Educational Chemical Engineering Pilot Plants
Carbon Dioxide Hydrogen Methanol Synthesis Educational Unit Operations Pilot Plant
Item Number : LPK-CEJH
Price varies based on specs and customizations
- Max Operating Pressure
- 6 MPa
- Reactor Material
- 316L Stainless Steel
- Data Acquisition Channels
- 32-channel
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Introduction
The Carbon Dioxide and Hydrogen Synthesis of Methanol Educational Unit Operations Pilot Plant is an advanced laboratory system designed specifically for higher education engineering departments. This pilot plant provides undergraduate and graduate students with a hands-on, practical environment to study heterogeneous catalysis, high-pressure reaction kinetics, and modern process control. By facilitating the conversion of carbon dioxide and hydrogen into green methanol, the system serves as an exceptional bridge between classroom chemistry and industrial-scale chemical processing.
To ensure the system aligns with diverse curriculum structures and research priorities, both the hardware configurations and software control systems of this pilot plant can be customized according to specific user requirements. This flexible design allows academic departments to adapt the equipment to varying lab space constraints, safety protocols, and pedagogical objectives.
Key Educational Capabilities and Pedagogical Benefits
- Engineering-Scale Practice: Operates under authentic industrial-relevant parameters (up to 6 MPa and high temperatures), allowing students to experience the physical realities of high-pressure gas-phase reactions and safety management.
- Comprehensive Data Acquisition: Integrates a multi-channel signal monitoring module, enabling students to log and analyze critical process variables such as temperature profiles, feed flow rates, and pressure drops in real time.
- Analytical Integration: Equipped with integrated sampling ports for online chromatographic analysis, enabling the evaluation of carbon dioxide conversion, methanol selectivity, and catalyst yield.
- Modern Process Automation: Features digital mass flow controllers and programmable control loops that introduce students to the industrial instrumentation and control systems used in modern chemical plants.
Detail & Parts
Technical Specifications
The system is constructed with industrial-grade components to withstand repeated educational use while maintaining high safety standards.
| Component / Parameter | Specification | Educational & Operational Value |
|---|---|---|
| Reactor Assembly | 316L stainless steel tubular reactor; rated up to 6 MPa operating pressure | Demonstrates industrial tube-reactor design, material durability, and high-pressure sealing techniques. |
| Heating System | Three-stage temperature-controlled furnace with high-density insulation | Allows students to study non-isothermal temperature profiles along the catalyst bed. |
| Feed Control | High-precision thermal mass flow controllers (MFCs) for gas feeds | Teaches precise molar ratio control and stoichiometric calculations for reactant mixtures. |
| Process Monitoring | 32-channel digital signal monitoring and control module | Demonstrates automated data acquisition, sensor calibration, and process safety interlocks. |
| Safety Features | Quick catalyst unloading mechanism, shock-resistant pressure gauges (0-10 MPa), and overpressure relief systems | Instills industrial safety protocols, hazard mitigation, and pressure relief sizing principles. |
Curriculum Mapping and Academic Applications
This pilot plant is engineered to support core laboratory coursework across multiple engineering and science disciplines, including Chemical Engineering, Environmental Engineering, and Sustainable Energy Technologies. By utilizing this equipment, instructors can bring theoretical concepts from foundational textbooks to life.
The experiments conducted on this unit directly align with core principles taught in classic engineering curricula:
- Unit Operations of Chemical Engineering: The system serves as a physical model for studying packed-bed fluid dynamics, gas-solid heat transfer, and transport limitations in heterogeneous catalysis.
- Transport Processes and Unit Operations: Students can investigate simultaneous heat and mass transfer within the catalyst bed, measuring pressure drops across porous media and verifying transport equations under high-temperature conditions.
- Chemical Engineering Design: The pilot plant provides real-world boundary conditions for students to perform material and energy balances, design scale-up reactors, and evaluate the process economics of carbon capture and utilization (CCU) pathways.
Laboratory Experiment Modules
| Experimental Module | Core Target Concepts | Connection to Classic Engineering Curricula |
|---|---|---|
| Catalytic Reactor Characterization | Space velocity, catalyst packing density, bed voidage, and pressure drop | Unit Operations of Chemical Engineering (Fluid flow through packed beds, Ergun equation application) |
| Reaction Kinetics & Thermodynamics | Reaction rate constants, activation energy, temperature dependence of equilibrium conversion | Transport Processes and Unit Operations (Chemical kinetics, heat effects in reactors) |
| Process Optimization & Yield Analysis | Selectivity, single-pass yield, carbon dioxide conversion efficiency under varying pressure and feed ratios | Chemical Engineering Design (Process optimization, material balance verification, green chemistry metrics) |
| Automation and Control Loop Tuning | Closed-loop flow control, multi-zone cascade temperature control, safety interlock programming | Chemical Engineering Design / Process Control (PID tuning, system dynamics, and safety management) |
To support specific educational goals, LABPARK offers extensive flexibility for this educational plant. Both the hardware layout (such as reactor dimensions, gas feed lines, and sensor selection) and the software architecture (including data acquisition interfaces and control algorithms) can be tailored to meet unique academic goals and facility requirements.
About LABPARK
For over 20 years, LABPARK has been a dedicated partner to higher education institutions worldwide, providing high-quality, practical training equipment designed to prepare the next generation of engineers and scientists. We focus on delivering robust, curriculum-aligned systems across six primary engineering disciplines: Chemistry, Chemical Engineering, Biotechnology, Food Engineering, Pharmaceutical Engineering, and Environmental Engineering.
Driven by continuous innovation and academic feedback, LABPARK holds 209 technical patents and has successfully collaborated with over 289 universities and colleges globally. Our state-of-the-art R&D and manufacturing base spans 49,000 square meters, ensuring that every piece of educational equipment is manufactured to stringent quality and safety standards before arriving at your campus laboratory.
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