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Tru-Trac
The Tru-Trac SystemEngineering brief · 05 zones

The conveyor is a system. Control it like one.

A belt tracker does not work in isolation. A cleaner cannot solve carryback if the belt is unstable. An impact bed cannot protect the system if loading remains uncontrolled. Conveyor performance depends on how each zone behaves before, during, and after material transfer.

The framework

  1. 01Understand the operating conditions.
  2. 02Identify the failure mode in each zone.
  3. 03Specify the right product family for the duty.
  4. 04Install to a documented commissioning standard.
  5. 05Monitor the result and intervene before damage compounds.
  1. Zone 01Load & TransferWhere many conveyor problems begin.
  2. Zone 02Carry-SideStabilise the belt after loading.
  3. Zone 03DischargeCarryback begins at the discharge point.
  4. Zone 04Return-SideCarries the consequences of poor cleaning.
  5. Zone 05MonitoringVisibility before damage compounds.

02 / Interactive conveyor

Explore the conveyor by zone of control.

Hover any zone to highlight its position on the conveyor. Click to open the zone’s failure modes, associated product families, and assessment routes.

03 / Zones of control

Five zones.
One conveyor performance standard.

Each zone has its own failure modes, its own product families, and its own inspection logic. Together they form the engineering standard behind every Tru-Trac deployment.

  1. 01Zone

    Load & Transfer Zone Control

    The load and transfer zone is where many conveyor problems begin. Off-centre loading, unstable material impact, poor chute behaviour, belt sag and poor containment can create belt instability, spillage, impact damage and downstream mistracking.

    Failure modes addressed

    • Off-centre loading
    • Unstable material impact
    • Belt sag at load point
    • Spillage at transfer
    • Mistracking after loading
  2. 02Zone

    Carry-Side Tracking

    The carry side must stabilise the belt after loading and before drift becomes edge contact, material escape, belt damage or structural interference. This is where mechanical correction at the right position keeps the belt within its operating envelope.

    Failure modes addressed

    • Belt drift after loading
    • Edge damage from structural contact
    • Material escape on carry run
    • Tracking instability under variable load
  3. 03Zone

    Discharge & Cleaning

    The discharge point determines how much material returns through the system. Poor cleaning creates carryback, return-side contamination, clean-up load, pulley build-up and safety exposure. Primary, secondary and specialist cleaners control material at the source.

    Failure modes addressed

    • Carryback past the head pulley
    • Pulley material build-up
    • Return-side idler contamination
    • Clean-up labour and safety exposure
  4. 04Zone

    Return-Side Stability

    The return side can either preserve control or reintroduce instability. Carryback, pulley build-up, seized idlers and return-side drift can restart the failure cycle after the belt leaves the discharge point. Dual return trackers, ploughs and pulley protection hold the belt true.

    Failure modes addressed

    • Return-side belt drift
    • Idler seizure from contamination
    • Tail pulley build-up
    • Material trapped on belt
  5. 05Zone

    Monitoring & Protection Layer

    Monitoring and protection systems help operations detect risk, measure performance and intervene before damage escalates. They support planned maintenance rather than emergency response — and provide the data layer that makes performance partnership possible.

    Failure modes addressed

    • Undetected damage
    • Delayed intervention
    • Lack of operating data
    • Reactive maintenance posture

04 / Why problems repeat

Most conveyor problems repeat because they are treated as isolated failures.

A mistracking belt is adjusted. A cleaner blade is replaced. A seized idler is changed. Spillage is cleaned up. The conveyor starts again.

But if the underlying cause remains, the same problem returns in another form. Misalignment causes belt-edge damage. Carryback contaminates return idlers. Poor loading creates tracking instability. Impact damage affects belt behaviour downstream.

The Tru-Trac System exists to break that cycle.

  1. MisalignmentBelt-edge damage and structural contact.
  2. CarrybackReturn-side idler contamination and seizure.
  3. Poor loadingMistracking and impact damage downstream.
  4. Deferred inspectionStoppages clustered into emergency response.
  5. Reactive maintenanceThe same conveyor restarts the same cycle.

05 / Symptom diagnostic

The visible symptom is not always where the problem starts.

Use this to connect what you see on site to the zone that may actually need assessment. Detailed investigation logic is handled during a system assessment.

  1. 01Belt drifting after loadingLoad & Transfer / Carry-Side TrackingAssessment, trough trackers, idler frames, load-zone review.
  2. 02Material build-up on return idlersDischarge & Cleaning / Return-Side StabilityPrimary and secondary cleaners, ploughs, return-side inspection.
  3. 03Spillage at transfer pointLoad & Transfer ZoneImpact beds, skirting, sealing, chute behaviour review.
  4. 04Edge damage or structural contactCarry-Side Tracking / Return-Side StabilityTrackers, structure review, installation position assessment.
  5. 05Tail pulley contaminationDischarge & Cleaning / Return-Side StabilityPloughs, cleaners, pulley protection.
  6. 06Undetected damage or delayed interventionMonitoring & Protection LayerRip detection, metal detection, inspection reporting, monitoring systems.

The failure loop · system view

The failure is not isolated. It compounds.

A mistracking belt causes spillage. Spillage drives idler wear. Idler failure damages the belt. Stoppages trigger emergency maintenance. Emergency maintenance defers proper inspection.
The loop only breaks when the conveyor is treated as a system.

Stage count

7stages

Each failure compounds the next.

System type

Self-reinforcing

No single intervention breaks the cycle.

01
Belt misalignment
02
Carryback & spillage
03
Idler wear & failure
04
Belt damage
05
Unplanned stoppage
06
Emergency call-out
07
Deferred inspection

Reactive cycle

Failure compounds
the next failure

Live readout

Stage 01 / 07

Belt misalignment

Controlled outcome

−62%

Average reduction in unplanned stoppages once the loop is broken at source.

Reactive vs Controlled

The same conveyor. Two ways to operate it.

Six recurring behaviours that separate a conveyor managed as a system from one managed in pieces.

No.Reactive Controlled
  1. 01Belt drift adjusted, root cause ignoredMisalignment corrected at source
  2. 02Carryback treated as normalCarryback reduced through correct cleaning and tracking
  3. 03Idlers replaced on failureIdler wear monitored and scheduled
  4. 04Belt damage handled through emergency repairBelt life protected through load-zone control
  5. 05Stoppage absorbed as production costStoppages planned, budgeted, and reduced
  6. 06Same belt, same problem, next quarterPerformance compounds instead of failure

06 / Specification logic

Specify for the operating conditions,
not only the component category.

The correct conveyor component is not selected by product category alone. It is specified against the operating conditions of the conveyor and the failure mode being controlled.

  1. 01Belt width and speed
  2. 02Tension and load profile
  3. 03Material and commodity
  4. 04Moisture, abrasion and temperature
  5. 05Loading condition and chute behaviour
  6. 06Carryback and spillage pattern
  7. 07Existing structural constraints
  8. 08Access for installation and maintenance
  9. 09Failure history and stoppage impact

Full input checklist · gated

The complete operating-condition checklist, drawing review protocol, and zone-specific specification logic are part of the Tru-Trac assessment. Submit the public inputs to start.

07 / Commercial modes

One system logic.
Three ways to engage.

The engineering logic stays the same whether Tru-Trac supplies a single component, commissions equipment on site, or supports a full performance partnership.

  1. 01Mode

    Components

    Select the correct product family and specification for a defined conveyor zone or failure mode.

  2. 02Mode

    Installation & Commissioning

    Install and commission to a documented standard, with baseline checks and recorded sign-off.

  3. 03Mode

    Performance Partnership

    Apply site-wide governance, periodic inspection, condition-based intervention and performance reporting.

08 / Distributor opportunity

A system-led product range creates a stronger distributor conversation.

For distributors and regional partners, the Tru-Trac System provides a practical way to move beyond transactional component supply.

  1. 01

    Identify the conveyor failure mode first

    Open higher-value technical conversations by approaching customers through their actual failure mode — not a price list.

  2. 02

    Route to the right product family

    Use the zone-based logic to specify the correct components for the duty, with manufacturer engineering behind the recommendation.

  3. 03

    Position Tru-Trac as engineering-led

    Sector logic, product breadth, case evidence, and direct manufacturer escalation — the partner story is technical, not transactional.

  4. 04

    Develop regional performance opportunities

    Move from component supply into assessments, pilots, and performance programmes that compound regional value over time.

Start with the conveyor that keeps coming back

Start with the conveyor that keeps coming back.

Tell us where the failure repeats. We will help identify whether the issue is tracking, cleaning, loading, impact, return-side contamination, maintenance discipline or system behaviour.

System assessment
2–5 day audit · prioritised findings
Pilot programme
90-day, single-belt, measurable outcome
Performance partnership
Annual · KPI-linked · governed