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AXON-Servo 12
CNC Profile Bending Machine

About AXON-Servo 12
CNC Profile Bending Machine

The AXON-Servo 12 is the ideal solution for bending small steel or aluminum profiles, such as LED lighting frames, especially in restricted workspaces. This model features a full-servo drive architecture: both the X-axis (feeding) and Y-axis (rotation) are driven by high-performance servo motors, delivering a robust 12-ton bending force. As a standard across the AXON-Servo series, it achieves a superior X-axis repeatability of ≤0.01 mm, ensuring maximum precision and consistency for high-volume aluminum bending projects.

  • Servo-controlled X-axis (bending axis): precise downward force application via servo-motor drive ensuring accurate positioning and repeatable bending results
  • Front shaft distance: min. 200 mm (optionally reduced for tight bending radii)
  • The Y-axis independently driven by synchronized servo motors: smooth and quiet operation with dynamic speed control, up to approx. 16 rpm
  • High-precision CNC control system: with automatic path correction and springback compensation
  • Bending direction away from the operator for enhanced operational safety
  • Intelligent control system with DXF / STEP import and automatic generation of bending programs

STRATOS & AXON-Servo
Technical Data for High-End Aluminum Extrusions


ModelAXON-Servo 12AXON-Servo 15AXON-Servo 25STRATOS 30STRATOS 40STRATOS 70
X-axis      
Max. Force X-axis (t)131525304070
Position Accuracy (mm)≤0.01≤0.01≤0.01≤0.02≤0.02≤0.02
DriverServo Motor * 1Servo Motor * 1Servo Motor * 1Servo Hydraulic* 1Servo Hydraulic * 1Servo Hydraulic * 1
Stroke Distance (mm)200200350300350600
Max. Insertion Width (mm)120120200200250530
Hydraulic Oil Volume (L)60100300
Y-axis      
Shaft DriveServo Motor * 3Servo Motor * 3Servo Motor * 3Servo Motor * 3Servo Motor * 3Servo Motor * 3
Dyn. Shaft Speed Ctrl. (rpm)1-15/ (Cust.)1-15/ (Cust.)1-15/ (Cust.)1-15/ (Cust.)1-15/ (Cust.)1-15/ (Cust.)
Torque (Nm)3,5006,0006,0008,00011,00030,000
Shaft Height / Custom (mm)200200250250300500
Shaft Dia Ø  (mm)50608080105150
Deflection Corrector/SupportsStandardStandardStandardStandardStandardStandard
Front Shaft Distance  (mm)280-600280-600270-600 | 400-1200/3D400-800450~1100680~1600
Z-Axis      
CNC-ControlOptionalOptionalOptionalOptional
Force X-axis (t)5101015
Position Accuracy (mm)0.10.10.10.1
Lifting Distance0-1200-1500-1500-200
DriverServo Motor*2Servo Motor*2Servo Motor*2Servo Motor*2
Control / Software      
Flexible PanelsStandardStandardStandardStandardStandardStandard
CNC  SystemStandardStandardStandardStandardStandardStandard
LanguageCN / EN / RUCN / EN / RUCN / EN / RUCN / EN / RUCN / EN / RUCN / EN / RU
IPC / Industrial Control *1OptionalOptionalOptionalOptionalOptionalOptional
Laser Radius Measure*2OptionalOptionalOptionalOptionalOptional
Capacity      
Min. Bending R (mm)100100100150150250
Max. Rolls Dia (mm)240240400/500 3D4006001000
Max. W Bending (mm)120 (H: 60)120 (H: 80)200 (H: 80)200 (W: 90)300 (H: 80)300 (H: 160)
Max. H Bending (mm)200 (W: 40)200 (W: 50)250 (W: 65)250 (W: 70)300 (W: 80)500 (W: 100)
*1: DXF, STEP Import, Automatically Create Process / Optional; *2: Automatic Laser Radius Measurement, Real-Time Automatic Adjustment, Accuracy: 0.03mm.

Advanced CNC Profile Bending for LED Lighting & Architectural Aluminum

Hello. I’m Lion, and if there’s one thing that really gets my gears turning—besides a perfectly sorted tool chest or a well-steeped pot of tea—it’s the marvelous engineering behind a properly bent piece of aluminum.
You see, most people look at a curved LED light or a window frame and think, “Oh, that’s a nice shape.” But they don’t understand the technical peril involved. It’s actually quite stressful.
Here is the situation, explained properly:

LED Fixture Aluminum extrusions: Precision and Surface Protection

Now, bending a thin-walled LED fixture extrusion is, frankly, a nightmare. If you’re not careful, the whole thing will ripple, wrinkle, or simply collapse like a soufflé in a thunderstorm. And because these bits are usually anodized or powder-coated, you can’t just buff out a scratch—there is absolutely zero tolerance for ham-fistedness. You have to be precise.

This is where the AXON-Servo 12 comes in. It uses full-servo micro-adjustment, which allows for incremental pressure control so delicate it wouldn’t bruise a peach. We’ve also designed specialized non-metallic tooling to ensure there’s no “metal-on-metal” unpleasantness. For the really thin, hollow bits, we use flexible internal supports—essentially giving the aluminum a spine—so the cross-section stays exactly as the designer intended. It’s methodical, and it works.

Mirror Frame Aluminum Profiles: Tight Radii and Closure Accuracy

When you’re making mirror frames, you’re dealing with incredibly tight radii and multi-segment arcs that have to meet up perfectly. If the closure is off by even a fraction of a millimeter, the whole thing is rubbish. The real enemy here is “springback.” You see, aluminum has a memory, and different batches of hardness mean it wants to boing back to a different shape every time.

The AXON series solves this with a standard springback compensation system. It’s a clever bit of kit that automatically adjusts the parameters so every frame closes with satisfying, Teutonic precision. Furthermore, the CNC system handles multi-radius bending in a single setup. It transitions from a straight line to a complex curve as smoothly as a Bristol 403 on a B-road. It’s quite lovely, really.

Small-to-Medium Thermal Break Profiles: Structural Integrity and Stability

Finally, we have the “Thermal Break” profile. This is a bit of an engineering sandwich: two pieces of aluminum joined by a PA66 insulation strip. The problem is that during a bend, the inner and outer sections want to move at different speeds. If you get it wrong, the insulation strip will snap or pop out, and you’re left with a twisted mess.

To fix this, you need to go slowly. The AXON-Servo uses three-axis independent drives to provide asymmetric power—basically compensating for that speed differential so the shear stress on the strip is minimized. We also use “grooved” support tooling to lock the thermal bridge in place. With 12 tons of thrust and high torque at low speeds, the machine just… eases it into shape. It’s a triumph of steady, sensible torque over brute force.

FAQ: Aluminum Profile Bending for LED Fixtures

Q1: How does CNC technology ensure consistency when bending large batches of LED profiles?

A: Traditional manual bending often struggles with uniformity due to material variations. CNC machinery solves this by using precise computer control and automated springback compensation. This ensures that every profile in a large batch remains consistent, typically maintaining tight tolerances of approximately ±0.01 mm to ±0.05 mm.

Q2: What types of shapes and materials can be processed for LED lighting fixtures?

A: While aluminum is the primary material used for its lightweight and thermal properties, CNC machines can handle various metals used in fixture manufacturing. By using specialized tooling and custom rollers, these profiles can be bent into a wide array of geometric shapes, including rectangles, triangles, ovals, and perfect circles.

Q3: How do advanced bending techniques prevent surface damage and profile distortion?

A: LED profiles are often thin-walled and sensitive. To prevent collapsing or surface marring, advanced techniques utilize customized internal supports and specialized tooling to hold the profile securely during deformation. This is crucial for maintaining the precise structural integrity required to fit LED diffusers and covers perfectly.

Q4: Can LED profiles be bent in different directions for varied lighting effects?

A: Yes. CNC bending offers the flexibility to bend profiles with the LED diffuser cover facing either inward or outward. This allows lighting designers to create solutions for both direct and indirect illumination, depending on the architectural requirements of the project.

Q5: What are the critical technical constraints to consider when bending LED aluminum profiles?

A: Successful bending depends on three primary technical factors: the Minimum Bending Radius, Material Temper, and Diffuser Compatibility. Every profile has a physical limit; exceeding the minimum radius will cause the channel to deform or the aluminum to crack. To prevent such failures in thin-walled extrusions, using the correct material temper (typically T3–T5) is essential for structural integrity. Finally, because standard rigid diffusers often cannot follow tight curves, specialized silicone or flexible covers are usually required to ensure a perfect fit in curved installations.