Explore our benchmark metal-organic frameworks engineered with scalable continuous synthesis, standardized pore metrics, and rigid lot-to-lot quality verification.
Ca-BDC-1 (Calcium 1,4-benzenedicarboxylate), synthesized via high-purity calcium nodes coupled with terephthalic acid organic linkers, represents a monumental leap in sustainable, eco-friendly metal-organic frameworks (MOFs). As heavy-metal regulations (such as REACH and RoHS) tighten globally, tier-1 industrial enterprises are transitioning away from toxic heavy-metal MOFs toward non-toxic, earth-abundant alkaline earth metal frameworks.
From a structural standpoint, Ca-BDC-1 exhibits a robust three-dimensional coordination network featuring 1D open pore channels. The central Ca²⁺ ions coordinate with oxygen atoms from carboxylate groups, creating a densely packed yet accessible microporous framework. Unlike conventional transition-metal frameworks, Ca-BDC-1 delivers superior hydrothermal stability, allowing it to withstand high moisture regimes and aggressive industrial gas streams without structural degradation.
As a premier global exporter, our optimized continuous synthesis process ensures that Ca-BDC-1 achieves a controlled micropore distribution with pore diameters centered between 0.6 nm and 1.2 nm. This specific pore aperture is exceptionally suited for kinetic gas separation, selective carbon dioxide capture, and moisture management in environmental systems.
| MOF Material | Metal Node / Linker | Thermal Limit | Hydrothermal Stability | Toxicity & ESG Profile | Primary Industrial Intent |
|---|---|---|---|---|---|
| Ca-BDC-1 | Calcium / Terephthalic Acid | >450°C | Ultra-High (100% RH Stable) | Green / Non-Toxic (Safe) | CO₂ Capture, HVAC, Energy Storage |
| ZIF-8 | Zinc / 2-Methylimidazole | ~400°C | High (Hydrophobic) | Moderate Risk | Gas Separation, Li-Ion Coatings |
| MIL-53(Al) | Aluminum / Terephthalic Acid | ~500°C | Very High (Breathing) | Low Risk | VOC Adsorption, Breathing Separation |
| MOF-74(Mg) | Magnesium / 2,5-DOBDC | ~380°C | Moderate (Water Sensitive) | Low Risk | High-Capacity Low-Pressure CO₂ Storage |
Ca-BDC-1 is engineered to solve complex engineering bottlenecks across carbon abatement, industrial air conditioning, advanced energy storage, and semiconductor manufacturing.
Industrial post-combustion gas streams present a severe challenge due to high humidity and acidic impurities. Ca-BDC-1 exhibits preferential quadrupolar interaction with CO₂ over N₂ and CH₄. Its water-resilient crystal lattice ensures sustained sorption capacity across thousands of adsorption-desorption cycles with exceptionally low regeneration energy penalty.
Traditional silica gels and zeolites require high thermal activation temperatures (>120°C). Ca-BDC-1 features a tailored S-shaped water vapor sorption isotherm that regenerates efficiently at low-grade waste heat temperatures (60°C–70°C). Integrating Ca-BDC-1 into heat-exchanger coatings drastically cuts HVAC energy consumption by up to 45%.
When processed into functional separator coatings, fine-grained Ca-BDC-1 micropores regulate ion flux uniformity, mitigating lithium dendrite formation. Furthermore, the lewis-acidic metal sites immobilize trace moisture and heavy-metal impurities, drastically increasing battery lifecycle and high-voltage stability.
Transitioning MOF technology from milligram laboratory synthesis to multi-ton commercial production has historically been hindered by high solvent consumption and costly organic linkers. Our Guangdong production facility overrides these constraints using advanced Industry 4.0 mechanochemical and continuous flow reactors.
By utilizing solvent-free or solvent-minimal mechanochemical extrusion methods, our factory minimizes environmental impact, reduces volatile organic compound (VOC) emissions, and lowers overall cost structures by up to 65% compared to Western laboratory vendors.
Leveraging proprietary chemical recycling infrastructure, we source terephthalic acid (BDC) linkers directly from upcycled post-consumer polyethylene terephthalate (PET). This circular economy model guarantees an uninterrupted raw material supply chain while fulfilling strict global corporate ESG criteria.
Every production batch undergoes automated inline Powder X-Ray Diffraction (PXRD), Thermogravimetric Analysis (TGA), and Nitrogen Physisorption (BET) verification. We provide complete batch traceability and analytical COA certificates with every export shipment.
As a forward-thinking exporter and research partner, our R&D roadmap is focused on expanding the functional capabilities of Ca-BDC-1 across emergent green technology sectors.
Optimization of binderless extrudates, spherical beads, and monolithic honeycomb shapes. Focus on minimizing system pressure drop in high-flow gas scrubbing columns and large-scale industrial desiccant wheels.
Development of surface-modified Ca-BDC-1 nanoparticles designed for seamless incorporation into polymeric gas separation membranes. Targeted applications include point-source hydrogen purification and biogas upgrading (CH₄/CO₂ separation).
Exploiting the intrinsic non-toxicity of calcium frameworks for controlled-release agrochemical delivery and targeted pharmaceutical carrier matrices compliant with international health and bio-safety standards.
Navigating international chemical logistics requires stringent adherence to international regulatory frameworks. We provide complete end-to-end export compliance support tailored for procurement officers across North America, Europe, Asia-Pacific, and the Middle East.
Our products comply fully with EU REACH registration guidelines, US TSCA inventory compliance, and RoHS/REACH environmental safety directives. Complete Safety Data Sheets (SDS/GHS) are provided in over 15 native languages.
We offer tailored particle size distribution (d50 tuning from 500 nm to 50 μm), surface functionalization, and pre-dispersed liquid masterbatches (in water, ethanol, NMP, or custom organic solvents) to match specific manufacturing line requirements.
Browse additional high-purity MOFs manufactured under identical ton-scale precision parameters.
In-depth clarification on operational handling, structural activation, packaging, and commercial export parameters.