Educational Chemical Engineering Pilot Plants
Methane Cracking Educational Unit Operations Pilot Plant
Item Number : LPK-CJWL
Price varies based on specs and customizations
- Max Temperature
- 1000°C
- Mass Flow Controllers
- 7
- Reactor Design Pressure
- 2 MPa
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Introduction


The Methane Cracking Educational Unit Operations Pilot Plant is an integrated, bench-scale teaching system designed for university laboratories to demonstrate catalytic hydrocarbon conversion, gas-phase chemical reactions, and process control. It provides engineering students with hands-on experience in high-temperature catalytic cracking, mass and heat transfer, and product gas management within a safe, controlled environment.
System Customization Options
To align with diverse curriculum structures and specific laboratory footprints, this pilot plant offers comprehensive customization. Both the hardware configurations—such as reactor geometries, sensor selections, and gas line additions—and the software control interfaces can be modified to meet the specific teaching and research requirements of your department.
Key Teaching Functions and Advantages
- Multi-Zone Thermal Control Practice: Hands-on study of temperature profiles along the catalyst bed using three-stage programmable heating up to 1000°C.
- Precision Gas-Phase Fluid Dynamics: Practical training in gas flow manipulation and mixing using integrated high-precision mass flow controllers.
- Real-time Process Automation: Direct exposure to industrial-style human-machine interfaces (HMI) with data logging and cloud-based monitoring.
- Industrial-Grade Safety Design: Comprehensive safety interlocks, including automated over-temperature and over-pressure shut-offs housed within a robust aluminum frame.
- Modular Catalyst Evaluation: Quick-disassembly fixed-bed reactor designed for rapid catalyst loading and comparative kinetic studies.
Detail & Parts





Technical Specifications and Curriculum Mapping
| Module / System Component | Technical Specifications | Curriculum & Textbook Alignment |
|---|---|---|
| Fixed-Bed Reactor System | Material: 316L Stainless Steel; Max Pressure: 2 MPa; Quick-disassembly coupling design. | Chemical Reaction Engineering • Heterogeneous Catalysis and Kinetics • Fixed-Bed Reactor Design and Pressure Drop |
| Thermal Management System | Three-stage programmable heating; Range: 0–1000°C; Accuracy: ±1°C. | Transport Processes and Unit Operations / Unit Operations of Chemical Engineering • Conductive and Convective Heat Transfer • Non-isothermal Reactor Operation |
| Gas Delivery & Flow Control | 7 Mass Flow Controllers (MFC); Flow range: 0–500 mL/min; Integrated gas mixing manifold. | Transport Processes and Unit Operations • Fluid Flow and Gas Dynamics • Mass Transfer in Gas Mixtures |
| Process Control & Data Acquisition | 15-inch industrial touchscreen; real-time data logging, cloud-based monitoring, and export. | Chemical Engineering Design / Process Dynamics and Control • Instrumentation and Control Loop Design • Automated Data Acquisition |
| System Safety & Auxiliaries | Integrated over-temp/over-pressure alarms; dual gas-leak detection options; heavy-duty caster frame. | Chemical Engineering Design • Process Safety Management (HAZOP concepts) • Pilot Plant Layout and Piping |
Academic Applications and Curriculum Integration
This pilot plant bridges the gap between theoretical calculations and practical process engineering. In Chemical Engineering, Environmental Engineering, and Energy/Fuel Technology programs, students often study complex concepts that are difficult to visualize in a standard lecture.
For instance, when studying Unit Operations of Chemical Engineering, the transport phenomena of high-temperature gases through packed beds become tangible realities on this unit. Similarly, in courses utilizing Transport Processes and Unit Operations (or Transport Processes and Separation Process Principles), students can analyze steady-state heat conduction across the multi-zone furnace and mass transfer during catalytic cracking.
Furthermore, the system serves as a physical reference for Chemical Engineering Design courses, demonstrating piping layouts, instrumentation symbols, and process safety barriers in action. By operating this pilot plant, students transition from reading about catalytic equations in reaction engineering textbooks to managing real-world reaction thermodynamics and mass balances.
Adaptable System Configurations
As teaching laboratories evolve, the flexibility of experimental equipment is critical. Both the software interface (including dashboard design and data communication protocols) and the physical hardware (including reactor material, gas feed lines, and analytical instrument integration) can be customized to suit your department's specific syllabus.
About LABPARK
LABPARK has spent over 20 years serving the global higher education sector, focusing on delivering advanced experimental equipment for university laboratories. We specialize in six core engineering fields: chemistry, chemical engineering, biotechnology, food engineering, pharmaceutical engineering, and environmental engineering. Our goal is to provide reliable, curriculum-aligned pilot plants that facilitate hands-on engineering education and experimental research.
With a state-of-the-art production and R&D facility spanning 49,000 square meters, LABPARK holds 209 technical patents, reflecting our commitment to continuous product development. To date, we have partnered with more than 289 universities and colleges worldwide, helping departments build modern, safe, and highly effective educational environments.
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Methane Cracking Educational Unit Operations Pilot Plant
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Educational Chemical Engineering Pilot Plants
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