Chemical Reactor Lab Equipment Selection Guide

Choosing a reactor trainer is not a matter of picking the longest specification. The correct system is the one that lets students operate the reactor model named in the course, change the required variables and collect enough measurements to complete the intended kinetics and performance calculations.

Equipment mentioned in this guide

Review the product information, specifications and model before requesting a quotation.

Batch Stirred Tank Reactor (Stand Alone) | ReaktiLabX – 18

The Batch Stirred Tank Reactor (Stand Alone) ReaktiLabX - 18 is typically employed when reaction rates are extremely slow or product amounts to be produced are minimal. This Batch Stirred Tank Reactor (Stand Alone) is a complete self-contained batch type unit, operating standalone with its own heating water circuit, pumps, and reactant and product tanks. It preheats reactants at the beginning of the unit before delivery into the reactor.

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Continuous Stirred Tank Reactor (Stand Alone) | ReaktiLabX – 13

The Continuous Stirred Tank Reactor (Standalone) ReaktiLabX - 13 provides for the dependable manufacture of substantial amounts of consistent-quality output. This Continuous Stirred Tank Reactor (Standalone) includes its own heating water circuit, connections, pumps, and reactant and product tanks, allowing it to operate as a self-contained unit. It attaches to the supply unit and is secured in place by two pins.

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Continuous Stirred Tank Reactor | ReaktiLabX – 08

The Continuous Stirred Tank Reactor ReaktiLabX - 08 studies the operation and behavior of a stirred tank reactor in both continuous and discontinuous operation. This Continuous Stirred Tank Reactor attaches to a supply unit and is secured in place by two pins, using quick-release connections for fast installation. It provides for the dependable manufacture of substantial amounts of consistent-quality output.

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Continuous Stirred Tank Reactor in Series (Stand Alone) | ReaktiLabX – 14

The Continuous Stirred Tank Reactor in Series (Stand-Alone) ReaktiLabX - 14 connects continuous stirred tank reactors in series, providing higher conversion than a single stirred tank reactor. This Continuous Stirred Tank Reactor in Series (Stand-Alone) includes its own heating water circuit, pumps, and reactant and product tanks, functioning as a self-contained unit. Stirred tank behavior and operation can be studied sequentially.

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Corrosion Study Unit | ReaktiLabX – 04

The Corrosion Study Unit ReaktiLabX - 04 enables the simultaneous investigation of a number of variables that affect corrosion processes. This Corrosion Study Unit uses eight glass jars to compare various materials in a variety of settings, with samples submerged in the necessary electrolyte solution. It supports studies of sacrificial anodes, local components, and external voltage effects on corrosion.

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Diffusion in Liquids | ReaktiLabX – 02

The Diffusion in Liquids ReaktiLabX - 02 studies microscopic mass transfer of particles like atoms, molecules, and ions occurring through diffusion due to changes in concentration. This Diffusion in Liquids apparatus uses a concentrated salt solution and a U-shaped tube with capillaries to study diffusion behavior. Diffusion is critical to a number of processes, including assembling the components of chemical reactions.

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Choose the process before the catalogue model

A batch reactor, continuous stirred-tank reactor, tubular reactor and plug-flow teaching system represent different mixing and residence-time assumptions. Treating them as interchangeable creates a tender that is easy to price but difficult to teach from. Start with the experiment, then document the process arrangement and measurement points that make the experiment possible.

Six points to settle before requesting quotations

1. Reactor model and learning outcome: state the physical model students must investigate and the calculations they must complete.
2. Feed and collection path: identify batch or continuous operation, number of feeds, mixing and product collection requirements.
3. Variables to observe or control: list temperature, flow, concentration, residence time, agitation or other variables required by the experiment.
4. Measurement method: require each bidder to identify sensor locations, sampling points, indicators and any software included.
5. Utilities and materials: confirm electrical supply, water, drain, ventilation and compatible wetted materials for the proposed exercise.
6. Supplied scope: separate the reactor, service unit, vessels, pumps, sensors, accessories, manuals and consumable assumptions.

Products in this Scientico equipment family

The links below open the current product records. Use the product page and downloadable datasheet to confirm the offered configuration; do not infer a specification from this guide.

Build a quotation that can be approved

Send the syllabus experiment, preferred reactor model, quantities, destination, available utilities and tender format. Ask for a written model reference, included-scope list and deviations against the same requirement.

What a comparable supplier response should show

A useful response names the proposed product and model, answers each technical line, identifies included accessories and documents, records deviations, lists site utilities and states what is excluded. This lets an institution or distributor compare scope before price and gives the acceptance team a written reference for delivery.