| Customization: | Available |
|---|---|
| Function: | Storage Pressure Vessel, Separation Pressure Vessel, Heat Pressure Vessel, Reaction Pressure Vessel |
| Application: | Gas |
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| Product Name | Pressure vessel Fermentation Tank in Alcohol Project |
| Material | Killed Carbon Steel: Q345R/SA516-60/SA516-70; Low Temperature Carbon Steel: 16MnDR/09MnNiDR/SA516-60/SA516-70/SA537 Cr-Mo Steel: 15CrMoR/14Cr1MoR/12Cr2Mo1R/SA387 Gr.12-2/SA387 Gr.11-2/SA387 Gr.22-2 Stainless Steel: S30408/S31603 Duplex Stainless Steel:2205/2507 Super Austenitic Steel:904L/254SMO/AL6XN Nickel Base Alloy:Hastealloy/Monel/Incoloy Other Corrosion Resistance Metal: Titanium/Zirconium Clading Plate |
| Function | Storage Pressure Vessel,Separation Pressure Vessel,Heat Pressure Vessel, Reaction Pressure Vessel |
| Application | High temperature steam energy storage tank,manifold,oil storage tank,Stainless steel helium tank,Diesel oil tank,Heat exchanger, air tank |
Shell and tube Heat Exchangers represent the most widely used vehicle for the transfer of heat in industrial process applications. They are frequently selected for such duties as:
Process liquid or gas cooling
Process or refrigerant vapor or steam condensing
Process liquid, steam or refrigerant evaporation
Process heat removal and preheating of feed water
Thermal energy conservation efforts, heat recovery
Compressor, turbine and engine cooling, oil and jacket water
Hydraulic and lube oil cooling
Many other industrial applications
Shell and tube Heat Exchangers have the ability to transfer large amounts of heat in relatively low cost, servicable designs. They can provide large amounts of effective tube surface while minimizing the requirements of floor space, liquid volume and weight.
Shell and tube exchangers are available in a wide range of sizes. They have been used in industry for over 150 years, so the thermal technologies and manufacturing methods are well defined and applied by modern competitive manufacturers.
Tube surfaces from standard to exotic metals with plain or enhanced surface characteristics are widely available. They can help provide the least costly mechanical design for the flows, liquids and temperatures involved.
Fixed Tube Sheet, 2-Pass Heat Exchanger
There are two distinct types of shell and tube Heat Exchangers, based in part on shell diameter. Designs from 2" to around 12" in shell diameter are available that feature shell constructions of low cost welded steel, brazed pipe with hub forgings, cast end Bonnets and copper tubing rolled or brazed to the tube sheet. Models of this type generally use1/4" and 3/8" tubing and are frequently 2 or 4 pass for general industrial use.
The other major type of shell and tube Heat Exchanger generally is seen in shell diameters from 10" to over 100". Commonly available steel pipe is generally used up to 24" in diameter.
Above 24", manufactures use rolled and welded steel plate, which is more costly and roundness can become an issue.
Heat Exchangers of this type are commonly manufactured to the standards set forth by TEMA, the Tubular Exchangers Manufacturers Association. TEMA, in cooperation with users and manufacturers, establishes a common set of guidelines for the construction methods, tolerances and practices to be employed. This allows industrial consumers to obtain more than one manufacturers offerings and know that they are generally of similar design and construction. Additionally, it allows manufactures to establish industry approved designs and offer state of the art equipment that help to assure competitiveness and overall product reliability.
Oil and Gas Refinery Project / Tender Sub-Contractor Sound Quality Affordable CS /Ss Shell and Tube Heat Exchanger /Pressure Vessel
Although there exists a wide variety of designs and materials available, there are components common to all designs. Tubes are mechanically attached to tube sheets, which are contained inside a shell with ports for inlet and outlet fluid or gas.
They are designed to prevent liquid flowing inside the tubes to mix with the fluid outside the tubes. Tube sheets can be fixed to the shell or allowed to expand and contract with thermal stresses by have one tube sheet float inside the shell or by using an expansion bellows in the shell. This design can also allow pulling the entire tube bundle assembly from the shell to clean the shell circuit of the exchanger.
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