Reactor Vessel for Chemical Manufacturing | Pressure-Containing Component

Product Specifications

Technical details and manufacturing context for Reactor Vessel

Definition

A reactor vessel is the core structural component of chemical reactors that houses the reaction mixture, withstands internal pressure and temperature, and provides the necessary containment for chemical processes. It serves as the main chamber where reactants are mixed, heated or cooled, and transformed into products through chemical reactions. The vessel is designed to operate within specified parameters, including design pressure, design temperature, nominal volume, inner diameter, wall thickness, material grade, corrosion allowance, heat transfer area, agitator speed, motor power, leakage rate, surface roughness, and weight. These parameters are provided as reference ranges and must be verified for the specific model and application with the legal manufacturer or supplier. The vessel is typically constructed from materials such as stainless steel, Hastelloy, titanium, or glass-lined steel, depending on the chemical compatibility and process requirements. Design and fabrication may follow standards such as GB/T 150 for pressure vessels, GB/T 713 for material grades, ISO 15848 for leakage rate, and GB/T 1031 for surface roughness. The reactor vessel provides a sealed environment where chemical reactions take place under specific conditions of temperature, pressure, and mixing. It contains the reaction medium, facilitates heat transfer through its walls or internal coils, and maintains pressure integrity throughout the reaction cycle. The vessel's design must consider factors such as corrosion allowance, heat transfer area, and agitator speed to ensure efficient mixing and heat exchange. The selection of a reactor vessel involves evaluating process requirements, media compatibility, and operational safety. Verification questions should address the intended operating conditions, material compatibility, and compliance with applicable standards. Maintenance signals include signs of corrosion, leakage, or deformation, which may indicate the need for inspection or replacement. The vessel's operational boundaries are defined by its design pressure and temperature limits, and exceeding these limits can lead to failure. Therefore, it is essential to operate within the specified parameters and to conduct regular inspections to ensure integrity.

Working Principle

The reactor vessel provides a sealed environment where chemical reactions take place under specific conditions of temperature, pressure, and mixing. It contains the reaction medium, facilitates heat transfer through its walls or internal coils, and maintains pressure integrity throughout the reaction cycle. The vessel is designed to withstand the internal pressure and temperature generated by the reaction, and its construction materials are selected based on chemical compatibility and process requirements. The agitator, if present, ensures proper mixing of reactants, while the heat transfer area allows for heating or cooling of the reaction mixture. The vessel's design must account for factors such as corrosion allowance and wall thickness to ensure long-term reliability. The operating principle relies on maintaining the desired conditions within the vessel, and any deviation from the design parameters can affect reaction efficiency and safety.

Common Materials

Stainless Steel, Hastelloy, Titanium, Glass-lined Steel

Technical Parameters

Parameter	Typical range	Notes & selection driver
Design Temperature	-20–350 °C	Above 350°C requires high-temp alloyGB/T 150
Nominal Volume	1–50 m³	Custom sizes available
Inner Diameter	800–3000 mm	Determines heat transfer area
Wall Thickness	8–60 mm	Based on pressure and corrosion allowance
Material Grade	Q345R/304/316L	Select per media compatibilityGB/T 713
Corrosion Allowance	1–6 mm	Higher for aggressive mediaGB/T 150
Heat Transfer Area	5–120 m²	Critical for reaction control
Agitator Speed	30–300 rpm	Adjustable via VFD
Motor Power	5.5–110 kW	Depends on viscosity and volume
Leakage Rate	≤0.1 mL/min	For shaft sealISO 15848
Surface Roughness	0.4–3.2 μm	Lower for hygienic applicationsGB/T 1031
Weight	2000–30000 kg	Influences foundation design

Ranges are indicative industry figures for RFQ preparation, not a supplier commitment. Confirm every value and standard with the legal manufacturer before ordering.

Components / BOM

Shell
Main cylindrical body providing structural integrity and containment

Material: Stainless Steel
Heads Part
End closures (top and bottom) that complete the pressure boundary

Material: Stainless Steel
Nozzles Part
Openings for inlet/outlet connections, instrumentation, and access

Material: Stainless Steel
Support Skirt Part
Structural support that transfers vessel weight to foundation

Material: Carbon Steel
Jacket
External shell for heating/cooling media circulation

Material: Stainless Steel
Internal Coils Optional
Carry the heat transfer fluid inside the vessel for heating or cooling.

Industry Taxonomies & Aliases

Commonly used trade names and technical identifiers for Reactor Vessel.

Applied To / Applications

This component is essential for the following industrial systems and equipment:

Chemical Reactors

View system integration details

Manufacturers of Reactor Vessel

5 companies list this product among what they make. Company figures are quoted from each company's own website; every card states where the relationship came from.

Huixin Machinery

Shandong, CN

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