Caterpillar 5080
Caterpillarexcavatorfront shovel

Caterpillar 5080

Maintenance schedule, common problems & OEM parts breakdown

The Caterpillar 5080 is an 84-tonne class hydraulic front shovel built for quarry and mining face-loading work, not a general-purpose excavator. Every unit runs a single Caterpillar 3406C ATAAC diesel: a 14.6 L, turbocharged and air-to-air aftercooled inline six rated at roughly 319 kW (428 hp) gross, managed by Caterpillar's PEEC electronic governor with altitude/engine compensation (AEC). Operating weight sits close to 83,800 kg (184,750 lb), varying with counterweight, track shoe width, and bucket fitted. Caterpillar built the 5080 roughly from 1995 to 2001 under service-manual prefix 8SL, as the mid-size entry in its own-designed 5000-series hydraulic mining shovel line alongside larger 5130-class machines. It was offered only as a front shovel, with bucket and track-shoe options rather than a backhoe/mass-excavator front.

Within that production run Caterpillar revised the 5080 at least once: published bucket capacity and track shoe width both differ between early and later listings for the same base model, so treat either figure as configuration-dependent rather than fixed. Caterpillar retired the 5080 in favor of the 5090B, a heavier-hitting shovel with more gross power, hydraulic flow, swing torque, and drawbar pull built to load larger haul trucks. Caterpillar then wound down its own-designed 5000-series shovel line entirely and stayed out of purpose-built mining shovel design until it acquired Bucyrus, and the O&K-derived RH-series it built, in 2011, the basis for today's unrelated Cat 6000-series shovels. That gap makes the 5080 a closed-book model in Caterpillar's current catalog: no direct factory successor shares its structural or hydraulic hardware, so working units depend on rebuilt components and parts cross-referenced from 3406C engine and swing/final-drive hardware common to other Caterpillar mining-era iron of the same period. That scarcity is exactly why sourcing knowledge and rebuild capability for the 5080 still carry value in today's used mining-shovel market.

Below: full specifications, fluids & capacities, the factory service schedule, common service parts, verified fault codes, what owners discuss, attachment guidance, the complete assembly directory, and a serial-number reference. Complete parts lists with full OEM part numbers, exploded diagrams, quantities, and fitment data are available free in Heavy Parts AI.

Caterpillar 5080 specifications

Engine

Engine modelCat 3406C ATAAC (direct-injection, turbocharged, air-to-air aftercooled)
Gross power319 kW (428 hp) at rated speed
Net powerNot published separately in available spec sheets; only the flywheel (gross) rating is documented
Displacement14.6 L (891 cu in)
Cylinders6, inline
Emissions tierBuilt in the pre-Tier/Tier 1 era (production spans 1995-2001); no EPA or EU emissions tier documented for this model

Weights

Operating weight83,800 kg (184,747 lb), front-shovel configuration
Ground pressure110 kPa (16 psi)
Transport weightNot documented in available public sources; confirm shipping breakdown with a dealer
Bucket capacity noteSources list bucket capacity anywhere from 5.2 to 10 cu m depending on configuration/serial range; treat as varies by configuration rather than a single spec

Dimensions

Height to top of cab4.73-4.85 m (15.5-15.9 ft), varies by source
Track length on ground5.84-5.85 m (19.2 ft)
Overall track length7.13-7.2 m (23.4 ft)
Upper structure ground clearance1.62-1.65 m (5.3-5.4 ft)
Track shoe width610 mm or 800 mm reported across sources — varies by configuration/serial range
Transport length13.76 m (45.1 ft)
Transport width3.5 m (11.5 ft)
Transport height4.73 m (15.5 ft)
Tail swing radiusNot documented in available public sources
Undercarriage/carbody ground clearanceNot documented; only upper-structure clearance is confirmed

Performance

Max dig depth2.71 m (8.9 ft)
Max reach7.0-7.13 m (23.0-23.4 ft)
Max cutting height11.0 m (36.1 ft)
Max dump heightNot documented separately; public spec sheets report only max cutting height for this front-shovel configuration
Swing speedNot documented in available public sources
Max travel speed4.4-4.5 kph (2.7-2.8 mph)
GradeabilityNot documented in available public sources
Drawbar pullNot documented for the 5080 itself in available public sources

Forces

Bucket digging forceNot publicly documented for this model
Stick/arm digging forceNot publicly documented for this model

Service capacities (summary)

Fuel tank990 L (261.6 gal)
Hydraulic system/tankNot documented in available public sources
Engine oilNot documented in available public sources
Cooling systemNot documented in available public sources

Values vary by configuration, region, and serial range — confirm against your machine before planning transport or lifts.

5080 fluids & capacities

SystemCapacityRecommended fluid
Engine crankcase (with filter)Not published for the 5080 installation itself. The 3406C engine family this shovel uses typically takes about 42 L (11 US gal) for an oil-and-filter change; a mining-class carrier sump can run larger. Verify against the OMM or a dealer before ordering oil.Cat DEO or DEO-ULS diesel engine oil. Cat's climate chart for this engine calls for SAE 10W-30 in cooler ambient bands and SAE 15W-40 once temperatures run consistently above freezing; a multigrade DEO covers both bands where seasonal swings are wide.
Cooling systemNot published for the 5080 specifically. As a reference point, the base 3406C engine's own water jacket and block hold roughly 68 L (18 US gal); the shovel's full radiator-and-hose circuit runs larger and isn't documented publicly. Verify with the OMM or a dealer.Cat ELC (Extended Life Coolant), or a conventional glycol antifreeze/coolant carrying the correct supplemental coolant additive treatment if ELC isn't used. Minimum 50/50 water-to-glycol mix; richer glycol percentage only for extreme cold, never past Cat's maximum ratio.
Fuel tank990 L (261.6 US gal)Diesel meeting Cat's No. 2-D spec for normal ambient conditions. Switch to winter-blend or No. 1-D fuel in cold climates to keep the fuel's pour/cloud point below expected ambient temperature.
Hydraulic system total and hydraulic tankNot documented for the 5080 in available sources. Capacity figures tied to a larger, later twin-engine Cat mining shovel in this weight class don't carry over to the single-engine 5080 and aren't used here. Verify tank and system total against the OMM or a dealer.Anti-wear hydraulic oil meeting Cat's hydraulic-oil spec (Cat HYDO Advanced or equivalent). Cat's seasonal guidance calls for a lighter viscosity grade for cold-weather startup and a heavier grade where sustained ambient and duty-cycle heat load run high.
Final drive (each)Not documented for the 5080 in available sources. Verify per-side refill quantity against the OMM or a dealer.Cat TDTO meeting the Cat TO-4 spec. Climate-based viscosity guidance for final drives of this era runs SAE 10W for cold starts, SAE 30 for temperate ranges, and SAE 50 for sustained hot-climate operation.
Swing driveNot documented for the 5080 in available sources. Verify against the OMM or a dealer.Cat TDTO (TO-4), same climate-based viscosity selection as the final drives: SAE 10W, 30, or 50 chosen by ambient temperature band.
Grease (spec only)n/a — spec onlyCat multipurpose extreme-application grease (Cat XTLA) or an NLGI-2 lithium-complex chassis grease meeting Cat's multipurpose grease spec, for boom/stick/bucket pins and bushings and the swing-bearing/gear-lube points.

Capacities are refill values from factory literature — always fill to the dipstick/sight gauge, not the number.

Caterpillar 5080 maintenance schedule

Service intervalTasks
Every 50 h
  • Check engine oil and coolant levels and walk around the machine for fresh leaks, loose bolts, or cracked welds before starting (daily).
  • Grease boom, stick, and bucket linkage pins and the parallelogram front-linkage pins; check bucket lip and teeth for wear or cracks (daily).
  • Check the hydraulic tank sight gauge and swing drive oil level, and check batteries, gauges, and the PEEC fault-code display for active codes (daily).
  • Check track tension and inspect the undercarriage for pack, debris, or visible damage (weekly).
  • Check air cleaner service indicator and clean or service as needed; check final drive oil level on both sides (weekly).
Every 250 h
  • Change engine oil and filter on the 3406C.
  • Replace the primary fuel filter element.
  • Pull S·O·S oil samples from the engine, hydraulic tank, and both swing drives.
  • Check swing bearing retaining bolt torque.
  • Inspect main hydraulic pump mounting and drive coupling for leaks or looseness.
Every 500 h
  • Replace the secondary fuel filter.
  • Inspect and adjust track sag on both sides.
  • Sample final drive and swing drive gear oil.
  • Check alternator and fan belt tension and condition.
  • Inspect the turbocharger mounting, boost lines, and air intake system for leaks or restriction.
Every 1,000 h
  • Change final drive oil in both travel motors.
  • Change swing drive gear oil.
  • Replace the hydraulic tank breather and return-line filter elements.
  • Torque-check track shoe and master link bolts.
  • Inspect the parallelogram front-linkage master cylinder and pins for play.
Every 2,000 h
  • Change or resample hydraulic tank oil based on S·O·S trend data.
  • Change engine coolant if not running extended-life coolant.
  • Measure undercarriage wear by chain pitch on track links, rollers, idlers, and sprockets rather than by visual check.
  • Inspect swing gear and pinion for backlash and tooth wear.
  • Check engine mounts and structural welds on the boom, stick, and revolving frame for cracking.
Every 4,000 h
  • Check and adjust engine valve lash on the 3406C.
  • Inspect fuel injectors and confirm injection timing.
  • Inspect twin swing motor seals and the center swivel joint for leaks.
  • Assess undercarriage components for rebuild versus replacement based on measured pitch wear.
Every 6,000 h
  • Change extended-life coolant, or on elapsed time if that interval comes first.
  • Inspect main hydraulic pumps and travel/swing motors for internal wear; plan overhaul if S·O·S trend or falling pump output pressure points that way.
  • Inspect triple-reduction final drive planetaries for bearing and gear wear.
  • Complete a full structural inspection of the revolving frame, boom, and stick welds for fatigue cracking typical of high-cycle face-shovel duty.

Servicing the 5080 beyond the schedule

Predictive maintenance & fluid analysis

Track the 3406C, hydraulic tank, swing drives, and final drives with scheduled S·O·S oil sampling rather than fixed-mileage guesses; rising metal counts show pump, swing motor, or final-drive wear long before a failure. Watch main pump output pressure and swing/travel response for a slow downward trend, the earliest sign of internal pump or motor wear on this shovel's dig-swing-dump cycle. Log PEEC fault-code history at every service so a recurring rack, timing, or oil-pressure sensor fault gets caught before it forces a derate.

Corrective & common repairs

Most repeat repairs trace to the PEEC governor's sensor circuits: rack position, oil pressure, boost, and coolant-level sensors, usually wiring or corrosion rather than a bad sensor. Any rack or timing sensor swap needs governor recalibration with factory diagnostic tools or idle hunts and surges return. On the hydraulics, worn main pump internals show up as soft digging force, and worn swing-motor seals or a leaking center swivel joint show up as sluggish swing. Inspect the parallelogram front-linkage pins and master cylinder for wear on high-hour units.

Overhaul & rebuild points

Field history on 3406C-powered 5080s shows a full driveline overhaul, engine, pumps, travel motors, final drives, swing drives, and undercarriage, landing around 16,000-17,000 hours in continuous duty, sometimes followed by a second engine overhaul a few thousand hours later. Caterpillar never carried this shovel's hardware into a direct successor, so rebuilding existing pumps, motors, and final drive planetaries usually beats sourcing new-production parts. Budget an undercarriage rebuild, chain, rollers, idlers, sprockets, measured by pitch rather than visual wear, at that same overhaul point.

Seasonal & environment servicing

Cold-start the 3406C with a working ether or block-heater aid, and switch to the lighter cold-weather viscosity grades Cat specifies for engine oil, hydraulic oil, and drive gear oil once temperatures drop; run heavier hot-climate grades in sustained heat. In hot, dusty quarry sites, shorten air cleaner service intervals and grease boom, stick, and bucket pins more often, since abrasive dust accelerates parallelogram-linkage pin and bushing wear. In wet or muddy conditions, check final drive and swing drive seals and the center swivel joint for water or contamination ingress.

5080 fault codes & troubleshooting

CodeMeaningLikely causeWhat to do
218-volt sensor supply circuit reads voltage high or voltage lowChafed or shorted harness wiring, a corroded connector, or a failed sensor loading down the shared 8-volt supply circuitCheck battery and charging voltage first, then inspect sensor supply wiring and connectors; isolate sensors one at a time to find the short or open
22Fuel rack position sensor signal out of expected rangeDamaged or pinched wiring at the fuel-setting (rack position) transducer, or a transducer that has drifted out of calibrationInspect rack position sensor wiring for chafing or pinch damage, then recalibrate the rack position sensor per the engine service procedure
24Engine oil pressure sensor signal reads outside its valid rangeAn open or shorted sensor circuit or a degraded sensor, more often than an actual oil pressure problemVerify actual oil pressure with a mechanical gauge, then check sensor wiring and connector before replacing the sensor
25Boost (inlet manifold air) pressure sensor fault, or an actual excessive-boost conditionSensor or wiring fault, or a genuine overboost from a restricted air intake or turbocharger problemCheck the air intake system and turbocharger for restriction or leaks, then check the boost sensor wiring and connector
12Coolant level sensor circuit signal is invalid (open, shorted, or out-of-range voltage)Wiring or connector fault at the coolant level probe, or a genuinely low coolant levelCheck actual coolant level first, then inspect the coolant level sensor and its wiring and connector
13Fuel temperature sensor circuit reads voltage high or voltage lowOpen or shorted sensor wiring, or a failed fuel temperature sensorInspect fuel temperature sensor wiring and connector; replace the sensor if the wiring checks out good
32Throttle (engine speed-request) position sensor signal is out of calibration or out of rangeThrottle linkage or sensor mounting out of adjustment, or a wiring/sensor faultInspect throttle linkage and sensor mounting, then recalibrate or replace the throttle position sensor

Codes and remedies are general guidance for this model family — always confirm with diagnostic tooling and your dealer before major repairs.

5080 attachments & work tools

Buckets

The 5080 is an 84 t class front (face) shovel mining excavator, predecessor to the 5090B, not a general construction backhoe. It runs a single dedicated shovel bucket sized to the job rather than a swappable general-duty/heavy-duty catalog range, and reported capacities vary widely by source and configuration — roughly 5.2 m³ (6.8 yd³) on one record up to about 10 m³ (13.1 yd³) on another, so treat capacity as varying by configuration/series and confirm the bucket fitted to a specific unit with the dealer. Buckets on this class pin directly to the stick/arm; there is no general-duty/heavy-duty bolt-on range like on mid-size excavators.

Hydraulic hammers

No hydraulic-hammer/breaker work tool is documented for the 5080. This size class is built as a production loading shovel, not a breaker carrier, and no breaker pairing is listed for it in this era of Cat's mining-shovel lineup. Sites needing boulder breaking alongside a shovel of this class typically run a separate hammer-equipped excavator rather than fit a hammer to the shovel front itself.

Quick couplers

No quick-coupler system is documented for the 5080. Shovels in this weight class carry one bucket pinned straight to the stick for the working life of that tool, so a cab-operated swap coupler is not part of the standard front-shovel configuration.

Thumbs/grapples

No thumb or grapple attachment is documented for the 5080. As a dedicated loading shovel front, it is not configured for the sorting, demolition, or material-handling work that thumbs and grapples support on backhoe-configuration excavators.

Rippers

No ripper attachment is documented for the 5080. Ripping duty at this size is handled by dozers or by backhoe-configuration excavators; the shovel-front 5080 has no stick-mounted ripper tooth option on record.

Hydraulic kit notes

The 5080's hydraulic system is sized for shovel crowd, curl, and hoist functions plus bucket actuation, not for auxiliary work-tool circuits. No medium-pressure or high-flow auxiliary kit for hammers, couplers, thumbs, or rippers is documented for this model, so any such fitment would be a dealer-engineered one-off rather than a factory option.

All 5080 assemblies by section

Every catalogued assembly group for the Caterpillar 5080. Open an assembly to preview the parts inside — full OEM part numbers are available in Heavy Parts AI.

Air Inlet And Exhaust System
4p-7500 Cartridge Gp-Turbocharger
4M***13Ring,Retaining1
4N***97Bearing Assem.1
4P***24Wheel-Compressor1
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4p-7499 Turbocharger Gp
1W***95Plate-Identification; (Turbocharger Cartridge)1
4P***99Turbocharger Group1
4P***00Cartridge Group-Turbocharger1
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Engine Arrangement
320-0590 Conversion Ar-Engine
03***79Seal-O-Ring (Id=10.82mm)1
0R***25Nozzle As6
0R***80Rod As-Connecting1
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Fuel System
7w-2831 Control Gp-Fuel Ratio
10***93Washer1
11***58Washer; (12.7x6.65x0.79-mm Thk)1
2A***46Bolt,Machine Governor Linkage Bracket2
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9y-4913 Fastener Gp-Fuel Inj Pump -Governor
1B***16Bolt; (1/4-20x5-In)2
4F***57Screw,Cap,Hexagon H Shock Mount To Bracket2
5P***37Washer 5t***54 Plate To 7t***28 Cable As2
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6i-2680 Governor Gp
03***15Screw; (No. 10-24)4
03***16Bolt-Self Locking; (1/4unc X 3/4)3
0S***47Bolt; (1/4-20x0.75-In)(Drilled Head)2
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108-6633 Pump Gp-Fuel Injection
10***02Bonnet-Valve1
10***04Plunger & Barrel As1
10***33Pump Group-Fuel Injection1
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4p-8138 Pump Gp-Fuel Injection
0S***15Bolt 19 mm (.75 In.) Long Return Air Console To Enclosed Rops14
10***33Pump Group-Fuel Injection6
10***06Seal-O-Ring (10.52mm Id)1
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2w-8632 Torque Control Gp
1P***52Insulator,Bushing Governor1
2P***85Spacer (.635 mm Thk); (0.635-mm Thk)1
2W***34Bar-Load Stop; (4.0mm Thk)1
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Service Equipment And Supplies
323-6981 Kit-Engine Parts
15***25Bolt; (7/16-14-2a-Thd)6
24***18Kit-Crankshaft Bearing0
25***52Plate-Thrust; (Crankshaft)2
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5080 serial number reference

The PIN plate on a 5080 is riveted to the machine frame/carbody, typically low on the front structure near the track frame or cab support, readable from ground level. It reads as three letters followed by five digits: the letters are the serial-number prefix tied to the model and production run, and the digits are the unit's build sequence within that run. On the 5080 the confirmed prefix is 8SL, so a plate will read 8SL followed by a five-digit number.

PrefixIdentifies
8SL5080 Front Shovel (FS) - only documented configuration

Frequently asked questions

What engine does the Caterpillar 5080 use?

A single Caterpillar 3406C ATAAC diesel: direct-injection, turbocharged, air-to-air aftercooled inline six, 14.6 L displacement, rated at roughly 319 kW (428 hp) gross. Fuel delivery and governing run through Caterpillar's PEEC electronic control with altitude/engine compensation (AEC), not a mechanical governor.

What is the Cat 5080's operating weight?

About 83,800 kg (184,750 lb) in standard front-shovel trim, putting it in the 84-tonne weight class. Actual weight shifts somewhat with counterweight, track shoe width, and bucket fitted, so treat that figure as a class reference rather than a fixed number for every configuration.

What replaced the Caterpillar 5080?

The Caterpillar 5090B front shovel superseded it, with more gross engine power, higher hydraulic flow, greater swing torque, and more drawbar pull, built to load larger haul trucks than the 5080 could handle. Caterpillar wound down its own-designed 5000-series shovel line after that and did not re-enter purpose-built mining shovel design until acquiring Bucyrus's O&K-derived range in 2011, so the 5090B, not any later Cat model, is the direct factory successor.

What 5080 owners discuss

What do techs say about the 3406C's electronic governor (PEEC) compared with the mechanical 3406B?
The 3406C shares its block with the earlier mechanical 3406B but adds Caterpillar's PEEC electronic governor for fuel rack and timing control. Where both generations have been run, the mechanical fuel system is generally rated as the simpler, more trouble-free design. The PEEC electronics draw more complaints across the engine family: rack/timing sensor drift, idle speed hunting or surge, and RPM derates tied to sensor or transducer faults. This is a trait reported across 3406C PEEC applications generally (on-highway and industrial), not a 5080-specific fault history, since public accounts of this exact machine are scarce. Any rack or timing sensor replacement must be recalibrated with factory diagnostic software or the governor will hunt. Have your dealer verify governor calibration after any sensor or fuel-system work.
Is there anything specific to know about the hydraulic system on this shovel?
The 5080 uses Caterpillar's electronically managed pump and valve control common to shovels of this era, blending pump flow and pressure response to joystick input so the machine can put close to full engine and hydraulic output into the dig stroke. Healthy, it gives smooth, fast cycle times. As the system ages, the wear pattern reported for large hydraulic shovels generally applies here too: soft or sluggish digging force from worn main pump internals (falling output pressure, audible pump whine or grinding), slower swing response from worn swing-motor seals or a leaking center swivel joint, and travel lag from worn travel-motor bearings or degraded gear oil. Treat this as typical large-shovel hydraulic wear behavior rather than documented 5080 anecdotes specifically.
What undercarriage wear pattern should I expect on a machine this size?
The 5080 carries a heavy H-shaped carbody with oversized undercarriage components and triple-reduction planetary final drives, standard practice for shovels in this weight class. As with any large tracked machine, the wear that matters is internal pin-to-bushing wear from chain flex, not surface wear visible on the outside of the bushing. Chain pitch stretches as the pins wear, so measure pitch rather than judge wear by eye. Machines worked mostly digging over the drive sprockets show faster pin/bushing wear and looser chains than ones worked over the front idlers, where load transfers through the chain links instead of directly through the pins. This reflects general heavy-shovel undercarriage behavior for the weight class, consistent with what's reported industry-wide.
What electrical or sensor problems come up most on this engine?
Most reported PEEC-era electrical complaints trace back to the engine's own sensor suite: rack position, timing, boost pressure, and oil pressure sensors, along with their wiring and connectors. Corrosion or a loose connection at a sensor plug is cited more often than an outright sensor failure as the root cause of erratic idle, RPM limiting, or a no-response-from-electronics condition. Because the ECM derates power or limits RPM on several of these faults as a built-in protection strategy, don't try to work around a rack or timing fault by adjusting linkage; the sensor and governor need to be calibrated together with factory diagnostic software. Have your dealer verify sensor calibration and ECM programming after any electrical fault repair.
Are there known major-component overhaul milestones to expect?
Public maintenance history on individual 5080 units is scarce, but at least one documented unit shows a rebuild pattern typical of hydraulic mining shovels worked in production duty: a full overhaul of the engine and major driveline systems (pumps, travel motors, final drives, swing drives, undercarriage) at roughly 16,000-17,000 hours, followed by a second engine overhaul several thousand hours later after a failure. That falls in line with expected major-overhaul intervals for a PEEC-era 3406C run continuously in heavy-duty service. Treat any specific hour figure as a rough guide, not a guarantee — actual component life varies a lot with duty cycle, maintenance quality, and idle time between owners.
Does the shovel-versus-backhoe front configuration matter for wear or operation?
The 5080's shovel front uses a parallelogram-type linkage with a master cylinder to keep bucket attitude consistent through the dig stroke, a design developed with input from face-shovel operators for bank and face loading. The linkage pins and master cylinder are wear points worth inspecting closely on any high-hour unit, since they see constant load reversal during digging. Genuine operator discussion specific to converting an individual 5080 between shovel and backhoe fronts is limited; treat configuration choice as driven by face height and dig geometry at the jobsite rather than a documented reliability difference between the two fronts.
What should I check before buying a used Cat 5080?
This model has been out of production since the early 2000s and is a low-volume mining/quarry machine, so look past the sales-listing hour meter and get full maintenance and rebuild history in writing — frame hours and hours since the last major driveline rebuild can differ substantially on a machine this age. Confirm the serial number falls under the correct prefix for this model so you're not looking at a re-tagged unit or one mixing parts from a different generation. Have an independent inspection cover: engine compression and blow-by plus any PEEC sensor fault history, main pump output pressure and swing/travel response under load, undercarriage pin-and-bushing wear measured by chain pitch rather than visual check only, condition of the parallelogram front-linkage pins and master cylinder, and any structural cracking on the carbody or boom given typical mining/quarry duty cycles. Pull oil and hydraulic fluid analysis history if the seller has it, and ask specifically when major components (engine, pumps, final drives, swing drives) were last rebuilt rather than just when the machine was last serviced. Have your dealer or an independent heavy-equipment inspector verify all structural and hydraulic findings before you commit to purchase.

Compiled from owner and technician discussions across the industry — experiences vary by serial range and machine history.

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