ASME SA209 Carbon Steel Embedded Finned Tube With AL1060 Fins For Power Plants
SA209 Embedded Finned Tube with Al1060 Fins is a type of high-efficiency heat exchange tube used in boilers, heat exchangers, and other thermal applications.
Here's a breakdown of its components and features:
1. SA209 Tube Base
2. Embedded Finned Design (Al1060 Fins)
Embedded (G-foot fins): The aluminum fins are mechanically bonded into grooves on the tube's outer surface, ensuring strong thermal contact and durability.
This method prevents air gaps, improving heat transfer efficiency compared to wound or welded fins.
3. Key Features & Benefits
Comparison with Other Finned Tubes
Feature | Embedded Finned Tube (Al1060) | Welded Finned Tube | Extruded Finned Tube |
Fin Bonding | Mechanically embedded | Welded (high temp) | Extruded (monolithic) |
Thermal Conductivity | High | High | Very High |
Cost | Moderate | Higher | Highest |
Durability | Good (resists loosening) | Excellent | Excellent |
Conclusion
The SA209 Embedded Finned Tube with Al1060 fins is a cost-effective, high-performance solution for applications requiring efficient heat transfer with corrosion resistance. Its embedded fin design ensures long-term reliability in demanding thermal environments.
Would you like details on suppliers or specific performance data.
Chemical Composition of ASME SA209 (ASTM A209)
Element | SA209 Grade T1 (%) | SA209 Grade T1a (%) |
Carbon (C) | 0.10–0.20 | 0.15 max |
Manganese (Mn) | 0.30–0.80 | 0.30–0.80 |
Phosphorus (P) | 0.025 max | 0.025 max |
Sulfur (S) | 0.025 max | 0.025 max |
Silicon (Si) | 0.10–0.50 | 0.10–0.50 |
Molybdenum (Mo) | 0.44–0.65 | 0.44–0.65 |
Notes:
T1a has a stricter carbon limit (≤0.15%) for improved weldability.
No chromium or nickel is required, making it a low-alloy steel.
Mechanical Properties of ASME SA209
Property | SA209-T1 | SA209-T1a |
Tensile Strength (MPa) | ≥415 (60 ksi) | ≥415 (60 ksi) |
Yield Strength (MPa) | ≥205 (30 ksi) | ≥205 (30 ksi) |
Elongation (% in 50mm) | ≥30 | ≥30 |
Hardness (Brinell HB) | ≤163 | ≤163 |
Additional Notes:
Heat Treatment: Usually supplied in annealed/normalized + tempered condition.
Max Operating Temp: Up to 454°C (850°F) for boiler applications.
Weldability: Good (preheat may be needed for thick sections).
Comparison with Other Boiler Tube Materials
Property | SA209 (T1/T1a) | SA213 T11 | SA210 A1 |
Alloy Type | C-Mo | Cr-Mo | C-Mn |
Max Temp | 454°C | 593°C | 454°C |
Corrosion Resistance | Moderate | High (due to Cr) | Low |
Cost | Medium | High | Low |
Key Applications of SA209 Tubes
Boiler tubes (low/medium pressure)
Superheater tubes (where creep resistance is needed)
Heat exchangers (compatible with finned designs like Al1060)
The SA209 Embedded Finned Tube with Al1060 fins is designed for high-efficiency heat transfer in demanding industrial applications. Its combination of a carbon steel base (SA209) and aluminum fins (Al1060) makes it ideal for environments requiring corrosion resistance, thermal efficiency, and mechanical durability. Below are its key applications:
1. Power Plants & Boilers
2. Petrochemical & Refining
3. HVAC & Industrial Cooling
4. Waste Heat Recovery Systems
5. Renewable Energy & Biomass Plants
Why Choose SA209 + Al1060 Fins?
✅ High Thermal Conductivity (Aluminum fins transfer heat efficiently).
✅ Corrosion Resistance (Al1060 protects against oxidation in humid/outdoor conditions).
✅ Mechanical Strength (SA209 tube withstands high pressure/temperature).
✅ Cost-Effective (Cheaper than stainless steel or copper-finned tubes).
Comparison with Other Fin Types
Application | Embedded Finned (SA209/Al1060) | Welded Finned (Stainless Steel) | Extruded Finned (Copper) |
Power Plants | ✔️ (Best balance of cost & performance) | ✔️ (High temp) | ❌ (Expensive) |
Petrochemical | ✔️ (Good corrosion resistance) | ✔️ (Better for harsh chem) | ❌ (Not suitable) |
HVAC Cooling | ✔️ (Lightweight & efficient) | ❌ (Overkill) | ✔️ (Best conductivity) |
Conclusion
The SA209 Embedded Finned Tube with Al1060 fins is most suitable for power generation, waste heat recovery, and industrial cooling where cost, efficiency, and durability are critical. It’s not recommended for extremely corrosive (e.g., acidic) or ultra-high-temperature (>500°C) environments where stainless steel or extruded fins would be better.