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China Suppliers Offer Factory Direct Half Coil Tube Heating Stainless Steel Reaction Kettle with Enhanced Efficiency

The outer half tube heating stainless steel reactor offers numerous advantages over the commonly used jacket reactors in China. As a leading choice among suppliers and manufacturers, this innovative reactor design ensures superior heating efficiency and temperature control. With its robust construction and advanced technology, our factory produces high-quality reactors that meet the demands of various industrial applications in China. Choose the outer half tube heating stainless steel reactor for enhanced performance and reliability in your processes

Description

Compared with the commonly used jacket reactor in China, the outer half tube heating stainless steel reactor has many advantages:

Reduced Wall Thickness

Reduces the wall thickness of the kettle while improving its load-bearing capacity.

Heat Transfer Efficiency

Improves the heating system and reduces thermal resistance for better efficiency.

Energy & Space Saving

Reduces investment through optimized volume ratios and compact workshop layout.

Material Optimization

Significant savings in high-quality steel usage during construction.

The operating temperature of the reaction kettle is relatively high, usually requiring specific temperature conditions for chemical reactions. Methods to obtain high temperatures include:

1. Water Heating

Used for low-temperature requirements. Systems can be open or closed. Open systems use circulating pumps and water tanks. High-pressure water requires high mechanical strength. Note: Snake tubes welded to the outer surface may increase thermal resistance due to gaps.

2. Steam Heating

Below 100 ℃: Use atmospheric steam. 100-180 ℃: Use saturated steam. Higher temperatures: Use high-pressure superheated steam.

3. Other Media Heating

Used for high temperatures or to avoid high-pressure systems. Media include mineral oil (275-300 ℃), biphenyl ether mixture (258 ℃), molten salt (140-540 ℃), and liquid lead (327 ℃).

4. Electric Heating

Resistance wires wrap around insulation or insulators. It is lightweight, simple, and easy to adjust without needing pumps or furnaces. While safer and cheaper to install, operating costs are higher with thermal efficiency below 85%. Ideal for temperatures below 400 ℃.

Specification

Working Volume Full Volume (L) Vessel Diameter (mm) External Coil Area (m²) Inner Coil Area (m²) Motor (kw)
500L 550 900 2.438 2 2.2
1000L 1100 1100 2.867 2.6 4
1500L 1650 1200 3.537 3.1 4
2000L 2200 1300 4.165 3.8 5.5
3000L 3300 1500 5.569 5.4 7.5
6000L 6600 1800 10.323 8.7 15
10000L 11000 2200 50.345 10.9 22
20000L 22000 2400 101.679 13.8 55

Frequently Asked Questions

Q: Why is the outer half tube design better than a traditional jacket?
A: It reduces the wall thickness of the vessel, improves load-bearing capacity, and enhances heat transfer efficiency while saving energy and steel.
Q: What is the maximum temperature for steam heating?
A: Saturated steam is typically used between 100-180 ℃. For higher requirements, high-pressure superheated steam is utilized.
Q: When should I choose electric heating for my reactor?
A: Electric heating is suitable for temperatures below 400 ℃, especially where simple installation is preferred and electricity prices are lower.
Q: Can this reactor handle extremely high temperatures above 500 ℃?
A: Yes, by using molten salt as a heating medium, temperatures between 140-540 ℃ can be achieved.
Q: Does the half tube design affect the workshop layout?
A: Yes, it is beneficial. By reducing the overall diameter of the reactor body, it allows for a more efficient and compact workshop layout.