High-Performance Porous Materials Catalog
Explore our top-tier standardized MOF powders engineered for extreme thermal stability, customized pore volumes, and high surface area performance.
Manganese-Based MOFs (Mn-BTC) in Modern Industrial Engineering
Unlocking breakthrough thermodynamic separation efficiencies, low-energy thermal regeneration, and superior redox catalytic capability through precise structural control.
Low Energy Carbon Capture
Mn-BTC exhibits optimized adsorption enthalpy for CO₂ over N₂ and CH₄, reducing thermal desorption energy demands down to <2.8 GJ/ton CO₂ captured compared to monoethanolamine (MEA) systems.
Hydrocarbon Separation
With precise pore apertures tailored to molecular kinetic diameters, Mn-BTC efficiently separates C2/C3 olefin-paraffin mixtures with high selectivity, bypassing cryo-distillation requirements.
Heterogeneous Catalysis
Open manganese metal coordination sites act as robust Lewis acid centers, promoting organic oxidation, cycloaddition of CO₂ into cyclic carbonates, and fine chemical synthesis.
Technical Information Gain: Mn-BTC (Manganese Benzene-1,3,5-tricarboxylate) combines manganese nodes ($Mn^{2+}/Mn^{3+}$) with rigid trimesate organic linkers to form a 3D porous coordination network. Its high volumetric surface area (BET > 1,100 $m^2/g$) and unsaturated coordination sites render it significantly more cost-efficient than noble metal or zirconium-based alternatives in bulk gas processing.
Techno-Economic Benchmark & Material Performance
Direct comparative analysis highlighting how Mn-BTC outperforms conventional industrial adsorbents across key performance indicators (KPIs).
| Performance Metric | Mn-BTC MOF Framework | Zeolite 13X | Activated Carbon | Amine Scrubbing (Liquid) |
|---|---|---|---|---|
| BET Surface Area ($m^2/g$) | 1,050 – 1,350 | 600 – 750 | 800 – 1,100 | N/A (Liquid phase) |
| $CO_2/N_2$ Selectivity (298K) | > 45 : 1 | 18 : 1 | 8 : 1 | Highly Selective (Chemical) |
| Regeneration Enthalpy ($kJ/mol$) | 28 – 34 | 45 – 55 | 20 – 25 | 85 – 105 (High CAPEX/OPEX) |
| Hydrothermal Resistance | High (Up to 220°C dry, stable ambient RH) | Very High | High | Corrosive / Degrades over time |
| Framework Specific Density ($g/cm^3$) | 0.65 – 0.85 | 1.1 – 1.4 | 0.4 – 0.7 | 1.01 |
| Volumetric Gas Capacity ($v/v$) | 160x STP | 85x STP | 60x STP | N/A |
Engineering Integration & Turnkey Implementations
Customized Mn-BTC supply formats engineered specifically for complex commercial infrastructure and continuous industrial processes.
Flue Gas Decarbonization Units (VPSA/PSA)
Injected directly into Vacuum Pressure Swing Adsorption (VPSA) columns, Mn-BTC pellets achieve high $CO_2$ working capacity under standard operating temperatures (25°C–60°C). Its narrow pore distribution excludes larger hydrocarbon contaminants while maintaining fast sorption-desorption kinetics.
Natural Gas Purification & De-sulfurization
Acidic gases such as $H_2S$ and trace $CO_2$ pose major corrosion threats to pipeline infrastructure. Mn-BTC exhibits high chemical affinity toward polar molecules, allowing natural gas suppliers to clean raw methane streams to pipeline specifications efficiently.
Air Water Harvesting & HVAC Dehumidification
Leveraging its moisture-stable open metal coordination, Mn-BTC functions as a low-temperature desiccant for climate control systems. It releases bound water vapor at thermal activation temperatures below 75°C, enabling the use of industrial waste heat for system regeneration.
Semiconductor Specialty Gas Trapping
High-purity Mn-BTC powders integrated into specialty gas purifiers capture sub-ppm moisture, ammonia, and organic impurities, ensuring ultra-clean gas supply for high-end microelectronics fabrication plants.
Export Compliance, QA/QC & Global Supply Chain
Ensuring full regulatory alignment, rigorous batch verification, and secure international logistics support for every commercial order.
Full Batch Documentation
Every shipment is accompanied by a comprehensive Certificate of Analysis (CoA), including Nitrogen Adsorption Isotherms (BET), Powder X-Ray Diffraction (PXRD) pattern matching, and Thermogravimetric Analysis (TGA).
Custom OEM/ODM Shaping
We supply Mn-BTC in versatile formats: micro-powder, un-bound extrudates, spherical granules (0.5mm - 3mm), or coated ceramic honeycomb substrates tailored to OEM bed geometry.
Hazard-Free Packaging
Standardized vacuum-sealed aluminum foil barrier bags, inert gas-blanketed steel drums, and UN-certified international export packaging ensure zero ambient degradation during transit.
Technological Roadmap: 2025–2030
Pioneering green synthesis routes, continuous flow manufacturing, and AI-assisted crystal modification for next-generation MOFs.
Phase I: Green Solvent-Free Synthesis
Transitioning scaling operations to mechanochemical and aqueous solvent-free routes, eliminating organic solvent waste (DMF/DEF) and reducing manufacturing cost by up to 40%.
Phase II: Mixed-Matrix Membranes (MMM)
Blending hydrophobic Mn-BTC crystals into scalable polymeric membranes (PIM-1, Polyimides) to achieve continuous high-throughput membrane gas separation modules.
Phase III: Machine-Learning Pore Tuning
Utilizing high-throughput molecular dynamics simulations to predict mixed-metal ligand configurations ($Mn/Fe$, $Mn/Mg$ bimetallic framework nodes) for target gas targets.
Deep-Dive Technical FAQ for Procurement & R&D Engineers
Answers to essential technical, chemical stability, ordering, and scale-up questions regarding our Mn-BTC products and export services.
Under inert atmosphere ($N_2$ or $Ar$), Mn-BTC maintains thermal structural stability up to 350°C. In ambient air, oxidative degradation of the organic trimesate ligand typically initiates around 280°C. For industrial continuous processing, operating below 220°C is recommended for long-term structural integrity.
Unlike moisture-sensitive frameworks such as HKUST-1, Mn-BTC exhibits moderate-to-high hydrothermal stability due to strong manganese-carboxylate coordination bonds. While prolonged boiling water exposure should be avoided, it safely withstands gas streams with relative humidity (RH) up to 70% at ambient temperature without structure collapse.
Yes. Our proprietary binderless pressing and low-polymer binder extrusion technologies preserve over 90–94% of the pristine powder's original BET surface area while providing crushing strength > 35 N/pellet, preventing pressure drop and dust generation in packed beds.
We support R&D evaluation samples starting at 100g up to bulk ton-scale shipments. Standard catalog powders ship within 3–5 business days via express air freight (DHL/FedEx). Industrial-scale bulk orders (100 kg to multi-tons) carry a standard manufacturing lead time of 2 to 4 weeks.
Full desorption of captured $CO_2$ can be achieved by heating the adsorbent bed to 80°C–105°C under mild vacuum (10–20 kPa) or by purging with dry nitrogen at 90°C. This low temperature requirement allows direct integration with industrial waste heat loops.
Yes. Our in-house organic synthesis and crystal engineering teams offer functionalized linker options (e.g., $-NH_2$, $-NO_2$, or halogenated trimesic derivatives) to tune specific binding energies for target molecules.
Industrial Grade MOF Powders & Adsorbents
Complete portfolio of specialized metal-organic framework materials available for worldwide export and commercial scale-up.
