Buttweld Hot Induction Bend, Hot Induction Pipe Bending, Hot Bend Pipe Fittings, Custom Induction Bends : MSS-SP-43, ANSI/ASME B16.9, B16.28

Hot Induction Bend ASME B16.9
Torrent Alloys
Contact:

Galvanized Hot Induction Bend Specifications

  • Dimensions:

    ASME/ANSI B16.9, ASME B16.28, MSS-SP-43.

  • Size:

    2 inch (50 mm) to 24 inches (600 mm).

  • Type:

    Seamless, Welded, & ERW.

  • Thickness:

    Schedule 5S, 10S, 20S, S10, S20, S30, STD, 40S, S40, S60, XS, 80S, S80, S100, S120, S140, S160, XXS.

  • Form:

    Standard Bends, Multi-Radius Bends, Tight Radius Bends, Segmented Bends, Swept Bends.

  • Materials:

    Stainless Steel, Carbon Steel, Alloy Steel, Super Duplex, Duplex Steel, High Nickel Alloys, Copper Nickel.

Renowned Manufacturer of Induction Bending, Hot Formed Bends, Induction Pipe Bending, Induction Bend Pipe, Hot Induction Bending with Backing Mandrel, Induction Elbow Bending, Multi-Radius Induction Bending, Thick-Walled Pipe Induction Bending - 2 inch to 24 inches.

A hot induction bend is a type of pipe bending process that uses electromagnetic induction to heat a section of the pipe to a high temperature, making it pliable enough to be bent into a desired shape. This technique allows for precise control over the bending process, resulting in smooth, consistent bends with minimal deformation or thinning of the pipe walls.

Hot induction bending is a precise method used for shaping pipes, involving the placement of the pipe in an induction bending machine. The section to be bent is positioned within an induction coil, which generates an alternating magnetic field. This field induces electric currents on the pipe's surface, causing it to heat up to a temperature typically ranging between 850°C and 1000°C (1562°F to 1832°F), depending on the material. Once the pipe reaches this high temperature, it becomes malleable, allowing the machine to apply pressure and bend the heated section to the desired angle and radius. This process offers the flexibility to create bends of various angles and radii, customized to meet specific project requirements.

After bending, the pipe is rapidly cooled using either air or water, depending on the material and the desired properties of the final bend. This quick cooling process helps set the bend and maintain the pipe's structural integrity. The final product may then undergo additional finishing processes, such as trimming, beveling, or inspection, to ensure it meets all required specifications. Hot induction bending is commonly used in industries such as oil and gas, power generation, and construction, where precision and durability are critical.

Hot induction bending offers several key advantages, making it a preferred method for shaping metal pipes and tubes. Its primary benefit is high precision, enabling exact control over bend angles and radii, which is crucial in applications with tight tolerances. The process minimizes deformation or thinning of the pipe walls, maintaining structural integrity and mechanical properties. Additionally, hot induction bending can accommodate a wide range of pipe sizes and thicknesses, offering flexibility for various industrial applications. The quick heating and bending process, followed by rapid cooling, ensures consistent results and reduces production time. This efficient and reliable method produces high-quality bends suitable for demanding environments like oil and gas, power generation, and construction.

ASME B16.9 / B16.28 Standards
MSS SP-43 Standards
DIN Standards
EN Standards
JIS Standards
BS Standards

ASME B16.9 Hot Induction Bend Dimensions

ASME B16.9 Hot Induction Bend Dimensions
Pipe Nominal Diameter Outside Diameter (OD) Wall Thickness (WT) Bend Radius (R) Bend Angle Push Force (P) Bend Roll Force (Fb)
DN 50 (2") 60.3 mm 3.91 mm 1.5D, 3D, 5D 45°, 90° 500 - 1000 N 300 - 700 N
DN 65 (2.5") 73.0 mm 5.16 mm 1.5D, 3D, 5D 45°, 90° 700 - 1400 N 400 - 900 N
DN 80 (3") 88.9 mm 5.49 mm 1.5D, 3D, 5D 45°, 90° 1000 - 2000 N 500 - 1100 N
DN 100 (4") 114.3 mm 6.02 mm 1.5D, 3D, 5D 45°, 90° 1500 - 3000 N 700 - 1500 N
DN 150 (6") 168.3 mm 7.11 mm 1.5D, 3D, 5D 45°, 90° 2500 - 5000 N 1000 - 2000 N
DN 200 (8") 219.1 mm 8.18 mm 1.5D, 3D, 5D 45°, 90° 4000 - 8000 N 1500 - 3000 N
DN 250 (10") 273.0 mm 9.27 mm 1.5D, 3D, 5D 45°, 90° 6000 - 12000 N 2000 - 4000 N
DN 300 (12") 323.9 mm 9.53 mm 1.5D, 3D, 5D 45°, 90° 8000 - 15000 N 3000 - 6000 N
DN 350 (14") 355.6 mm 9.53 mm 1.5D, 3D, 5D 45°, 90° 10000 - 20000 N 3500 - 7000 N
DN 400 (16") 406.4 mm 10.31 mm 1.5D, 3D, 5D 45°, 90° 12000 - 25000 N 4000 - 8000 N
DN 450 (18") 457.2 mm 10.31 mm 1.5D, 3D, 5D 45°, 90° 15000 - 30000 N 4500 - 9000 N
DN 500 (20") 508.0 mm 11.13 mm 1.5D, 3D, 5D 45°, 90° 18000 - 36000 N 5000 - 10000 N
DN 600 (24") 609.6 mm 12.70 mm 1.5D, 3D, 5D 45°, 90° 24000 - 48000 N 6000 - 12000 N

Tolerances of Hot Induction Bend

Parameter Tolerance Description Tolerance Value
Outside Diameter (OD) For D ≤ 16" (406.4 mm) ±1% of OD or ±1.5 mm, whichever is greater
For D > 16" (406.4 mm) ±1% of OD
Wall Thickness Standard Wall ±10% of nominal wall thickness
Heavy Wall (e.g., Schedule 80 and above) ±12.5% of nominal wall thickness
Bend Angle 0° to 90° Bends ±0.5°
Bends Greater than 90° ±1°
Centerline Radius (CLR) All Sizes ±1% of nominal centerline radius
Ovality For D ≤ 16" (406.4 mm) ≤ 3% of nominal OD
For D > 16" (406.4 mm) ≤ 2% of nominal OD
Straight End (Tangents) Length Short Tangents ±25 mm
Long Tangents ±50 mm
Bend Plane Deviation from Specified Bend Plane ≤ 5 mm for every meter of bend length
End Squareness For End Preparation (beveled or plain ends) Squareness deviation ≤ 1.5 mm (OD ≤ 16")<br>Squareness deviation ≤ 2.0 mm (OD > 16")
Surface Quality Free from cracks, fissures, and other defects Minor surface imperfections allowed based on severity and application
Dimensional Inspection Measurement Tools Templates, gauges, laser measurement systems

APPLICATIONS INDUSTRIES

Hot induction bends are widely used across various industries for their precision and durability. In the oil and gas sector, they facilitate smooth pipeline construction and offshore operations. Power generation facilities use them in critical piping systems, while the chemical and petrochemical industries rely on them for safe and efficient fluid transport. In construction, they are integral to HVAC systems and plumbing, and they also play a crucial role in mining, water treatment, and shipbuilding. Their ability to handle high temperatures and pressures makes them essential in these demanding applications.

Oil and Gas Industry
Chemical and Petrochemical Industry
Power Generation
Water Treatment
Food and Beverage Industry
Pharmaceutical Industry
Pulp and Paper Industry
Shipbuilding and Marine Industry
HVAC - Heating, Ventilation, and Air Conditioning