made from high quality low sulphur content petroleum coke
To boost TiO₂ recovery by 15% in saline water during the flotation of ilmenite, various advanced collectors have been researched and developed in recent years. While specific performance depends on the mineralogical composition of the ore and water chemistry, collectors such as fatty acids and their derivatives (e.g., oleic acid and modified fatty acids), amine-based collectors, and sulfonate or sulfate-based collectors have shown promise in saline water applications.
Modified Fatty Acids and Vegetable Oil-Derived Collectors: These are commonly used for ilmenite due to their strong affinity for titanium minerals. Modifications aim to enhance selectivity and flotation performance in high-salinity environments.
Hydroxamic Acids: These are highly effective collectors for ilmenite, especially in challenging conditions such as saline water. Their performance can result in significant improvements in TiO₂ recovery and grade.
Cationic Collectors (Amines): Certain cationic collectors can function effectively in saline water due to their reduced sensitivity to the presence of electrolytes.
Sulfonated Collectors: Some sulfonate/sulfate-based surfactants have demonstrated promising TiO₂ recovery rates in saline water conditions, thanks to their ability to adsorb selectively on the mineral surface.
Composite or Synergistic Collectors: The combination of hydroxamic acids with fatty acids or other reagents has been found to synergistically enhance TiO₂ recovery by improving selectivity and flotation performance, particularly under saline conditions.
The presence of salts in saline water can alter the surface chemistry of minerals and reaction mechanisms of collectors, making conventional reagents less effective. Advanced collectors tailored to saline environments are designed to maintain superior adsorption and stability under high ionic strength conditions.
To validate the effectiveness of specific collectors that claim to achieve a 15% boost in TiO₂ recovery, detailed lab-scale and pilot-scale testing are necessary, preferably in conditions mimicking the specific ore and water composition of your operation.
A: Mineral characteristics vary significantly even within the same ore body. A professional test (such as chemical analysis, XRD, and SEM) ensures the flowchart is optimized for your specific ore grade and liberation size. This prevents costly equipment mismatches and guarantees the highest possible recovery rates for your project.
A: We maintain a permanent stock of core wear parts (such as crusher liners, screen meshes, and grinding media). For international clients, we provide a recommended “2-year spare parts list” with the initial purchase. Technical support is available 24/7 via remote video, and site visits can be arranged for complex maintenance needs.
A: Yes. We send a team of senior mechanical and electrical engineers to the site to oversee the installation, commissioning, and load testing of the equipment. We also provide comprehensive on-site training for your local operators to ensure smooth long-term operation.
A: Absolutely. We specialize in providing EPCM (Engineering, Procurement, Construction Management) services. This includes everything from initial ore testing and mine design to equipment manufacturing, logistics, and full-scale plant integration, ensuring a seamless transition from greenfield to production.
Artificial graphite anode material are mainly made from high quality low sulphur content petroleum coke
Hard carbon anode material is the most preferred materials for commercialization of sodium-ion battery
We can provide direct lithium extraction (DLE) solution to recover the lithium from salt lake brine
Raw Ore: Siliceous-Phosphate with Magnetite Inclusions Feed Composition: P₂O₅: 19-23%；Fe₂O₃: 8-12%；SiO₂: 25-35%；CaO: 32-38%
Project Objective: To determine the optimal processing flowsheet and provide scale-up data for a full-scale plant.
Located in Guinea, this large-scale project features a processing capacity of 15,000 TPD (Tons Per Day).
Raw Ore: Primary Sulfide Ore (Chalcopyrite-Bornite) Cu Grade: 0.72% Concentrate Grade: 28.3%
Raw Ore: Porphyry Gold-Copper Ore Gold Grade: 0.8-1.5 g/t Copper Grade: 0.6-0.9%
Raw Material: Gold mine tailings slurry from CIL plant Tailings Solids Content: 35-40% Final Stacking Density: 1.6-1.8 t/m³
Raw Material: Fluorite Ore (CaF₂) Fluorspar Grade: 35% CaF₂ Concentrate Grade: 97% CaF₂
Raw Ore: Alluvial Gold with Magnetite & Hematite (Typical Sierra Madre Deposit)
Jaw Crusher, its opening size determines its max feeding size. The crushing chamber of a jaw crusher
Include: Monocrystalline Batch Texturing Equipment, Batch Texturing Loader/Unloader, Low-Pressure…
Prominer can provide press filter, belt vacuum filter, disk vacuum filter and ceramic filter
We can design and manufacture grate type ball mill for mineral primary grinding
We can provide different type graphitization furnace for changing carbon material
We can provide the solution of belt conveyors for different purposes include steeply inclined belt conveyor
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3000 TPD Gold Flotation Project in Shandong Province
2500TPD Lithium Ore Flotation in Sichuan
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