Explore our primary selection of research-grade and commercial ton-scale Metal-Organic Framework (MOF) powders manufactured under stringent ISO 9001 quality controls.
Metal-Organic Frameworks (MOFs) have evolved rapidly from academic novelties into industrial-grade workhorses. Among the vast library of reticular chemistry constructs, MOF-808—a zirconium-based framework comprising [Zr6O4(OH)4]6+ secondary building units (SBUs) linked by 1,3,5-benzenetricarboxylate (BTC) ligands—stands out due to its exceptional hydrothermal stability, ultra-high porosity, and accessible Lewis acid sites.
The commercial designation MOF-808dns represents a specialized, defect-engineered variant (defect-engineered, desolvated nano-structured framework). By precisely controlling missing-linker defects during large-scale synthesis, MOF-808dns exposes an unprecedented density of coordinatively unsaturated Zr(IV) centers within its tetrahedral and octahedral cages. This structural alteration dramatically boosts its reactivity as a heterogeneous catalyst and its performance as an selective adsorbent for environmental contaminants and toxic chemical agents.
Standard stoichiometric MOF-808 features six formate ligands coordinating each Zr6 cluster. Through specialized green-chemistry pathways, MOF-808dns selectively replaces these blocking monocarboxylate ligands with terminal water/hydroxyl groups. This exposes open metal sites without collapsing the framework architecture, delivering a 3.4x increase in catalytic turnover frequency (TOF) for organophosphate hydrolysis compared to conventional pristine MOF-808 powder.
On a global scale, chemical enterprises, environmental engineering firms, and advanced defense suppliers are transitioning from pilot-scale evaluation to bulk integration of MOF-808dns. As leading suppliers and exporters based in China's advanced materials manufacturing hubs, we bridge the gap between high-cost laboratory synthesis and affordable, ton-scale industrial delivery.
Understanding the core crystallographic properties of MOF-808dns is vital for chemical process engineers designing fixed-bed reactors, packed-column adsorbers, or continuous-flow catalytic units.
| Physicochemical Parameter | Standard MOF-808 | Defect-Engineered MOF-808dns (Industrial Grade) |
|---|---|---|
| Empirical Formula | Zr6O4(OH)4(BTC)2(HCOO)6 | Zr6O4(OH)8(BTC)2(H2O)6 (Defect Optimized) |
| Crystallographic Topology | spn net (Fd-3m space group) | spn net with modulated defect sites |
| Pore Window Diameters | 4.8 Å (Tetrahedral), 18.4 Å (Internal Cage) | 5.2 Å (Tetrahedral), 19.1 Å (Expanded Cage) |
| Specific Surface Area (BET) | ~1,300 - 1,450 m²/g | 1,600 - 1,850 m²/g |
| Pore Volume | 0.72 cm³/g | 0.91 cm³/g |
| Lewis Acid Site Density | 1.2 mmol/g | 3.8 mmol/g |
| Hydrothermal Stability | Stable in boiling water (24h) | Enhanced stability across pH 1 to 11 solutions |
Historically, Zirconium MOFs suffered from commercial viability issues due to prolonged solvothermal reaction times, heavy reliance on hazardous N,N-dimethylformamide (DMF), and low space-time-yields (STY). Our factory has pioneered continuous-flow microfluidic synthesis coupled with green solvent recycling loops. This breakthrough achieves:
Eliminating high-volume organic solvent waste reduces synthesis expenditure, enabling competitive wholesale pricing for global procurement teams.
Automated microfluidic crystal nucleation yields narrow particle size distributions (PSD) centered at 200 nm to 2 µm depending on end-user specifications.
Aqueous activation protocols eliminate toxic residual DMF trapped inside micropores, ensuring safety for medical, pharmaceutical, and water-contact applications.
Due to its unique structural properties, MOF-808dns is actively being adopted across multiple high-tech industries globally.
Military defense labs and hazardous material response teams utilize MOF-808dns for the rapid hydrolytic cleavage of nerve agents (such as Soman GD, VX, and G-series analogues) and pesticide organophosphates. The open Zr-OH sites hydrolyze P-F and P-S bonds within seconds under ambient conditions without requiring caustic additives.
Environmental engineering installations across Europe and North America are battling "forever chemicals" (PFAS, PFOA, PFOS). MOF-808dns exhibits electrostatic interaction and coordination bonding with perfluoroalkyl substances, removing trace concentrations down to parts-per-trillion (ppt) levels.
In modern bio-refineries, MOF-808dns acts as a solid heterogeneous acid catalyst for converting biomass-derived sugars into high-value platform chemicals (such as 5-hydroxymethylfurfural (HMF) and levulinic acid). Its large pore windows mitigate mass-transfer limitations encountered with traditional zeolites.
As regulatory frameworks like REACH in Europe and US EPA regulations tighten environmental discharge standards, conventional sorbents (activated carbon, alumina, traditional zeolites) struggle to meet target efficiency metrics. MOF-808dns serves as a drop-in upgrade material for next-generation environmental and chemical plant architectures.
Overcoming fine powder handling issues by commercializing binderless 1-3mm pellets and honeycomb monoliths engineered for minimal pressure drop in high-flow gas beds.
Embedding nanofibrous MOF-808dns into polymeric backbones (polyimides, polysulfones) for continuous industrial gas separation, targeting CO2/CH4 and olefin/paraffin streams.
Integrating automated robotic synthesis and high-throughput screening to tailor single-atom active sites on MOF-808dns nodes for specialized pharmaceutical catalysts.
Get immediate technical and commercial answers regarding MOF-808dns procurement, sample requests, handling, and quality assurance.
In addition to MOF-808dns, our chemical production facilities supply a comprehensive portfolio of metal-organic frameworks for specialized separation, capture, and catalytic tasks.
Partner directly with China's top MOF synthesis specialists. Our chemical application engineers provide full support for custom synthesis, structural characterization (PXRD, TGA, BET), and pilot-scale process optimization.