Titanium-based Ion Exchanger GFLTS
GFLTS is a green and eco-friendly titanium-based lithium ion exchanger in powder form, featuring a high concentration of lithium metatitanate, a compound with the chemical formula Li2TiO3. GFLTS is specifically designed for lithium extraction, primarily used in the field of lithium extraction from salt lakes and can also be processed into lithium ion exchange materials of other morphologies. It features convenient usage, high efficiency, long cycle life, high selectivity for lithium ions, high concentration of lithium ions in the eluted solution, and low dissolution loss.
Other Name: Lithium titanium oxide;
Other Name: Lithium metatitanate；
Other Name: Lithium titanate
Molecular Formula: Li2TiO3
CAS Number： 12031-82-2
EC Number: 234-759-6
Product Application
- Lithium extraction from various types of salt lake brine
- Lithium recovery from lithium precipitation mother liquor
- Lithium recovery from wastewater in the production of lithium battery materialshigh magnesium lithium ratio brine
- Groundwater with lithium resources
- Wastewater from oil and gas fields with lithium resources
- Lithium recovery from various types of spent lithium batteries
- Technical specifications
- Typical application experimental data
- Application process diagram
- TDS download
| Item | Typical Value |
| TiO2 % | 72.0~74.0 |
| Li % | 11.5~13.0 |
| Volatiles at 105℃, % | ≤ 1.0 |
| pH of a water suspension | 10.0~12.0 |
| D50，μm | 3.0~8.0 |
| Lithium adsorption capacity of mother liquor, mg/g | ≥30.0 |
| Adsorption capacity in 3 hours for carbonate-type brine (Li content 300 mg/L), mg/g | ≥14 |
| Applicable brine pH | 5.0~13.0 |
| Single cycle dissolution rate, % | ≤0.005 |
| Lithium Extraction from Carbonate-Type Brine in Tibet | |||||||
| Liquid Sample | B3+ | Ca2+ | K+ | Li+ | Mg2+ | Na+ | Ti4+ |
| mg/L | mg/L | mg/L | mg/L | mg/L | mg/L | mg/L | |
| Lithium Precipitation Mother Liquor | 658 | 0 | 8522 | 298 | 79 | 45111 | 0 |
| Desorption Solution | 1 | 95 | 421 | 12694 | 284 | 1052 | 0 |
| Solid Sample | B3+ | Ca2+ | K+ | Li+ | Mg2+ | Na+ | |
| ppm | ppm | ppm | ppm | ppm | ppm | ||
| Adsorbent (Initial) | 0 | 22 | 21 | 1036 | 0 | 53 | |
| Adsorbent (After Adsorption) | 6 | 162 | 1107 | 30623 | 756 | 2162 | |
| Adsorbent (After Desorption) | 3 | 35 | 107 | 643 | 87 | 964 | |
| Lithium Extraction from Brine with High Magnesium to Lithium Ratio | |||||||
| Liquid Sample | B3+ | Ca2+ | K+ | Li+ | Mg2+ | Na+ | Ti4+ |
| mg/L | mg/L | mg/L | mg/L | mg/L | mg/L | mg/L | |
| Lithium Precipitation Mother Liquor | 242 | 148 | 4154 | 253 | 86420 | 4934 | 0 |
| Desorption Solution | 8 | 116 | 72 | 10362 | 928 | 106 | 0 |
| Solid Sample | B3+ | Ca2+ | K+ | Li+ | Mg2+ | Na+ | |
| ppm | ppm | ppm | ppm | ppm | ppm | ||
| Adsorbent (Initial) | 0 | 22 | 21 | 1036 | 0 | 53 | |
| Adsorbent (After Adsorption) | 20 | 258 | 137 | 29561 | 1802 | 1335 | |
| Adsorbent (After Desorption) | 3 | 26 | 32 | 785 | 132 | 98 | |
The Future of Lithium Resources: Prospects and Challenges of Titanium-based Lithium Ion Sieve Technology
The rapid evolution of the new energy industry has positioned lithium as a crucial element due to its high energy density, rendering lithium extraction from salt lake brine an essential method for accessing this valuable resource. The global distribution of lithium resources is concentrated in countries like Chile, Argentina, China, and Australia, with significant amounts of lithium found in solid ores and brine sources. Moreover, seawater presents an almost inexhaustible lithium reserve, vastly overshadowing land-based resources. However, the extraction of lithium from these sources faces challenges, particularly in efficiency and environmental impact. The ion sieve adsorption method, especially using titanium-based lithium ion sieves, has emerged as a promising technology for its selective recovery capabilities and environmental friendliness.
Titanium-based lithium ion sieves offer significant advantages, including strong stability and large adsorption capacity. This technology utilizes the unique properties of titanium and lithium to selectively recover lithium from low-concentration liquid phases, presenting a promising avenue for the future of lithium extraction. As the demand for lithium continues to grow, driven by the battery industry and renewable energy sectors, the development of efficient and sustainable extraction methods becomes increasingly important.
Looking ahead, the titanium-based lithium ion sieve technology stands at the forefront of addressing the challenges associated with lithium extraction from brine sources. Its development aligns with the global shift towards green and sustainable energy sources, underscoring the importance of advancing research in this area. By improving the efficiency and environmental footprint of lithium extraction processes, titanium-based lithium ion sieves could play a pivotal role in meeting the rising demand for lithium, fueling the growth of the new energy industry and supporting the transition to a more sustainable energy future.
In summary, the global lithium resource landscape is witnessing a significant shift towards more sustainable and efficient extraction methods, with titanium-based lithium ion sieves emerging as a key technology. Their development not only supports the growing demand for lithium but also contributes to the broader goals of environmental sustainability and energy security, marking a promising direction for the future of lithium extraction and utilization.
#DLE #Lithium Extraction #Water Treatment #Lithium Resource #Ion Exchange