ROBA PROFIEDGE

Moving-tool edge sanding · Applied by Titan

ROBA PROFIEDGE

A programmable edge-sanding platform that clamps large doors, panels, window parts and stair components in place while a frequency-controlled double-brush carriage moves along the edge. Three working areas, opposing tool rotation, 200 mm spindle flexibility, jump control, oscillation and productive return strategies turn difficult profiled edges into a controlled stationary-workpiece process.

1,100, 2,400 or 3,600 mm areasStationary pneumatic clamping200 mm flexible tool spindlesProgrammed outbound + return paths
Keep large parts stationary
Sand in both directions
Protect corners with jump control
Select tools pneumatically
Program productive return paths
Prepare profile-ready edges

The actual production problem

The larger the part, the less sense it makes to move the part.

ROBA Profi Edge holds the workpiece under a pneumatic pressure bar and moves a programmable double-brush carriage instead—separating edge quality from the operator’s ability to guide a heavy panel past a fixed tool.

Large parts should not be dragged past the abrasive

Long cabinet fronts, doors, stair components, window parts and panels become difficult to guide consistently when the operator must move the entire workpiece along a sanding tool.

ROBA Profi Edge clamps the workpiece under a pneumatic pressure bar while the double-brush carriage travels through the encapsulated machine.

End grain and long grain need opposing access

A single rotation direction can favour one fibre orientation and leave another standing. Solid-wood end grain, MDF fibres and profiled transitions do not present one uniform sanding direction.

The extra-large double-brush tools rotate frequency-controlled clockwise and counterclockwise so the released process can approach fibres from both directions.

The corner reveals an uncontrolled engagement

A process can look acceptable along the long run and still soften or over-round the entry and exit corners. More passes usually make that defect worse.

Jump control defines where the tool engages and disengages, while the programmed processing speed governs travel through the actual sanding zone.

One spindle must carry more than one edge language

Straight edges, fine profiles, chamfers and coating stages need different brush geometry and support. A fixed 200 mm cylindrical tool cannot be ideal for every family.

Each 200 mm spindle can carry one full-height cylindrical brush, two stacked 100 mm tools, or application-selected chamfered tooling that the program positions pneumatically.

Application fit

Start with the problem—not the model name.

The strongest fit combines large or awkward parts, profiled edge families, demanding corners and enough repeat work to benefit from programmed tool travel.

01 / CABINET DOORS

Four-edge furniture-front sanding

The stationary-part cycle supports cabinet doors and panels whose four edges are processed by rotating the part 90 degrees between released passes.

  • Profile and corner master
  • Short-side-first route defined
  • Coating stage identified
  • Final four-edge acceptance
02 / DOORS & PANELS

Large profiled edges without moving the part

Pneumatic clamping and a moving sanding carriage are well suited to larger workpieces that are awkward to pass manually across a fixed edge tool.

  • 1,100, 2,400 or 3,600 mm area selection
  • Stable clamping surface
  • Workpiece flatness control
  • Loading clearance planned
03 / WINDOWS & STAIRS

Solid-wood and end-grain edge preparation

Opposing brush rotation helps address changing fibre direction around window, stair and joinery components. The actual tool and motion program are proven on the species and profile.

  • End-grain sample included
  • Long-grain profile included
  • Corner rounding limit
  • Stain or clear-finish check
04 / MDF & COATING

MDF, primer and intercoat edge sanding

For MDF and coated edges, tool geometry, grit, support and jump points are selected to remove fibres or denib the film without changing profile definition.

  • Raw and coated samples
  • Breakthrough limit
  • Two-tool sequence if required
  • Inspection after next coat

Finished edge first

Select the process from the surface backwards.

Configure from the accepted coated edge backward through substrate, profile, corner, clamp surface, spindle stack, tool direction, jump points and motion program.

The next finish layer decides whether the edge process worked.

Use matched raw, accepted and rejected parts. Define the fibre, scratch, profile or coating defect and the maximum permissible change at every corner and high point.

Work area, clamp, tool stack, double-brush rotation, carriage motion, oscillation, extraction and inspection are engineered as one cell.

Prove the longest, most profiled and most finish-sensitive edge.

Material

Start with fibre and film

Record MDF grade, species, edge construction, primer, lacquer, cure and the amount of material or coating the process may safely remove.

Geometry

Map the edge and clamping face

Define length, height, profile depth, corners, end grain, inside details and the surface available for the pneumatic pressure bar.

Tooling

Choose full-height, stacked or chamfered

Use one 200 mm cylindrical tool, two 100 mm tools with distinct grits, or chamfered tools where profile access requires an inclined sanding field.

Motion

Program approach, engagement and return

Define high-speed approach, programmed sanding feed, travel direction, jump points, oscillation and whether the return is rapid, productive or uses another tool.

Acceptance

Release the complete four-edge result

Inspect fibre removal, scratch, profile, corners and coating breakthrough after all rotations, then verify the result through the normal next finish stage.

Machine architecture

Clamp the part. Move the process. Control every return.

The encapsulated Profi Edge combines a stationary workpiece, travelling double brush, opposing tool rotation, flexible spindles and programmable motion states.

Stationary workpiece

Clamp the part instead of carrying it

A pneumatic pressure bar holds the workpiece while the sanding carriage moves. Large parts remain supported rather than being manually guided along the tool.

Clamping surface, part construction and allowed pressure are confirmed on the real family.

Mobile support

Move the double brush along the edge

The MB double-brush aggregate is mounted on a travelling support inside the encapsulated machine. The carriage approaches in high-speed mode and crosses the sanding region at programmed processing speed.

Opposing rotation

Address fibres from both directions

Extra-large sanding tools rotate frequency-controlled clockwise and counterclockwise. This provides two directional approaches for solid-wood end grain, MDF fibres and changing profiles.

Jump + oscillation

Protect corners and use the media evenly

Jump control manages engagement around part ends to reduce over-rounding. Aggregate oscillation distributes wear across the abrasives and supports a consistent result.

200 mm spindles

Build the tool stack around the edge

Each 200 mm spindle can accept one 200 mm cylindrical brush or two 100 mm stacked tools that may use different grits. Chamfered sanding areas support more complicated contours.

Programmed tool position

Bring the selected tool into the process

The sanding program stores which tool is required for a family. Pneumatic positioning selects the intended tool so different outbound and return passes can perform different jobs.

Technical specifications

Core process architecture, configured around the application.

ROBA Profi Edge combines three working areas with programmable tooling and motion architecture. Final motor, utility, footprint and output requirements are confirmed for the selected cell.

Machine category
Programmable stationary-workpiece edge-sanding machine
Applications
MDF, white wood, MDF primer and intermediate lacquer
Production fit
Joinery, industrial, cabinet-door, door, window and stair production
Working areas
1,100 mm, 2,400 mm and 3,600 mm
Workpiece control
Pneumatic pressure bar clamps the stationary part
Processing unit
Travelling MB double-brush aggregate
Tool rotation
Frequency-controlled clockwise and counterclockwise
Corner control
Programmable jump control
Abrasive utilization
Aggregate oscillation
Spindle length
200 mm
Full-height tool
One 200 mm cylindrical brush
Stacked-tool option
Two 100 mm tools, potentially with different grits
Profile-tool option
Chamfered sanding areas for complicated contours
Tool selection
Stored in program and pneumatically positioned
Carriage motion
High-speed approach; programmed processing speed in sanding area
Cycle options
Rapid return, productive return, or second-tool return
Grouped processing
Multiple parts side by side within selected working area
Motor and installed power
Configuration dependent
Confirmed for selected work area and options
Compressed air and extraction
Configuration dependent
Engineered for clamp, tool positioning, media and duty
Footprint and weight
Configuration dependent
Confirmed at quotation
Sustained output
Configuration dependent
Representative timed four-edge trial with accepted yield

Throughput strategy

Measure accepted four-edge parts—not carriage speed.

Loading, clamping, high-speed approach, productive travel, return strategy, tool changes, rotation, inspection and finish yield determine sustained output.

Build capacity from the complete effective cycle.

Time representative families from staging through every edge, rotation and final acceptance.

Sustained good output = available production time ÷ demonstrated effective four-edge cycle × first-pass yield

Grouped parts count only when loading, clamping and finish remain repeatable.

Work areaLonger travel changes productive and rapid time.
ProfileContour and fibre demand affect feed and passes.
Return modeRapid, same-tool and second-tool returns differ.
Tool stackFull-height and stacked tools change the route.
RotationEvery 90° handling step belongs in the cycle.
Grouped partsCombined length and spacing must be qualified.
Abrasive stateWear changes finish and repeat passes.
YieldOnly accepted four-edge parts count.

Recipe engineering

Turn every outbound and return path into a controlled decision.

Each program binds part, clamp, tool stack, rotation, travel direction, feed, jump points and finish acceptance.

01 / PART

Name the edge family

Bind material, dimensions, profile, corners, coating stage and clamping face to one controlled program.

02 / TOOL STACK

Assign every brush a purpose

Record full-height, stacked or chamfered tool geometry, grit, support, position and the defect each tool must remove.

03 / OUTBOUND

Define the first productive pass

Control selected tool, direction, rotation, processing feed, jump points and oscillation from the right parking position.

04 / RETURN

Decide whether the return is rapid or productive

Return at high speed, sand with the same tool, or pneumatically select a second tool for a different process on the return path.

05 / FIRST OFF

Approve the complete rotation sequence

Inspect all edges and corners after a tool, material, profile, program, coating or clamping change.

06 / FEEDBACK

Trace finish results to program state

Link sanding defects and downstream rework to part family, tool stack, direction, speed, jump settings and abrasive condition.

Usage by surface

One carriage. Different definitions of a finished edge.

MDF, wood, primer and lacquer each receive their own tools, motion program and rejection limit.

MDF

Cut raised fibres and retain profile definition

Select slotting, support and tool approach from the milled texture, then prove the edge under the actual primer.

WHITE WOOD

Work with changing grain direction

Species, moisture, long grain, end grain and final colour define the opposing-rotation recipe and corner limit.

MDF PRIMER

Denib within a controlled film

Use conservative tool support, feed and jump points so the surface is prepared without exposing the substrate.

INTERMEDIATE LACQUER

Prepare the next coat without witness marks

Cure, film build, edge geometry and final gloss determine the scratch and breakthrough standard.

Guides, tips and techniques

The ROBA Profi Edge ownership playbook.

This application framework supports qualified industrial teams and does not replace MB operating, programming, service or safety documentation.

Guide 01 — Build the full edge-and-clamp dossier

Bring drawings, smallest and largest parts, profile families, corner limits and the surfaces available for pneumatic clamping. Include raw, accepted and rejected coated samples.

Guide 02 — Prove outward and return passes separately

During development, record what the first direction contributes before making the return productive. Add opposing direction or a second tool only when it solves a named fibre, scratch or coating problem.

  1. Preserve an untreated reference.
  2. Record tool and rotation for each pass.
  3. Measure the processing feed.
  4. Inspect all entry and exit corners.
  5. Verify after the next coating stage.

Guide 03 — Build the 200 mm spindle deliberately

A full-height cylindrical brush maximizes one continuous field. Two 100 mm tools can separate grits or geometries. Chamfered tools improve access to selected contours. Qualify the stack as one system.

Guide 04 — Protect jump points by family

Engagement and disengagement positions depend on part length, profile, tool diameter, direction and corner standard. Store them in the released program and first-off any meaningful change.

Guide 05 — Clamp from a known condition

Verify the correct part, support surface, pressure-bar contact, program, tool position, extraction and clear work zone before the cycle. Use MB documentation for all setup limits.

Guide 06 — Use multiple parts only when the group is controlled

MB allows several workpieces to be clamped side by side when their combined long-side length fits the selected work area. The group receives its own loading, spacing and acceptance trial.

Guide 07 — Diagnose by direction and location

A fibre left only on one direction, a softened corner, a repeated scratch or coating breakthrough points toward different controlled reviews. Do not correct every symptom with extra passes.

Guide 08 — Sustain carriage, tooling and dust control

Maintenance follows MB schedules for brushes, spindles, oscillation, carriage travel, pressure bar, pneumatic positioning, extraction and safety devices. Guarded service remains authorized work under prescribed isolation.

Deployment sequence

Move from manual part guidance to measurable edge control.

Baseline handling and finish loss, prove the full geometry, select the correct work area and protect the accepted tool/motion programs.

01 / BASELINE

Measure today’s edge process

Record manual movement, setup, sanding time, corner correction, touch-up, abrasive changes and difficult part families.

02 / PROVE

Test the worst geometry and finish

Run representative long, tall, profiled, end-grain and coated edges through candidate tool stacks and motion programs.

03 / SELECT

Choose the correct work area

Match 1,100, 2,400 or 3,600 mm configuration to the part envelope, multi-part strategy, floor space and output target.

04 / DEPLOY

Commission the complete cell

Prepare loading, support, clamping, extraction, tooling, inspection, training and exception routing.

05 / SUSTAIN

Own programs and abrasive condition

Control tools, jump points, speeds, first-off checks, maintenance and downstream finish feedback.

Deployment strategies

Choose the work area from the production envelope.

The three working-area lengths change more than maximum part size; they define support, grouped loading, footprint and the time structure of every cycle.

DB-1100 compact production cell

The 1,100 mm working-area version supports smaller doors, panels and grouped components where stationary clamping and a controlled travelling aggregate replace manual part movement.

  • Confirm full edge length
  • Prove 90° part rotation
  • Use grouped loading only when qualified
  • Protect loading and service access

DB-2400 large-part workstation

The 2,400 mm version expands the supported edge range for larger doors, windows, stair parts and panels while preserving programmed carriage motion and pneumatic clamping.

  • Engineer part support
  • Confirm pressure-bar contact
  • Plan operator rotation and staging
  • Time the complete four-edge cycle

DB-3600 long-edge platform

The 3,600 mm version addresses very long components or productive side-by-side loading where the combined long-side length remains within the working area.

  • Design long-part handling
  • Validate carriage travel and clearances
  • Balance grouped workpieces
  • Measure accepted output—not occupancy

Business-case framework

Value the stationary part across the whole finish route.

Include handling, edge yield, coating rework, tooling, utilities, training and only the productive-return strategies proven on real parts.

Handling and labour

Count every large-part movement removed

Measure present effort to carry, guide and stabilize large workpieces, plus the time spent correcting inconsistent pressure or travel.

Finish yield

Count fibres, corners and coating defects

Include re-sanding, primer repair, edge breakthrough, visible scratch, rounded corners and remakes after finishing.

Tooling and utilities

Price the approved spindle package

Use demonstrated full-height, stacked and chamfered tools, abrasive life, motor load, pneumatics and extraction from the selected proposal.

Flexible capacity

Value productive return paths and grouped parts

Credit only the two-direction, two-tool or side-by-side strategies that repeat the accepted result without increasing handling or rejection.

Application package

Build the right Profi Edge around real geometry.

Representative parts, clamping surfaces, coating data and site constraints create the work-area, tooling and acceptance basis.

01 / PARTS

Send the complete edge range

  • Minimum and maximum dimensions
  • Profile depth and corners
  • Clamping surface and part construction
  • Raw, accepted and rejected samples
  • Grouped-part candidates
02 / PROCESS

Document tools and finish

  • Current sanding and handling
  • Material and coating route
  • Tool or abrasive standards
  • Rework, scrap and yield
  • Family mix and output target
03 / SITE

Design the complete cell

  • Electrical capacity
  • Compressed air and extraction
  • Loading, rotation and staging space
  • Inspection and tool storage
  • Training, approvals and service

Complete at quotation

Close every configuration gap before the PO.

Your complete ROBA Profi Edge proposal confirms the 1,100, 2,400 or 3,600 mm work area; minimum and maximum part envelope; pneumatic pressure-bar scope; double-brush, 200 mm spindle and selected tool package; motor and installed power data; electrical supply; compressed air; extraction; machine footprint and weight; loading, operating and service clearances; approvals; options; and expected output for your exact application.

It also defines frequency-controlled rotation, jump control, oscillation, pneumatic tool positioning, rapid and processing speeds, outbound/return programs, grouped-part rules, guarding, commissioning, training, representative edge acceptance, first-pass-yield basis, abrasive spares, maintenance and technical support as one coordinated cell.

Working width & part envelope
Aggregate & disc-tool sequence
Electrical & installed power
Compressed air & extraction
Hold-down & small-part transport
Footprint, weight & clearances
Demonstrated output & yield basis
Training, service & acceptance
Industrial sanding equipment is installed, operated and serviced by qualified personnel under the machine documentation and the site’s engineered safety, dust-control and energy-isolation programs.

ROBA Profi Edge FAQ

Questions that shape the right machine package.

The selected proposal supplies exact power, utilities, dimensions, tooling and output basis.

What is ROBA Profi Edge designed to sand?

ROBA Profi Edge is designed for profiled edges and panels in MDF, white wood, MDF primer and intermediate lacquer applications.

Which working areas are available?

Available working areas are 1,100 mm, 2,400 mm and 3,600 mm.

Does the operator move the workpiece during sanding?

No. A pneumatic pressure bar clamps the stationary part while the double-brush carriage moves along the edge inside the machine.

How does the aggregate process changing fibre directions?

Its extra-large tools rotate frequency-controlled clockwise and counterclockwise, providing opposing approaches to the edge.

How are corners protected?

Jump control manages tool engagement and disengagement to reduce over-rounding at part ends.

What tools fit the spindles?

Each 200 mm spindle can carry one 200 mm cylindrical brush, two stacked 100 mm tools with potentially different grits, or application-selected chamfered tools.

How is a selected tool brought into use?

The tool choice is stored in the sanding program and the required position is selected pneumatically.

Can the return pass also sand?

Yes. The return can be rapid, productive with the same tool, or use another pneumatically selected tool.

Can multiple parts be processed together?

Yes, when they are clamped side by side and their combined long-side length remains within the working area. The grouped setup must be qualified.

What are the power and sustained output?

Final power and sustained output depend on the selected configuration and application. The quotation and representative timed trial establish those values.

ROBA Profi Edge application review

Bring us the large edge that defines the cell.

Share the longest, most profiled and most finish-critical door, panel, window or stair component, plus its clamping surface and coating route. We use that evidence to frame work area, spindle tooling, motion program, utilities, output and acceptance.

  • Part dimensions, profile and corners
  • Material and coating stage
  • Clamping face and handling method
  • Current edge burden and required output
  • Electrical, air and extraction infrastructure
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