Chemical
The chemical magic of rare earth elements:
Due to their unique electron shell structures and Lewis acidity, rare earth elements play an irreplaceable role in the field of chemistry and chemical engineering. The full range of compounds provided by DeepCeLaTM, including rare earth oxides, chlorides, phosphates, etc., can significantly enhance the efficiency of catalytic reactions, optimize material properties, and promote the innovation of green chemical technologies. These compounds are widely applied in core fields such as petrochemical engineering, polymer synthesis, environmental protection and governance, and fine chemicals.
Rare earth compounds: The “cornerstone of efficient catalysts and functional materials” in the chemical industry – DeepCeLaTM drives the upgrading of green chemical engineering and high-end materials.
The application of DeepCeLaTM core products in the chemical industry:
Rare Earth Oxide
- Lanthanum Oxide (La₂O₃) : Petroleum cracking catalyst: Enhances the yield of light oil, reduces coke formation, and is used in fluidized catalytic cracking (FCC) units; Automobile exhaust purification: As an oxygen storage material for three-way catalysts, it efficiently converts harmful gases such as CO and NOx.
- Cerium oxide (CeO₂) : Photocatalytic material: It can degrade organic pollutants in industrial wastewater (such as phenol and dyes), with a mineralization rate of over 95%.
Rare Earth Chloride
- Polyolefin catalyst additives: Enhance the uniformity of molecular weight distribution of polyethylene/polypropylene and optimize mechanical properties.
- Pharmaceutical intermediate synthesis: Catalyze the activation reaction of C-H bonds to simplify the synthesis steps of drugs.
Rare Earth Fluoride
- Lanthanum fluoride (LaF₃) : Solid superacid catalyst: It can replace liquid sulfuric acid in esterification reactions, reducing equipment corrosion and wastewater discharge.
Rare Earth phosphate
- Cerium Phosphate (CePO₄) : Flame-retardant material: As a polymer additive, it enhances the UL94 flame-retardant grade of the material through a catalytic carbonization mechanism.
Rare Earth Nitrate
- Oxidation reaction catalyst: Used in the production of adipic acid, it replaces the traditional nitric acid process and reduces the emission of N₂O greenhouse gas.
Rare Earth Sulfate
- Wastewater phosphorus remover: Efficiently adsorbs phosphate in industrial wastewater and simultaneously removes heavy metal ions (such as arsenic and cadmium).
Rare Earth Carbonates
- Lanthanum Carbonate (La₂(CO₃)₃): PVC heat stabilizer: Replaces lead salt stabilizers to achieve non-toxic and environmentally friendly plastic processing.
Rare Earth Citrate
- Cerium Citrate (CeC₆H₅O₇) : Homogeneous catalytic system: used in asymmetric synthesis reactions to enhance the optical purity of chiral drugs.
Future Trend: Rare Earths Empower High-end Chemical Materials
- Construction of MOF materials: Utilizing the high coordination number of rare earth ions, porous adsorption materials are designed for CO₂ capture;
- Bio-based chemical synthesis: Lanthanide catalysts catalyze the conversion of cellulose to ethylene glycol, replacing the petroleum-based route;
- Electronic chemicals: Ultra-high purity gadolinium oxide (Gd₂O₃) is used in the formulation of semiconductor etching solutions.
Our Services
From basic chemicals to cutting-edge materials, rare earth compounds have always been the core driving force for technological breakthroughs. Relying on its full industrial chain R&D capabilities and customized service network, DeepCeLaTM provides chemical enterprises with full-cycle solutions from laboratory to industrial scale-up, helping customers achieve efficient, clean and sustainable industrial upgrading
Our Advantage
The Xiamen Rare Earth Science and Technology Innovation Center and the Baotou Rare Earth High-tech Zone Industrial Base have established a three-level system of “basic research (Xiamen) – engineering transformation (pilot platform) – large-scale manufacturing (Baotou)”, reducing the technology transformation cycle by 40%.
Agile development mechanism and modular product library: Based on the three major platforms of nano-rare earth oxides, high-purity compounds, and functionalized salts, over 100 derivative materials can be quickly combined, covering special crystal form control (such as cubic cerium oxide), surface functional modification, and other requirements. Value-added service extension: Provide application simulation testing (such as catalytic performance prediction), competitive product benchmarking analysis, and patent layout consultation to help customers reduce trial-and-error costs
Led by top experts: The chief scientist is the project leader of the Xiamen Rare Earth Materials Research Center of the Chinese Academy of Sciences. The core members include experts from various fields such as materials science, biomedicine, new energy materials, and ecological environment. DeepCeLa “is not just a material supplier; it is also an innovation partner in the industry.”
Advanced production techniques and compliance with the ISO 9001 quality control system provide customers with more competitive products and solutions. The products comply with the EU REACH and ROHS regulations and are sold both at home and abroad.
Products
Gathering top researchers in rare earth industry, we provide customized services for the production of nano and high-purity rare earths, and complete a rapid response from development and research to mass production.
We have collaborated with DeepCeLa to develop new catalytic materials, whose innovation capabilities far exceed expectations. Whether it is a small batch of experimental-grade samples or joint patent applications, they all demonstrate the vision and responsibility of top international brands.
DeepCeLa, relying on a national-level scientific research team and an intelligent production base, focuses on the research and development, production and global supply of nano-rare earth oxides, high-purity rare earth oxides, rare earth compounds and customized rare earth materials, and is committed to providing core material solutions for the following industries: New energy, biomedicine, photoelectric technology, chemical, ceramics and glass, ecological, agriculture, and metal.