This maintenance guide comes from years of hands-on customer support for robot vacuum owners, now published here for anyone to use rather than kept inside one support inbox. Several of the models and parts named below link out to Plus.Parts®, the maintenance parts store run by the same company behind this site, and that is also where much of the experience behind this guide comes from.
The Dreame X30 Ultra
, Dreame X30 Pro
, and Dreame X30 Master
are built on a shared extending side-arm mop platform, where two motorised arms extend outward during every hard-floor pass and retract automatically on carpet detection. All three models share the same dual anti-tangle rubber roller main brush, HEPA filter, side brush, mop pad format, and dock dustbag, making a single maintenance reference applicable across the full X30 series. This guide covers every service interval, explains how the extending arm mechanism creates wear points not present in rear-pad designs, and sets out how dock specification differences between the three models affect the care routine.
Why Dreame X30 series robots need more targeted maintenance
Extending mop arms introduce mechanical wear points absent from rear-pad designs
The defining characteristic of the Dreame X30 Ultra
, X30 Pro
, and X30 Master
is the pair of side-mounted mop arms that extend outward during every hard-floor pass and retract when carpet is detected. Each extension and retraction cycle moves the arm through a pivot joint and an actuated slide rail that accumulate fine hair, grit, and floor residue over time. Unlike a rear-pad mop system where the only moving components are the pad rotation mechanism and the lift actuator, the X30 arm operates its extension pivot on every room transition, every return to dock, and every carpet crossing. A partially obstructed pivot does not trigger an immediate fault: it restricts the arm’s travel range by a small increment, leaving a consistent strip of uncleaned floor along one side of the robot that owners initially attribute to a mapping error. Clearing the pivot joints monthly and confirming both arms reach their full extension range after cleaning takes under two minutes and prevents progressive restriction from becoming a fault that requires firmware intervention to reset.
High-performance suction loads the HEPA filter at rates that demand the full weekly tap-clean schedule
The Dreame X30 Ultra
operates at 12,000 Pa, a suction tier that drives particulate through the filtration path faster than low-to-mid-tier robots operating at 2,000 to 4,000 Pa. At this output level, a HEPA filter that transitions from clean white to mid-grey restricts airflow enough to produce a measurable suction drop within a single cleaning session rather than degrading gradually across several weeks. The practical consequence is that the weekly tap-clean schedule is a functional requirement at this output tier, not a precautionary guideline. A filter that looks acceptably pale on a quick visual check may already be operating past the threshold where airflow restriction is adding load to the brushless motor on every run. The X30 Pro
and X30 Master
operate at high-performance suction tiers that carry the same logic: the weekly tap-clean is a maintenance requirement, not a recommendation that can be skipped in lighter-use weeks without consequence.
The all-in-one dock chains multiple functions in a single dependent sequence
Every model in the X30 series docks with an all-in-one station managing auto-empty, mop pad washing, clean-water supply, dirty-water recovery, and air drying as a linked cycle. Each stage depends on the previous completing successfully. A dock dustbag approaching capacity prevents the auto-empty cycle from completing, leaving particulate in the robot’s internal dustbin for the following session and accelerating filter saturation on subsequent runs. A spray nozzle partially blocked with mineral scale delivers uneven water to the mop pads during the wash cycle, which increases dirty-water tank fill rate and triggers a capacity alert earlier than the schedule predicts. The mop pad drying cycle relies on unobstructed airflow through the pad compartment: a dock door seal collecting fine hair and lint reduces drying efficiency, leaving residual moisture in the pads at the start of the next session and creating the conditions for bacterial growth that produces the damp or musty odour owners frequently attribute to the pads themselves. Maintaining each stage of the dock’s cycle individually prevents the chain-failure pattern where a single overlooked component cascades into a symptom at a different point in the sequence.
Arm sensors require the same maintenance cycle as the lidar turret
The Dreame X30 Ultra
, X30 Pro
, and X30 Master
each carry obstacle-avoidance sensors on the side arms themselves, positioned to detect objects in the path of the extending arm before contact occurs. These sensors travel close to skirting boards, furniture legs, and floor-level objects during every extending-arm pass, accumulating fine dust and kitchen grease at a faster rate than the lidar turret on the top of the chassis. A contaminated arm sensor triggers premature arm retraction when no obstacle is present, producing an unclean strip along one side of the room that looks identical to the stripe caused by pivot joint contamination but has a different root cause and a different fix. Including the arm sensors in the same two-to-four-week wipe schedule as the lidar turret prevents this fault from entering the diagnostic sequence unnecessarily.
Models in this series compared
| Model | Suction | Mop system | Dock | Brush type | Notes |
|---|---|---|---|---|---|
Dreame X30 Ultra![]() |
12,000 Pa | Extending side-arm, rotating pad, 11 mm reach extension | Auto-empty, hot-water mop wash, clean-water supply, dirty-water recovery, hot-air dry | Dual anti-tangle rubber roller | Flagship tier; hot-water dock wash removes oily pad residue more effectively; filter replacement on a calendar schedule is more reliable than waiting for a performance drop |
Dreame X30 Pro![]() |
High-performance tier | Extending side-arm, rotating pad, liftable | Auto-empty, standard mop wash, clean-water supply, dirty-water recovery, air dry | Dual anti-tangle rubber roller | Standard dock wash temperature; oily residue on pad fibres accumulates faster than on the X30 Ultra dock; otherwise identical consumable schedule |
Dreame X30 Master![]() |
High-performance tier | Extending side-arm, rotating pad, liftable | Auto-empty, standard mop wash, clean-water supply, dirty-water recovery, air dry | Dual anti-tangle rubber roller | Entry tier of the X30 range; standard dock wash temperature; full X30 maintenance schedule applies without modification |
Replacement parts and service intervals
Dual anti-tangle main brush roller
The Dreame X30 Ultra
, X30 Pro
, and X30 Master
use a dual rubber roller main brush across all models: two counter-rotating rollers channel debris into the suction port while reducing the hair coil that seizes a single-roller design. The anti-tangle geometry handles most human and pet hair without forming a tight wrap, but fine hair migrates toward both end caps over time and compacts against the bearing seats, applying a slow drag to the brush motor. The first symptom is an intermittent stall warning that clears on the next session; the second is a persistent error that halts the run mid-room. Remove both rollers every one to two weeks, clear all end-cap material with a toothpick, wipe the rubber ridges, and confirm both rollers spin freely by hand before reinstalling. Replace the brush assembly every six to twelve months under daily residential use. In households with heavy shedding animals, the six-month end of that range is the realistic replacement point: rubber roller material takes a permanent surface set after fine fibre has compressed against it for an extended period, and mechanical grip drops measurably before the brush appears visually worn.
HEPA filter
Tap the HEPA filter over a waste bin weekly, holding the plastic frame and striking all four sides firmly to dislodge accumulated particulate from the pleated medium. Do not use a brush or sharp object on the pleated face: bristle contact damages the HEPA layer and reduces filtration effectiveness for the remainder of its service life. If the filter is confirmed washable in the app or accompanying documentation, rinse under cool running water with no detergent and allow it to dry for at least twenty-four hours in still air before reinstalling. A damp filter reinstalled immediately introduces moisture into the motor path and can trigger a sensor fault on any model in this series. Replace the filter every four to six months at daily use. At the Dreame X30 Ultra
‘s 12,000 Pa output tier, filter saturation appears as an abrupt suction drop rather than a gradual fade, making the calendar replacement interval a more reliable trigger than waiting for a performance decline that arrives suddenly and with little advance warning.
Battery
The Dreame X30 Ultra
, X30 Pro
, and X30 Master
use a rechargeable lithium-ion battery that under typical daily residential use delivers two to four years of service before charge capacity degrades to the point where runtime becomes noticeably shorter than when the robot was new. The robot always returns to dock for charging during a session rather than completing an entire floor plan on a single charge, so a battery approaching the end of its service life shows as progressively shorter run segments before each mid-session recharge stop rather than as a single visible failure. Wipe the charging contacts on the underside of the robot and the dock contact pins monthly using a dry cotton bud: tarnished or corroded contacts reduce charge transfer efficiency and can cause the robot to report a charging fault even when placed correctly on the dock. The clearest signal that the battery requires replacement is a consistent reduction in cleaning coverage per charge across several weeks that cannot be attributed to a change in floor plan or suction settings. Capacity degradation is gradual and does not produce an error code until the battery reaches a critically low charge-holding threshold, which makes the runtime pattern across a four-to-eight-week observation window a more reliable indicator than waiting for the app to flag a fault.
Mop pads: extending arm rotating system
The Dreame X30 Ultra
, X30 Pro
, and X30 Master
carry circular rotating mop pads on their side arms. The arm applies downward pressure across the pad surface during each extension, and the outer leading edge of each pad contacts floor texture at the highest rotational speed. Inspect the outer 10 mm of each arm pad at the two-month mark by running a fingertip across the fibre: if the outer ring feels compressed or shorter than the centre, replace both pads regardless of overall visual condition. The dock’s wash cycle keeps pads looking presentable well past the point the fibre height has degraded enough to redistribute rather than lift floor residue, so visual inspection alone is not a reliable end-of-life signal. Replace in pairs: running one new pad against one worn pad creates uneven lateral pressure from the arm system and produces a visible stripe along one side of the mopped area. Do not extend past three months regardless of inspection outcome.
Side brush
Inspect the side brush post weekly for hair at the base of the mounting stem. Even a small amount of wrapped thread applies enough rotational friction to distort the arm’s sweep arc, producing a consistent gap between the cleaning pass and the skirting board that the robot’s edge-detection logic cannot compensate for. Clear wrapped material with a toothpick or fine scissors. Replace the side brush every three to six months. A brush with permanently splayed or kinked arms should be replaced rather than physically straightened: the plastic material takes a permanent set once deformed under load and the sweep arc does not return to its specified geometry even when the arm appears visually restored. The symptom of a worn side brush that has not been replaced, a persistent uncleaned strip along the skirting board despite confirmed clean sensors and a correctly functioning pivot, is a reliable indicator that the brush arms have lost their outward spring and require a fresh unit.
Dock dustbag
The dock dustbag on the Dreame X30 Ultra
, X30 Pro
, and X30 Master
gates the auto-empty cycle. Replace when the bag reaches three-quarters capacity, visible through the inspection window on the dock body. Waiting for the bag to reach full capacity risks the auto-empty cycle stalling mid-transfer, leaving the robot’s onboard dustbin partially loaded for the following session and accelerating filter saturation across subsequent runs. In daily residential use without shedding animals, the dustbag typically reaches the replacement point in six to ten weeks. In households with heavily shedding pets or predominantly carpeted rooms, the practical interval is four to six weeks. The sealed-bag design contains fine particulate during replacement, which is the primary reason dock-equipped robots are preferred in homes with dust sensitivity or respiratory considerations.
Dock water tanks and clean-water supply
Empty and rinse the dirty-water tank every two to three days. Wipe the interior with a clean cloth before reinstalling: a damp tank put back immediately reintroduces the same bacterial load the rinse was intended to remove, which transfers back to the mop pads through the next wash cycle and helps produce the stale odour owners typically attribute to the pads themselves. Refill the clean-water tank with cool, clean tap water. Dreame advises against cleaning additives or detergents in the supply tank, as both degrade the pump diaphragm and internal supply-line seals progressively over multiple fill cycles. Drain the clean-water tank completely and leave it open to air-dry if the robot will not be operated for more than three to four days: standing water in the supply line supports bacterial growth and can produce mineral deposits in the supply nozzle that begin restricting flow before the blockage is visible externally.
Dock spray nozzles
Wipe the mop-wash spray nozzles monthly in soft-water regions and every two to three weeks in areas with moderately hard tap water. A partially blocked nozzle delivers water unevenly across the mop pad during the dock’s wash cycle, producing a stripe on hard floors after the following cleaning session where the under-washed section deposits fine residue it cannot lift. If mineral build-up is visible at a nozzle opening, descale using dilute citric acid solution, rinse thoroughly under clean running water, and run a manual wash cycle from the app before the next floor-cleaning session to flush any residual descaler from the supply line before it contacts the mop pads.
Mop arm extension mechanism and pivot joints
The side-mounted mop arms on the Dreame X30 Ultra
, X30 Pro
, and X30 Master
extend and retract on every room transition, every docking event, and every carpet crossing detected during a cleaning session. The pivot joint at the base of each arm and the slide rail along which the arm travels accumulate fine hair, grit, and floor residue that progressively restrict the arm’s travel range without triggering an immediate fault. The first sign of pivot contamination is a consistent unclean strip along one edge of the room, as the affected arm no longer reaches its design extension. Wipe both pivot joints and the slide rails with a dry microfibre cloth monthly. Confirm both arms extend and retract smoothly by initiating a manual mop-arm test from the app after cleaning. If one arm extends fully and the other stops short, the restricted side confirms pivot contamination and resolves in the large majority of cases on a thorough wipe of that specific joint. Running the robot with a restricted arm continues accumulating load on the arm actuator motor as it tries to reach the extension target against increasing mechanical resistance.
Sensor windows, lidar turret, and arm sensors
Wipe the lidar turret window and the forward obstacle-avoidance camera lens with a dry microfibre cloth every two to four weeks. Fine dust and airborne kitchen grease accumulate on the turret housing at a rate that varies significantly between kitchen-adjacent areas and dedicated living spaces, so the two-week interval applies to robots operating primarily in kitchens or dining rooms. A clouded turret produces false distance readings that cause the robot to slow or pause in open areas as though approaching an obstacle. On the Dreame X30 Ultra
, X30 Pro
, and X30 Master
, the obstacle-avoidance sensors mounted on each side arm should be wiped at the same interval: a contaminated arm sensor triggers premature retraction when no obstacle is present, producing an unclean strip identical in appearance to pivot contamination but requiring a different fix. Wipe the cliff sensors on the underside of the chassis at the same interval: a thin film of dust on a cliff sensor reads as a floor edge and can cause the robot to detour around clear floor or refuse to leave the dock.
Maintenance at a glance
| Component | Clean | Replace |
|---|---|---|
| Dual anti-tangle main brush | Every 1 to 2 weeks; end caps and rubber ridges | Every 6 to 12 months |
| HEPA filter | Weekly tap; washable models: cool rinse, air-dry 24 hours minimum | Every 4 to 6 months |
| Mop pads (extending arm rotating) | Auto-washed by dock; inspect outer edge at 2 months | Every 2 to 3 months, always in pairs |
| Side brush | Weekly stem inspection | Every 3 to 6 months |
| Dock dustbag | — | At three-quarters capacity; roughly 4 to 10 weeks |
| Dock dirty-water tank | Every 2 to 3 days; wipe dry before reinstalling | — |
| Dock clean-water tank | Monthly wipe-out; drain fully if unused for 3 to 4 days | — |
| Dock spray nozzles | Monthly; every 2 to 3 weeks in hard-water regions | — |
| Mop arm pivots and slide rails | Monthly wipe; confirm extension range after cleaning | — |
| Sensor windows, arm sensors, and cliff sensors | Every 2 to 4 weeks | — |
| Battery charging contacts | Monthly; wipe with dry cotton bud | Every 2 to 4 years; replace when runtime declines consistently |
Common problems and their maintenance causes
Suction drops sharply mid-session without recovering
The HEPA filter has saturated faster than the schedule anticipated, typically because a weekly tap-clean was skipped or the household carries a higher fine-particulate load than average. Pull the filter and inspect the pleated face: a uniform mid-grey across the full surface means replace immediately rather than tap-clean. If the filter appears acceptably pale, check the inlet at the top of the onboard dustbin for a compressed layer of fine particulate that the auto-empty cycle did not transfer to the dock bag. Confirm the dock dustbag is not at or near capacity: a full bag creates back-pressure during auto-empty that deposits fine dust in the transfer port and the robot’s internal bin simultaneously, accelerating filter saturation on every subsequent run. In high-suction models such as the Dreame X30 Ultra
, the suction drop arrives abruptly rather than fading gradually, which means the calendar replacement interval is the more reliable trigger than waiting for a performance change that gives little advance warning.
Visible stripes or an uneven wet-dry pattern across hard floors after mopping
Three distinct faults produce a stripe pattern on hard floors in the X30 series: a partially blocked dock spray nozzle that delivers water unevenly to one mop pad; worn mop pads whose fibre height has degraded to the point they redistribute rather than lift floor residue; and a mop arm pivot contaminated enough that one arm fails to reach its full extension. Confirm nozzle condition first: wipe the nozzles and check for visible mineral deposits. If build-up is present, descale and run a manual wash cycle before the next session. If the stripe persists after confirmed clean nozzles, inspect the mop pads at the outer 10 mm of each arm pad. A worn outer ring that feels compressed confirms pad replacement is required. If both nozzles and pads are in good condition, check whether the arm on the side producing the stripe is reaching its full extension by running a manual arm test from the app: a restricted pivot produces a single-edge stripe that is indistinguishable from a nozzle fault on visual inspection alone.
Mop arm fails to extend fully or retracts prematurely during a hard-floor session
A mop arm that extends on one side but not the other, or that retracts during a hard-floor pass where no carpet is present, points first to pivot joint contamination on the restricted side. Wipe both pivot joints and slide rails with a dry microfibre cloth, confirm both arms move freely by hand through their full travel range, and run a manual arm test from the app before the next session. If both arms move freely by hand but one retracts prematurely during cleaning, check that the carpet-detection sensitivity setting in the app has not been increased beyond the default: a high sensitivity value can trigger arm retraction on floor texture variations such as grout lines or textured tile that the sensor reads as a carpet boundary. A contaminated obstacle sensor on the retracting arm can produce the same symptom through a different mechanism: the sensor reads a non-existent obstacle and signals the arm to retract. Wipe the arm sensor at the affected side and run a second test session before concluding the pivot or actuator requires further inspection.
Stale or musty odour from the dock or the mop pads after a wash cycle
The dirty-water tank has been left beyond the two-to-three-day rinse interval, allowing bacterial growth in residual water that the wash cycle then distributes back across the mop pads. Empty the dirty-water tank immediately, rinse under running water, and soak the tank in a solution of equal parts white vinegar and water for thirty minutes monthly to help break down the mineral film that retains organic matter between rinses. Confirm the tank is fully dry before reinstalling. If the odour persists after a confirmed clean tank, the pads have absorbed contaminated wash water across multiple cycles and require replacement. A fresh set of pads paired with a clean tank resolves the odour in the large majority of cases. If the smell returns within two weeks of a full pad replacement, check whether the dock air-dry cycle is completing fully: a pad that did not dry completely accelerates bacterial growth faster than one that dried fully between sessions.
Auto-empty cycle fails or robot dustbin remains partially full after docking
The dock dustbag on the Dreame X30 Ultra
, X30 Pro
, and X30 Master
is at or near capacity. Replace the bag and initiate a manual docking cycle to confirm transfer resumes correctly. If a fresh dustbag does not resolve the issue, wipe the auto-empty port at the base of the robot and the corresponding port seal on the dock with a dry cloth. Fine dust and compacted hair accumulate at the port seal across months of daily docking events and prevent the vacuum needed for a complete transfer from forming. A port seal that remains contaminated after thorough wiping warrants a closer inspection for physical damage to the seal material, which prevents a full vacuum from forming regardless of cleanliness.
Robot hesitates in open areas or refuses to leave the dock at the start of a session
The cliff sensors under the chassis have accumulated dust or fine floor residue that reads as a floor-edge signal. Wipe all cliff sensor windows with a dry microfibre cloth. If hesitation in open areas persists after clean cliff sensors, wipe the lidar turret window: a turret window covered with a grease film produces false obstacle distance readings that cause the robot to slow in clear space as though approaching an object. Cliff hesitation concentrates at specific floor zones where residue has accumulated on the relevant sensor, while lidar-related caution tends to distribute more broadly across rooms, which helps narrow the diagnostic before cleaning. The obstacle-avoidance sensors on each side arm of the X30 Ultra
, X30 Pro
, and X30 Master
should also be wiped at the same interval: a contaminated arm sensor causes premature arm retraction, producing the same visual result as pivot contamination but with a different root cause.
Brush stall error at the start of or during a cleaning session
Fine hair has compacted at the end-cap bearings of the dual anti-tangle roller on the Dreame X30 Ultra
, X30 Pro
, and X30 Master
beyond the point the counter-rotating geometry can divert automatically, and the brush motor has triggered over-current protection. Remove both rollers from the chassis, clear all compacted material at both end caps with a toothpick, and wipe the bearing seats clean. Confirm both rollers spin freely by hand before reinstalling. If the stall error returns within a few sessions of a thorough clean, bearing friction has progressed past the point where cleaning restores free rotation, and the brush assembly should be replaced. Running the robot through repeated stall cycles to clear the error without addressing the root cause adds incremental load to the brush motor on every triggered event and shortens the brush motor’s usable life faster than a direct replacement of the worn brush assembly.
What consistent maintenance protects over time
The consumable chain across the X30 platform is tightly interdependent. A saturated HEPA filter forces the brushless motor to draw more current to maintain its rated suction output, and sustained operation at elevated current compresses the motor’s bearing life across an ownership window that should extend two to three years with a consistent preventive schedule. A compacted brush end-cap bearing adds mechanical drag to the same motor during the same session. A full dock dustbag that prevents auto-empty from completing leaves fine particulate in the robot’s internal dustbin for the next run, which loads the filter faster than the service schedule anticipates and shortens the practical interval between replacements. On the Dreame X30 Ultra
, X30 Pro
, and X30 Master
, a restricted mop arm pivot adds a third concurrent load: the arm actuator tries to reach its extension target against the resistance of debris accumulation on every single cleaning session until the pivot is cleared, adding a slow but measurable mechanical strain that produces no service alert until the restriction has already been running for several weeks. Reactive maintenance driven by error codes or visible failures costs more in parts and time over two years than a consistent preventive schedule, because each skipped service event allows the cascade above to run further before the trigger becomes unavoidable.
The Plus.Parts® Maintenance Set for the Dreame X30 series covers the full service scope in a single order: dual anti-tangle main brush, HEPA filter, mop pads, side brush, and dock dustbag, all sized to the correct format for the X30 Master, X30 Pro, and X30 Ultra. Holding a complete set on hand eliminates the delivery gap that most commonly causes individual consumables to run past their replacement interval and allows every component in the interdependent chain above to be maintained on schedule without waiting for a part to arrive.
How the models differ
All three X30 models are built on the same extending side-arm mop chassis and share an identical consumable family: dual anti-tangle rubber roller main brush, HEPA filter, side brush, mop pads, and dock dustbag. The service schedule is identical across the range. The practical differences that affect maintenance are the dock wash temperature, which changes how quickly oily residue builds up on pad fibres, and the suction output, where the X30 Ultra’s 12,000 Pa rating means filter saturation arrives as a sharper suction drop than on the Pro or Master. For both the X30 Pro and X30 Master, the same weekly tap-clean interval applies: high-performance suction tiers load filters faster than entry-class robots regardless of the exact Pa figure, and the calendar replacement schedule remains more reliable than waiting for a noticeable performance decline across all three models. Neither the dock temperature difference nor the suction tier difference alters the consumable intervals, the mop pad replacement cycle, or the arm maintenance routine.
Dreame X30 Ultra
The Dreame X30 Ultra
is the flagship of the X30 platform, combining 12,000 Pa brushless suction with LiDAR-guided navigation and two side-mounted mop arms that extend 11 mm beyond the robot’s wheel track during hard-floor cleaning. The all-in-one dock provides auto-empty, hot-water mop pad washing, clean-water supply, dirty-water recovery, and hot-air drying. The hot-water wash cycle raises pad wash temperature above the standard cold-water cycle available on the X30 Pro and X30 Master docks, improving removal of oily residue from pad fibres and reducing the frequency of stale-pad odour in households that cook daily with oil or fat. For maintenance, the 12,000 Pa output means filter saturation arrives abruptly rather than fading gradually, making the calendar replacement interval a more reliable service trigger than waiting for a performance decline. The arm sensors on the X30 Ultra should be wiped at the same interval as the lidar turret: the X30 Ultra is most frequently operated in close-edge cleaning mode, where sensor contamination has the greatest practical effect on arm behaviour during wall-following passes.
Dreame X30 Pro
The Dreame X30 Pro
uses the same extending side-arm mop architecture as the X30 Ultra, with the same dual anti-tangle rubber roller main brush and identical consumable format. Its dock provides auto-empty, mop pad wash, clean-water supply, dirty-water recovery, and air drying without the elevated wash-water temperature of the X30 Ultra dock. The maintenance schedule for the arm extension mechanism, the pivot joints, and the spray nozzles is identical to the X30 Ultra. Owners who move from the X30 Ultra to the X30 Pro will find the same service routine applies in full; the only operational difference is the wash cycle temperature, which changes how quickly oily residue accumulates on pad fibres but does not alter the pad replacement interval of two to three months.
Dreame X30 Master
The Dreame X30 Master
is the entry member of the X30 extending-arm range. It shares the same arm mop architecture, dual anti-tangle rubber roller, HEPA filter format, and consumable family as the X30 Ultra and X30 Pro. The dock configuration varies from the X30 Ultra’s flagship specification, but every maintenance task in this guide applies to the X30 Master without modification, including the monthly pivot joint wipe, the arm extension confirmation, and the nozzle descale schedule. The shared consumable format across all three X30 models means a single maintenance set covers the full service scope of every model in the range, which benefits households running more than one X30 series robot.
Type reference
| Type | Alternative type | Retail type |
|---|---|---|
| RAK35 | — | — |
| RMSRB0 | — | — |
| RHF12 | RHF14 | — |
| RDB7 | RDB8 | 20010100000840 |
| RMP8 | 20010100000872 | — |
