Edge treatment depends on tool specification, contact conditions, feed speed and the number of passes. Record these together with the accepted result; a pressure setting alone does not define the finished edge.
Flexible tools can reach accessible contour edges differently from a planar belt. Access depends on the opening, tool shape and part support. Inspect the hole rim and cut wall separately.
Where suitable tooling reaches the cut face, a separate cleaning stage can address cut-edge oxide. Confirm cleanliness and the subsequent coating result against the specified acceptance method.
Stored settings provide a starting point for repeat work. Check the result when material, tooling condition or incoming edge quality changes; recalling a recipe does not replace inspection.
Brush deburring uses flexible tooling to treat suitable edges, holes and internal contours. The result depends on brush type, abrasive selection, part geometry and contact settings. Belt and brush stages can serve different roles within the same machine configuration.
The practical consequence is that a brush is rarely the first stage. When a part arrives with a strong laser or punching burr, the burr should be reduced by a belt or heavy-deburring station first. The brush then works on the edge that is left, and that is where a controlled broken or rounded profile is created. Asking a brush to do both jobs at once usually means slow throughput, fast consumable wear and an inconsistent edge.
Brush tooling is also the stage that decides how a part looks and behaves afterwards. Where a coated part needs oxide removed or a surface prepared before painting, that work belongs to a brush or finishing station in a Surfacer® sequence, selected from the tooling that has been tested on your material.
Belt and brush are complementary, not competing. The correct question is not which one is better, but in which order they should run for the burr condition you actually have.
See the complete TFON deburring and edge rounding range or review automatic deburring and line integration.
Review edge rounding and laser oxide removal as separate tooling and acceptance requirements.
Brush deburring is the right choice when the job is more about the edge than about removing a heavy burr. Use it when:
On its own, a brush is the wrong tool for heavy slag from plasma or oxy-fuel cutting, or for a strong, attached burr. Those need a heavy deburring or belt station first; the brush then finishes the edge that is left. Like all Surfacer machines, brush stations work one face per pass.
| Machine | Stations | Brushes | Typical parts |
|---|---|---|---|
| TF-R-3013: 1300 mm edge rounding machine / TF-R-2510 | Brushes only: edge rounding and oxide removal | 8 × Ø350 mm / 6 × Ø300 mm | Burr-free laser-cut parts |
| TF-RB-3013: 1300 mm deburring machine / TF-RB-2510 | Belt, then brushes | 8 × Ø350 mm / 6 × Ø300 mm | Laser-cut and punched parts with a burr |
| TF-RBC-3013: 1300 mm slag removal and deburring machine / TF-RBC-2510 | Heavy deburring, belt, then brushes | 8 × Ø350 mm / 6 × Ø300 mm | Plasma and oxy-fuel cut plate |
TFON supplies the brushes: flap brushes in Ø300 × 400 mm and Ø350 × 490 mm with grits from 60 to 400 and a service life of up to 1500 hours depending on use, and oxide removal brushes with a service life of up to 250 hours.
How burr removal and edge treatment serve different roles in a Surfacer process sequence.
| Question | Burr removal before edge treatment | Edge treatment on already-deburred parts |
|---|---|---|
| Incoming condition | A projecting burr or attached residue needs a suitable removal stage. | The burr is absent or has already been removed. |
| First check | Verify removal at the outside contour, holes and slots. | Define the required profile and the edges to be treated. |
| Internal features | A belt may contact an exposed rim; it does not automatically clean a recessed wall. | Tool access still depends on opening size, shape and support. |
| Surface effect | Inspect the face for changes caused by material removal. | Inspect the face and profile after edge treatment. |
| Production estimate | Include all stations, passes, turning and handling. | Include loading, treatment, unloading and inspection. |
Edges, holes and contours that a straight belt contact cannot reach cleanly.
Flexible tooling may contact accessible opening edges. Access to a recessed cut wall depends on the opening, tool shape and part support; inspect the rim and wall separately.
Sharp cut edges are taken back to a repeatable broken or rounded profile once the incoming burr has already been reduced.
Suitable tooling can treat accessible cut-edge oxide. Inspect cleanliness and evaluate the subsequent coating against the specified acceptance criteria.
After suitable burr removal, an edge-treatment stage can work the remaining profile. Confirm whether the required result is achieved in one pass or needs additional processing.
Brush wear, contact pressure and station height decide whether a brush result stays repeatable.
As tooling wears, check the working position and the accepted edge profile. Adjustment requirements depend on the tool, machine configuration and application.
Contact pressure, feed speed, tooling condition and the number of passes affect material removal. Record the settings together with the inspected edge result; pressure alone does not define the profile.
Select the processing stages from the incoming burr and the required edge or surface result. Confirm the available sequence for the proposed machine configuration.
A saved recipe restores an approved starting setup. Inspect repeat parts when material, incoming edge condition or tooling wear changes.
These images illustrate TFON processing examples. Material, tooling and results for your application should be confirmed through sample evaluation.
Brush tooling, station count and working width move the cost more than the frame itself.
Send sample parts and we will confirm which brush sequence matches your edge requirement.
Send parts for a brush test
