Underground Cable Locator for Data Centre Construction & Maintenance Malaysia

Underground Cable Locator for Data Centre Construction & Maintenance Malaysia

Why Would a Data Centre Need an Underground Cable Locator?

Data centres depend on electrical and communication infrastructure that must remain highly reliable.

Outside and around a data-centre building, the site may contain:

incoming utility cables,

MV/LV feeders,

transformer cables,

generator connections,

UPS-related feeders,

earthing conductors,

building-to-building power cables,

metallic water or fire-service pipes

and other underground services.

During expansion, maintenance or civil work, the key question is often:

“WHERE DOES THIS UNDERGROUND CABLE ACTUALLY RUN?”

The FUZRR ES7080 Underground Utilities Locator is designed for underground cable and metallic-pipeline path detection, survey and depth measurement. It also provides Current Direction, current measurement, multiple positioning modes and cable-identification functions.

For a data centre, its strongest role is:

PRE-CONSTRUCTION UTILITY VERIFICATION + MAINTENANCE ROUTE TRACING

rather than simply:

“CABLE FINDER.”

1. Why Underground Utility Risk Is Important at Data Centres

A data centre may contain several electrical systems operating in parallel.

Conceptually:

UTILITY SUPPLY │ ↓ SUBSTATION │ ↓ TRANSFORMER │ ↓ SWITCHGEAR │ ↓ UPS / DISTRIBUTION

Some of these interconnections may pass underground.

At the same time, site civil infrastructure may include:

drainage,

fire-water piping,

cooling-related services,

roads,

car parks

and:

security fencing.

This means excavation can occur close to critical electrical routes.

2. Typical Data Centre Work That May Require Underground Cable Locating

The ES7080 can be relevant before:

new data hall construction,

transformer expansion,

generator installation,

new cable trench work,

road excavation,

drainage work,

fence installation,

security equipment foundations,

new building connections

and other ground-disturbance activities.

The practical goal is:

IDENTIFY EXISTING UNDERGROUND UTILITIES BEFORE WORK BEGINS.

3. Data Centre Drawings Are Important—but Field Verification Still Has Value

A drawing may show:

Transformer A ━━━━━━━━━━ Switchgear

but the actual underground route might be:

Transformer A ━━━━━┓ ┃ ┗━━━━━━┓ ┗━━━━ Switchgear

because of:

construction changes,

later upgrades,

repair work

or:

site expansion.

Therefore:

DRAWINGS TELL YOU WHERE TO START.

FIELD LOCATING HELPS VERIFY WHERE THE CABLE IS NOW.

4. Application 1 — Locate Incoming Power Cable Before Civil Work

Suppose excavation is planned close to the incoming electrical route.

A good workflow is:

REVIEW DRAWINGS

↓

SEARCH THE AREA

↓

LOCATE CANDIDATE ROUTES

↓

APPLY ACTIVE SIGNAL WHERE SUITABLE

↓

TRACE THE TARGET

↓

VERIFY

↓

MEASURE DEPTH

↓

MARK

The ES7080 is intended for underground cable path detection and depth measurement.

5. Application 2 — Trace Cable Between Transformer and Switchgear

Suppose:

TRANSFORMER SWITCHGEAR ● ●

The maintenance team knows the endpoints but not the exact buried route.

The ES7080 provides:

Classic Positioning Mode

Wire Cruise Mode

Signal Distortion Measurement Mode.

These modes support continuous route tracing rather than assuming the cable follows a straight line.

6. Wire Cruise Is Useful for Following Long Electrical Routes

Wire Cruise provides continuous relative-position information together with real-time depth and current information.

For example:

Transformer ● │ ●────●────●────●────●────● │ ● Switchgear

This can make long-route verification more efficient.

Think:

WIRE CRUISE = STAY WITH THE CABLE AS YOU WALK.

7. Application 3 — Search an Unknown Area Before Expansion

Suppose Phase 2 construction will take place beside an operating data centre.

The project team knows there are underground services but does not know every exact route.

Then the first task is:

REGIONAL SEARCH

rather than immediately tracing one known cable.

The ES7080 receiver supports passive power-frequency detection and RF passive detection.

8. Passive Power Search Can Help Find Operating Electrical Utilities

The ES7080 provides passive power-frequency modes including:

50Hz

60Hz

250Hz.

These can help identify candidate operating underground electrical routes.

But:

PASSIVE POWER RESPONSE ≠ CONFIRMED POWER-CABLE IDENTITY

Other metallic utilities can carry induced current.

So passive detection is best used as:

A DISCOVERY METHOD

rather than:

A FINAL IDENTIFICATION METHOD.

9. Search the Entire Excavation Area

Do not only scan the proposed trench centreline.

Suppose the work area is:

┌──────────────────────────────┐ │ │ │ NEW DATA HALL │ │ │ └──────────────────────────────┘

A buried cable may:

cross one corner,

run beside the foundation,

enter diagonally,

turn nearby

or:

run parallel to the excavation.

So perform a systematic grid search.

10. A Practical Grid Search

Example:

↑ ↑ ↑ ↑ │ │ │ │ ↓ ↓ ↓ ↓ ←────────────────────→ ↑ ↑ ↑ ↑ │ │ │ │ ↓ ↓ ↓ ↓

Mark every repeatable linear response.

Then search again from another direction.

This helps reduce the chance of missing a utility aligned with the original search direction.

11. Application 4 — Use Active Locating for Known Critical Cables

Once the target cable is known and suitable access exists, the ES7080 transmitter supports:

DIRECT CONNECTION

CLAMP COUPLING

INDUCTION.

For critical electrical infrastructure, a controlled active signal can provide much better target confidence than passive detection alone.

12. Direct Connection Provides the Best Target Control Where Suitable

The ES7080 manual states that Direct Connection provides maximum transmitting current and should be used where suitable.

Why does this matter?

Imagine several parallel feeders:

Feeder A ━━━━━━━━━━━━━━━━━━━ Feeder B ━━━━━━━━━━━━━━━━━━━ TARGET ━━━━━━━━━━━━━━━━━━━ Feeder D ━━━━━━━━━━━━━━━━━━━

The objective is:

TRACE THE TARGET

not simply:

FOLLOW THE STRONGEST SIGNAL.

An appropriate Direct Connection can improve selectivity.

Electrical connections should be made only by appropriately trained and authorized personnel following the manufacturer and site electrical-safety procedures.

13. Clamp Coupling Can Be Useful When Direct Connection Is Not Appropriate

The ES7080 also supports Clamp Coupling.

The transmitting clamp applies the locating signal inductively around an accessible cable without direct conductor connection.

The transmitter clamp has an internal diameter of approximately:

φ125mm.

This can be useful where the cable configuration and grounding arrangement are suitable.

14. Clamp Coupling Still Requires Proper Target Selection

The operator must clamp the intended cable.

If several cables are present:

○ Cable A ○ Cable B ○ Cable C ○ TARGET ○ Cable E

you first need enough site information to select the correct one.

Clamp Coupling does not automatically identify the target before the clamp is applied.

15. Induction Is Useful When No Suitable Connection Point Exists

For exploratory locating, the transmitter can be placed above the expected underground route.

No physical connection is required.

Conceptually:

TX [ ] ──────────────────────── Ground Cable A ━━━━━━━━━━━━━━━━━━━ Cable B ━━━━━━━━━━━━━━━━━━━

This is useful when access is limited.

But:

INDUCTION IS LESS SELECTIVE.

Nearby conductive utilities may also receive the signal.

16. ES7080 Induction Uses Only Three Frequencies

Induction Mode supports:

32.7kHz

81.9kHz

197kHz

Do not confuse this with:

3.20kHz

which is a useful active cable-locating frequency in other ES7080 transmitter methods, but not an Induction frequency.

17. Application 5 — Trace Parallel Electrical Feeders

Data centres often have high redundancy.

That can mean:

multiple transformers,

multiple power feeds,

A/B power paths,

generator feeds

and other parallel infrastructure.

From a utility-locating perspective, this creates a potential problem:

ADJACENT-LINE COUPLING.

18. Why the Strongest Signal Can Be the Wrong Cable

Suppose:

Target Cable ━━━━━━━━━━━━━ 1.5m Adjacent Cable ━━━━━━━━━━━━━ 0.8m

Even when more locating current is on the target, the shallower adjacent cable may produce a very strong receiver response.

Therefore:

STRONGEST SIGNAL ≠ TARGET CABLE

This is particularly important in redundant electrical corridors.

19. ES7080 Current Direction Helps Prevent Wrong-Line Tracking

The ES7080 provides Current Direction Determination on selected frequencies to help calibrate the target current direction and reduce adjacent-line tracking errors.

Current Direction is available at:

640Hz

1.28kHz

2.56kHz

3.20kHz

This can be very useful where several feeders run in the same corridor.

20. Calibrate Current Direction on a Known Target Section

The manufacturer's guidance recommends calibration on the known target approximately:

5–10m from the transmitter

and outside the immediate transmitter interference zone.

Conceptually:

TX ●━━━━━━ 5–10m ━━━━━━●━━━━━━━━━━━━ ↑ CAL

Once calibrated, Current Direction becomes an additional check when tracing farther along the route.

21. Current Measurement Gives Another Verification Parameter

The ES7080 receiver can display pipeline/cable current from:

0–1A.

Instead of asking only:

“Which signal is strongest?”

the operator can compare:

signal amplitude,

current magnitude,

Current Direction

and:

route continuity.

This is much stronger target verification.

22. Application 6 — Separate Cables in Congested Corridors

The ES7080 offers:

Wide Peak

Narrow Peak

Sound Valley.

Each locating mode serves a different purpose.

23. Wide Peak for General Detection

Wide Peak provides a broader and more sensitive response.

Use it for:

initial acquisition,

general route tracing

and:

recovering a weaker target signal.

Think:

WIDE PEAK = FIND & FOLLOW

24. Narrow Peak for Parallel Cable Separation

In a corridor like:

Cable A ━━━━━━━━━━━━━━━━━ Cable B ━━━━━━━━━━━━━━━━━ TARGET ━━━━━━━━━━━━━━━━━ Cable D ━━━━━━━━━━━━━━━━━

Narrow Peak can help provide better positional separation between nearby routes.

Think:

NARROW PEAK = SEPARATE & REFINE

25. Sound Valley Provides a Second Position Check

Sound Valley provides another locating response based on a signal minimum.

In a clean field:

PEAK ↓ ──────────●────────── ↑ VALLEY

the Peak and Valley positions should approximately agree.

If they do not:

CHECK FOR SIGNAL DISTORTION.

26. Application 7 — Detect Distortion Near Data Centre Infrastructure

Data-centre sites can contain many conductive structures:

earthing networks,

steel structures,

fences,

pipes,

reinforcement,

parallel power cables

and:

electrical equipment.

These can distort the locating field.

The ES7080 therefore provides:

SIGNAL DISTORTION MEASUREMENT MODE.

27. What Does Signal Distortion Mean?

In a relatively clean field:

Peak ↓ ─────●───── ↑ Valley

Peak and Valley should approximately coincide.

In a distorted field:

PEAK VALLEY ↓ ↓ ●──────────────────●

the apparent cable position is less trustworthy.

That tells the operator:

DO NOT RELY ON ONE POSITION READING.

28. Data Centre Earthing Systems Can Complicate Interpretation

Large electrical sites can contain extensive earthing and bonding infrastructure.

These conductive networks may influence electromagnetic field behaviour.

The ES7080 cannot automatically tell:

“This signal is definitely the feeder and not an adjacent bonded conductor.”

That is why:

controlled signal application,

Current Direction,

current measurement,

Peak/Narrow Peak

and:

distortion checking

are valuable.

29. Application 8 — Measure Cable Depth Before Excavation

Once the correct route is established, the ES7080 supports depth measurement.

The manufacturer's specification lists a pipeline measurement-depth range of:

0–20m.

This is a measurement range, not a guarantee that every cable can always be located at 20m.

Actual performance depends on the installation and locating conditions.

30. Depth Must Come After Target Verification

The correct sequence is:

TRACE

↓

VERIFY TARGET

↓

CHECK ADJACENT LINES

↓

ESTABLISH CENTRELINE

↓

CHECK FIELD QUALITY

↓

MEASURE DEPTH

A 1.20m reading on the wrong cable is worse than no depth reading at all.

31. Automatic Depth Should Be Treated as Reference for Stricter Work

The ES7080 manual recommends treating automatic real-time depth as reference in stricter pipeline exploration.

The manual also provides:

Sound Valley 45°

and:

Wide Peak 80%

methods for manual depth checking.

This gives maintenance personnel multiple ways to assess the result.

32. Use the 0.5m Depth Verification Method

The manufacturer also describes a practical check:

measure depth near ground level,

then:

raise the receiver approximately 0.5m,

and measure again.

If the displayed depth increases by approximately:

0.5m

the result is more credible.

This is useful when critical excavation decisions depend on the measurement.

33. Avoid Important Depth Readings Near Cable Turns and Junctions

Cable routes can turn around:

buildings,

transformer pads,

roadways

or:

service corridors.

Field geometry around a turn can distort the depth calculation.

The manufacturer's guidance recommends moving approximately:

5m away where possible

from turns and T-junctions before taking an important depth measurement.

34. Application 9 — Identify One Cable Among Multiple Cables

Suppose route tracing leads to a chamber containing:

○ Cable 1 ○ Cable 2 ○ Cable 3 ○ Cable 4 ○ Cable 5 ○ Cable 6

Now the question is no longer:

“Where is the cable?”

It becomes:

“WHICH PHYSICAL CABLE IS THE TARGET?”

The ES7080 provides a dedicated cable-identification function.

35. ES7080 Supports Identification of 1–20 Calibrable Cables

The manufacturer specifies:

1–20 CALIBRABLE CABLES

for cable identification.

The receiving clamp is used to evaluate candidate cables.

The identification interface marks:

√ — TARGET

and:

× — NON-TARGET.

36. This Can Be Valuable in Redundant Power Environments

A data centre may intentionally have multiple similar electrical paths.

When several cables enter a common area, visual appearance alone may not reliably distinguish them.

The ES7080 cable-identification function provides an additional controlled identification method.

But:

ELECTRICAL ISOLATION AND SITE SAFETY PROCEDURES STILL COME FIRST.

37. Important Limitation for Live Cable Identification

The manufacturer explicitly states:

LIVE CABLE IDENTIFICATION IS ONLY APPLICABLE TO THREE-CORE ARMORED CABLES.

Do not interpret this as:

“ES7080 can identify every energized data-centre cable.”

The limitation applies specifically to the manufacturer's live-cable-identification function.

38. Application 10 — Trace De-Energized or Spare Cables

Data centres may contain:

spare feeders,

future-use cables,

isolated circuits

or:

out-of-service cables.

Passive Power detection may not reveal these effectively.

The ES7080 manual includes procedures for active locating of shutdown cables using Direct Connection under suitable conditions.

This makes an active transmitter-receiver system more useful than passive detection alone.

39. Application 11 — Locate Metallic Pipes Around the Data Centre

Electrical infrastructure is not the only underground service.

A data-centre site may contain suitable metallic:

water lines,

fire-water lines,

utility pipes

and other conductive pipelines.

The ES7080 is designed for both underground cables and metal pipelines.

That makes it useful for broader pre-excavation utility surveys.

40. Plastic Pipes Are Different

Ordinary:

PVC,

PE,

HDPE

or similar non-conductive pipes without a conductive tracer should not be treated as directly detectable ES7080 targets.

The electromagnetic locator needs a suitable conductive path.

So:

PIPE MATERIAL MATTERS.

41. Application 12 — Data Centre Expansion

This may be one of the strongest applications.

Suppose a live facility is adding:

another data hall,

new generators,

new transformer capacity,

additional cooling equipment,

new access roads

or:

new service trenches.

Before ground works begin, the project team should understand existing underground routes.

A practical locating programme can map:

power feeders,

building-to-building cables,

metallic utility pipes,

crossings

and:

depth reference points.

42. Build a Better Underground Utility Record

A useful data-centre utility record could contain:

Asset RouteField TraceDepth ReferenceVerificationTransformer A → Switchgear AMarkedSite readingsActive traceTransformer B → Switchgear BMarkedSite readingsCurrent DirectionGenerator → Electrical RoomMarkedSite readingsActive traceBuilding A → Building BMarkedSite readingsContinuous traceFire-water metallic mainMarkedSite readingsMetallic pipe trace

This converts underground locating from a one-time emergency activity into:

INFRASTRUCTURE DOCUMENTATION.

43. Application 13 — Road and Car-Park Work

Data-centre campuses may require:

road repair,

new drainage,

security upgrades,

car-park modifications

or:

new duct routes.

Buried electrical cables may cross these areas.

The ES7080 can potentially trace cable routes beneath asphalt under suitable electromagnetic conditions.

However, this does not mean every underground utility will always be detectable.

44. Application 14 — Fence and Security Installation

Security upgrades may involve:

fence posts,

bollards,

gate foundations,

CCTV poles

or:

access-control equipment.

Even relatively small excavation can intersect an underground service.

Therefore, the practical workflow remains:

SEARCH THE COMPLETE INSTALLATION LINE BEFORE DRILLING OR DIGGING.

45. Application 15 — Optional Ground / Sheath Fault Investigation

The ES7080 receiver also supports optional:

A-FRAME FAULT DETECTION.

The manufacturer's manual lists suitable applications including:

high-voltage cable sheath faults

and:

ground faults on unarmored low-voltage cables.

This can potentially be relevant to electrical-infrastructure maintenance.

46. But A-Frame Is Not a Universal Data Centre Fault Locator

The optional A-frame works using the:

STEP-VOLTAGE PRINCIPLE

and depends on a suitable fault current leaking into earth.

It should not be described as:

“A system for finding every possible underground electrical fault.”

Different fault types require different diagnostic techniques.

47. Why ES7080 Is More Useful Than a Basic Cable Finder

A basic underground cable finder may answer:

“THERE IS A SIGNAL HERE.”

A data-centre maintenance team often needs more:

WHICH CABLE?

WHERE DOES IT RUN?

IS THERE ANOTHER CABLE BESIDE IT?

AM I STILL ON THE SAME TARGET?

IS THE FIELD DISTORTED?

WHAT IS THE DEPTH?

WHICH CABLE IS IT AT THE OTHER END?

The ES7080 addresses several of these questions through its combination of locating functions.

48. Common Mistake — Assuming the Cable Runs Straight Between Two Electrical Assets

Never assume:

Transformer ●━━━━━━━━━━━━● Switchgear

without field verification.

The actual route can include turns, diversions and crossings.

49. Common Mistake — Relying Only on Passive Search

Passive search is excellent for exploration.

But where critical target verification is required, an appropriate active locating method is usually more selective.

50. Common Mistake — Following the Strongest Signal

A shallow adjacent conductor may produce a stronger reading.

Use:

Current Direction,

current measurement,

Narrow Peak,

route continuity

and:

distortion checks

where appropriate.

51. Common Mistake — Using the Highest Frequency Everywhere

Higher frequencies couple more readily onto nearby conductors.

In a congested data-centre environment, this can make the target harder—not easier—to distinguish.

Use the lowest suitable frequency that provides a reliable response.

52. Common Mistake — Always Using Maximum Transmitter Power

The ES7080 transmitter is specified up to:

15W

with:

9 OUTPUT LEVELS.

More power does not automatically mean better locating.

Excessive signal can increase unwanted coupling.

53. Common Mistake — Measuring Depth at the First Peak

First establish:

target identity,

route continuity,

centreline

and:

field quality.

Then measure depth.

54. Common Mistake — Assuming 20m Means Guaranteed Detection to 20m

The ES7080's 0–20m specification refers to its pipeline measurement-depth range.

It is not a universal guaranteed detection depth for every installation.

55. Common Mistake — Treating Locator Results as the Only Safety Control

For critical data-centre infrastructure, locating should be integrated with:

approved drawings,

permit-to-work,

electrical isolation where applicable,

utility verification,

controlled excavation

and:

site safety procedures.

A locator reduces uncertainty.

It does not remove all uncertainty.

Practical Data Centre Pre-Excavation Workflow

For construction or maintenance work:

STEP 1 — REVIEW APPROVED UTILITY DRAWINGS

↓

STEP 2 — DEFINE THE EXCAVATION / DRILLING AREA

↓

STEP 3 — PASSIVE GRID SEARCH

↓

STEP 4 — MARK ALL REPEATABLE ROUTES

↓

STEP 5 — IDENTIFY ACCESSIBLE TARGET POINTS

↓

STEP 6 — APPLY ACTIVE SIGNAL WHERE SUITABLE

↓

STEP 7 — TRACE THE COMPLETE TARGET ROUTE

↓

STEP 8 — USE NARROW PEAK IN CONGESTED AREAS

↓

STEP 9 — MONITOR CURRENT

↓

STEP 10 — USE CURRENT DIRECTION WHERE APPLICABLE

↓

STEP 11 — CHECK SIGNAL DISTORTION

↓

STEP 12 — CONFIRM CENTRELINE

↓

STEP 13 — MEASURE & VERIFY DEPTH

↓

STEP 14 — MARK ROUTE + CROSSINGS + UNCERTAINTY

↓

STEP 15 — UPDATE SITE UTILITY RECORDS

↓

STEP 16 — FOLLOW DATA CENTRE WORK-PERMIT / EXCAVATION CONTROLS

ES7080 Features Relevant to Data Centre Maintenance

ES7080 FeatureData Centre Application11 active frequenciesDifferent cable lengths and site conditionsPassive PowerInitial operating-cable searchPassive RFAdditional regional searchDirect ConnectionMore selective known-target tracingClamp CouplingActive signal without direct conductor contact where suitableInductionExploratory locating without target accessWide PeakInitial route findingNarrow PeakParallel cable separationSound ValleyAdditional centreline checkWire CruiseContinuous route followingPipeline currentTarget verificationCurrent DirectionReduce wrong-cable trackingSignal DistortionAssess congested electromagnetic fieldsDepth measurementExcavation planningCable identificationDistinguish target among multiple cablesOptional A-frameSuitable ground/sheath fault pinpointing

Frequently Asked Questions

Is FUZRR ES7080 suitable for data centre maintenance?

The ES7080 is designed for underground cable and metallic-pipeline detection, survey, depth measurement, cable identification and power-supply-related applications. Those functions can be relevant to data-centre construction and electrical-infrastructure maintenance.

Can ES7080 locate underground transformer cables?

Potentially yes, provided the cable can produce or carry a usable locating signal under the selected passive or active method.

Can it locate cables between buildings?

Yes, suitable underground cable routes can be traced using the receiver's positioning modes and active or passive signal methods.

Can it separate two parallel power cables?

The ES7080 provides Narrow Peak, pipeline current, Current Direction on selected frequencies and Signal Distortion Measurement to help distinguish nearby routes.

Can it trace a de-energized cable?

Potentially yes using a suitable active locating method. The manufacturer includes dedicated procedures for shutdown cables.

Can it identify one cable among several?

Yes. The ES7080 cable-identification function supports 1–20 calibrable cables.

Can it identify any live data-centre cable?

No. The manufacturer states that live cable identification is only applicable to three-core armored cables.

Can it detect underground metallic fire-water pipes?

Potentially yes where the pipeline is conductive and can produce a usable locating response. ES7080 is designed for underground metallic pipelines as well as cables.

Can ES7080 directly locate PVC or HDPE pipes?

Ordinary non-conductive plastic pipe without a suitable conductive tracer is not a normal electromagnetic ES7080 target.

Can it measure depth?

Yes. The manufacturer specifies a 0–20m pipeline measurement-depth range, subject to the actual locating conditions.

Can the locator guarantee that excavation will not damage a utility?

No. Underground locating should be combined with approved site utility information, safe excavation procedures and other required verification controls.

Why Data Centres Are a Strong ES7080 Application

For a normal construction site, damaging an underground cable is serious.

For a data centre, the consequences may also include:

power-system disruption,

redundancy loss,

maintenance escalation

and:

operational risk.

That makes underground utility information especially valuable before ground work.

The ES7080's strength is not one single specification.

It is the combination of:

SEARCH

TARGET SIGNAL

ROUTE TRACING

PARALLEL-LINE SEPARATION

CURRENT DIRECTION

DISTORTION CHECK

DEPTH

CABLE IDENTIFICATION

in one underground utility locating platform.

The Most Important Data Centre Maintenance Principle

When critical electrical infrastructure is involved:

DO NOT DIG WHERE THE DRAWING SAYS THE CABLE SHOULD BE.

First verify:

WHERE THE CABLE ACTUALLY RUNS.

Then verify:

THAT YOU ARE STILL FOLLOWING THE SAME TARGET.

Then:

MEASURE DEPTH AND MARK THE WORK AREA.

A strong data-centre workflow is therefore:

DRAWINGS

↓

FIELD SEARCH

↓

ACTIVE TARGET TRACE

↓

VERIFY

↓

DEPTH

↓

MARK

↓

DOCUMENT

↓

CONTROL THE EXCAVATION

For Malaysian data-centre construction, expansion and maintenance projects, this positions the FUZRR ES7080 as part of a broader:

CRITICAL UNDERGROUND INFRASTRUCTURE VERIFICATION WORKFLOW

rather than merely a cable detector.

IN A DATA CENTRE, REDUNDANCY PROTECTS THE POWER SYSTEM. ACCURATE UTILITY LOCATING HELPS PROTECT THE REDUNDANCY.

Contact MTM Precision

For FUZRR ES7080 Underground Cable Locator for Data Centre Construction & Maintenance Malaysia, quotation, technical information and product demonstration:

MTM Precision Sdn Bhd

No. 29-1 & 29-2, Jalan Bandar 18,

Pusat Bandar Puchong,

47160 Puchong, Selangor, Malaysia

Website: www.mtmpre.com.my

WhatsApp: +6016-660 7346

Email: mtmpre@yahoo.com