Educational Chemical Engineering Pilot Plants

Comprehensive Training Solutions for Chemical Engineering Education

The study of chemical engineering is fundamentally rooted in the understanding of unit operations—the building blocks that transform raw materials into valuable products. At LABPARK, we specialize in designing and manufacturing state-of-the-art educational pilot plants that bridge the gap between theoretical knowledge and industrial practice. Our Educational Chemical Engineering Pilot Plants cover a vast spectrum of unit operations, from basic fluid mechanics to advanced reaction engineering and separation processes. These systems are meticulously engineered to provide students and researchers with immersive, hands-on experience, enabling them to conduct experiments that mirror real-world industrial scenarios while adhering to the highest safety standards.

Fluid Mechanics and Transport Phenomena

Fluid flow is at the heart of all chemical processes. Our fluid mechanics pilot plants, such as the Comprehensive Fluid Mechanics Educational Unit Operations Pilot Plant and the Bernoulli Equation Demonstration Unit, allow students to visually and quantitatively investigate fundamental principles. The comprehensive system covers over 13 experiments including pipe friction losses in smooth and rough pipes, minor losses through fittings, flowmeter calibration (Venturi, orifice), and centrifugal pump performance under series and parallel configurations. The Bernoulli demonstration plant uses a transparent horizontal pipe with 23 piezometer tubes to illustrate energy conservation and hydraulic grade lines. Other specialized units include the Cavitation Phenomenon Demonstration Plant, which uses a transparent Venturi to show vapor bubble formation and collapse, and the Two-Phase Flow Pattern Velocity Resistance Measurement Plant that characterizes gas-liquid flow regimes in different conduit geometries. The Fluid Friction Resistance Determination Plant employs precise differential pressure sensors and digital data acquisition to calculate Darcy-Weisbach friction factors and observe laminar-to-turbulent transition. These systems are designed with industrial-grade components and robust construction to withstand repetitive academic use while delivering accurate, repeatable results.

Heat Transfer and Thermal Unit Operations

Understanding heat transfer is critical for reactor design and energy optimization. Our Three-Tube Heat Transfer Educational Pilot Plant enables side-by-side comparison of smooth, corrugated, and turbulent tube inserts to study convective heat transfer enhancement and condensation phenomena. With a closed-loop steam recovery system, it ensures safe operation while allowing students to verify empirical correlations such as Dittus-Boelter and Sieder-Tate. The Solid Spherical Heat Transfer Coefficient Determination Plant offers a unique opportunity to measure transient temperature profiles and calculate convective coefficients under natural convection, forced convection, fixed bed, and fluidized bed conditions. This plant combines conduction, convection, and particle dynamics, giving students a holistic view of heat transfer in multiphase systems.

Mass Transfer and Separation Processes

Mass transfer operations like absorption, desorption, and distillation are core to chemical engineering. Our Dual-Drive Stirred Gas-Liquid Mass Transfer Coefficient Determination Pilot Plant features independent agitation for gas and liquid phases, enabling precise control of interfacial area and film resistances. This unique design allows students to decouple and quantify gas and liquid film coefficients using two-film theory. The Liquid-Liquid Mass Transfer Coefficient Determination Pilot Plant provides precise phase boundary control for studying extraction kinetics. For distillation, we offer several advanced systems. The Multi-Functional Special Distillation Educational Pilot Plant supports continuous, vacuum, azeotropic, reactive, and extractive distillation, all in one unit with transparent glass columns for visualizing hydrodynamics. The Continuous Batch Extractive Distillation Plant offers flexibility for batch or continuous modes, with a high reflux ratio range and corrosion-resistant materials. The Plate Column Hydrodynamics Tray Demonstration Plant is a transparent visual tool that showcases the operation of industrial sieve, bubble cap, and valve trays, allowing students to measure pressure drop, observe flooding, weeping, and entrainment, and determine operating limits.

Reaction Engineering and Catalysis

Chemical reactors are the core of any process plant. Our reaction engineering pilot plants cover a wide range of catalytic and non-catalytic systems. The Methane Cracking Educational Unit Operations Pilot Plant introduces students to high-temperature catalytic conversion with a 1000°C furnace and seven mass flow controllers for precise gas management. The Steam Methane Reforming Hydrogen Production and Purification Plant integrates reaction and separation, demonstrating catalyst performance, phase equilibrium, and process dynamics. For heterogeneous catalysis, we offer both Fixed Bed Gas Solid Catalytic Reaction Pilot Plant and Fluidized Bed Gas Solid Catalytic Reaction Pilot Plant. The fixed bed reactor features a split-furnace design for catalyst activation and kinetic studies, while the fluidized bed system allows students to explore fluidization hydrodynamics, minimum fluidization velocity, and bubbling behavior, all under safe conditions with touchscreen data logging. The Carbon Dioxide Hydrogenation Methanol Synthesis Plant and its variant the Carbon Dioxide Hydrogen Methanol Synthesis Plant bring sustainable chemistry into the lab, enabling study of high-pressure catalysis and green fuel production. The Ethylbenzene Dehydrogenation Educational Unit Operations Pilot Plant replicates industrial styrene production, including catalyst regeneration by steam, and incorporates safety interlocks for teaching gas-solid reaction engineering.

Adsorption and Gas Separation

Pressure swing adsorption (PSA) is a key industrial separation technology. Our PSA educational plants, including the Pressure Swing Adsorption Educational Unit Operations Pilot Plant, the Educational Pressure Swing Adsorption Ethylene Capture Unit Operations Pilot Plant, and the Multi-Component Gas Pressure Swing Adsorption Pilot Plant, provide hands-on experience with adsorption fundamentals. The nitrogen-oxygen model plant uses a dual-column design with automatic cycling, while the ethylene capture system employs an eight-column configuration for complex industrial simulation. The multi-component PSA unit features four towers with dual regeneration and IoT-enabled touchscreen control, allowing students to perform breakthrough curve analysis and cycle optimization. These systems teach mass transfer in porous media, adsorbent kinetics, and process economics.

Process Control and Residence Time Distribution

Understanding reactor flow behavior is vital for scale-up. Our Tubular Reactor Flow Characteristics Determination Plant and the Residence Time Distribution and Reactor Flow Characteristics Determination Plant enable students to measure residence time distribution (RTD) using tracer pulse and step inputs. The tubular reactor unit includes an adjustable recycle loop to study plug flow and backmixing effects. The RTD plant combines multiple CSTRs in series with a tubular reactor, offering a comprehensive platform for reactor diagnostics. The Multi-Stage Stirred Tanks in Series RTD and Mixing Performance Plant uses real-time conductivity measurements and interactive 3D simulations to visualize mixing dynamics. These plants help students calculate mean residence time, variance, and model reactor non-ideality.

Specialized Unit Operations and Thermodynamics

Beyond core operations, we offer plants that explore unique phenomena. The Throttling Effect Determination Plant demonstrates the Joule-Thomson effect by measuring temperature change during adiabatic gas expansion, reinforcing thermodynamic fundamentals. The Potassium Salt Thermal Dissolution and Crystallization Separation Plant teaches solubility equilibria, supersaturation, and crystal growth kinetics. The Centrifugal Pump Performance Determination Plant allows students to generate pump curves and understand NPSH and efficiency. The Quantitative Dosing and Liquid Flow Control Plant integrates variable-speed metering pumps, flow sensors, and PLC-based SCADA for training in industrial automation and control theory.

Customization and Educational Integration

All LABPARK pilot plants are designed with education in mind. They feature industrial-grade components (Siemens or similar PLCs, mass flow controllers from Bronkhorst or Alicat, high-precision sensors) but are scaled for laboratory environments. Each system includes a detailed curriculum package with experiment manuals, pre-lab assignments, and post-lab data analysis tools. Our proprietary digital assessment suite allows instructors to track student progress and performance in real time. Many units offer QR-code linked video tutorials and 3D virtual simulations that prepare students before the physical lab session. Safety is paramount: plants are equipped with emergency stops, pressure relief valves, leak detection systems, and interlocks that shut down operations under hazardous conditions.

Companies and academic institutions worldwide trust LABPARK for our commitment to quality, safety, and pedagogical value. We understand that every curriculum is unique, which is why we offer fully customizable designs. Whether you need to add additional sensors, modify the reactor size, or integrate with a learning management system, our engineering team will work closely with you to tailor a solution that meets your specific educational objectives.

Are you ready to transform your chemical engineering labs? Contact LABPARK today to discuss your pilot plant needs. Our knowledgeable sales engineers will guide you through product selection, customization options, and installation support. Fill out the inquiry form at #ContactForm or email us directly. Let us help you build the next generation of chemical engineers with cutting-edge, hands-on training equipment.