Gausium Scrubber 50 Review: Specs & Price

Gausium Scrubber 50: Quick Buyer Verdict

The Gausium Scrubber 50 should be evaluated as an autonomous commercial floor-cleaning system, not merely as a conventional scrubber with self-driving added.

Its strongest proposition is automation of repetitive hard-floor cleaning across medium and large facilities. Gausium combines autonomous navigation with scrubbing, sweeping or dust-mopping functions, AI-based waste detection, remote task management and optional infrastructure that can recharge the robot and manage clean and wastewater automatically.

The current specification lists practical cleaning productivity of 500–1,300 m²/h, a three-hour maximum scrubbing runtime, a two-hour charging time and a minimum pass width of 800 mm. Those figures make it particularly relevant to sites with substantial open or semi-open hard-floor areas.

Pros

• Strong practical cleaning productivity for medium-to-large hard-floor areas.
• Autonomous mapping, localisation, obstacle avoidance and rerouting.
• AI-based Spot Cleaning can identify waste and target only areas requiring attention.
• Disc and roller-brush configurations for different cleaning requirements.
• Roller version can collect loose debris while scrubbing.
• Optional side brushes provide a wider 780 mm envelope and edge-to-edge cleaning.
• Built-in water-recycling system can materially reduce freshwater consumption.
• Optional workstation supports charging, water refill and wastewater discharge.
• Optional elevator integration enables multi-level deployments.
• Remote task monitoring and control through Gausium’s software ecosystem.
• Published deployments across retail, transportation, airports, education and manufacturing.
• Lithium iron phosphate battery technology with a manufacturer-stated 2,000-cycle lifespan.

Cons

• Gausium does not publish a universal official retail price on its main product page.
• Full unattended operation requires additional infrastructure such as the WS-01 workstation.
• Three hours of maximum scrubbing runtime means duty cycle must be designed around charging and water operations.
• The 700 mm machine width makes it unsuitable for some narrow or heavily cluttered areas.
• The disc configuration does not list a debris tray.
• Maximum theoretical productivity should not be confused with practical site productivity.
• Gausium’s “up to 4×” Spot Cleaning efficiency claim refers to a specific cleaning strategy, not a guarantee that every facility will be cleaned four times faster.
• Elevator, door and building integrations add commissioning complexity.
• Human tasks remain for inspection, consumables, filters, brushes, squeegees, unusual waste and exception handling.
• Omnie is now positioned as the latest evolution of the platform, creating an additional comparison decision for new buyers.

Our recommendation: shortlist the Scrubber 50 when you have large, repeatable hard-floor routes and want to remove routine floor scrubbing from staff workloads. For new 2026 projects, request quotes for both Scrubber 50 and Omnie and compare the complete installed solution—not only the robot. The correct comparison includes brush configuration, workstation, building integrations, mapping, commissioning, service, consumables and support. See the Gausium Scrubber 50 listing at Anton Robots before requesting a proposal.

How Much Does the Gausium Scrubber 50 Cost in 2026?

Gausium does not publish a universal global list price for the Scrubber 50 on its main product page. Commercial pricing is normally supplied through Gausium or an authorised distributor and depends on region, configuration, deployment services and infrastructure.

As a market reference rather than an official global MSRP, one current US authorised-distributor listing advertises the Scrubber 50 at approximately US$40,999. The same distributor lists the WS-01 workstation at approximately US$3,200. Prices in other markets can differ substantially because of freight, taxes, dealer support, commissioning and local service.

The robot purchase price is therefore only one layer of project cost.

Do not compare robot prices alone

A Scrubber 50 with a workstation and integrated elevator can solve a very different problem from a basic autonomous scrubber that still requires staff to refill water, empty recovery tanks and move the machine between floors.

Request at least three numbers:

1. Robot-only price.
2. Fully installed project price: robot, accessories, commissioning and building integration.
3. Three-year operating cost: service, consumables, software, repairs and expected human support.

Then compare those numbers with the labour hours and conventional-equipment costs the robot is expected to replace or redeploy.

What Is the Gausium Scrubber 50?

The Gausium Scrubber 50 is an autonomous commercial floor-cleaning robot designed primarily for medium-to-large hard-floor environments.

It combines traditional scrubber-dryer hardware with autonomous navigation, computer vision and cloud-connected task management. Instead of requiring an operator to push or ride the machine through every route, the robot can follow mapped cleaning plans, recognise obstacles, adjust its path and return to a docking system.

The current machine measures approximately 810 × 700 × 1,070 mm. Depending on cleaning configuration, Gausium lists a net weight of approximately 148–157 kg.

Its perception system includes 2D LiDAR, 3D depth cameras, RGB vision and anti-collision sensing.

What the Scrubber 50 is

• An autonomous commercial scrubber for substantial hard-floor areas.
• A platform for scheduled and repeatable floor-cleaning routes.
• A robot capable of adapting its route around changing obstacles.
• A system that can combine wet scrubbing with sweeping or dust-mopping functions depending on configuration.
• A machine capable of targeted AI-based spot cleaning.
• A robot that can be paired with automatic charging and water-management infrastructure.
• A platform that has been integrated with elevators in multi-floor facilities.

What the Scrubber 50 is not

• It is not a domestic robotic vacuum.
• It is not primarily a carpet-cleaning robot.
• It is not automatically maintenance-free.
• It does not eliminate every manual cleaning task.
• It cannot remove every type or size of waste it encounters.
• It does not become a multi-floor system without the required building integration.
• It does not automatically include the WS-01 workstation.
• Its laboratory productivity figures are not a guarantee of equivalent real-world throughput.
• A standard configuration should not be assumed to have every safety certification available for the platform.

If you are still selecting the robot category rather than one specific model, compare available commercial cleaning robots before committing to Scrubber 50.

Gausium Scrubber 50 Disc Brush vs Roller Brush

The choice between disc and roller configurations is one of the most important buying decisions.

They use the same basic robot platform, but the cleaning hardware and operating characteristics are different.

Choose the disc brush when:

• The primary task is wet scrubbing rather than loose-debris collection.
• Higher brush pressure is useful for the floor and soil condition.
• The site is already swept before scrubbing.
• The simpler cleaning path meets the required coverage.

Choose the roller brush when:

• Loose debris must be collected during the cleaning pass.
• Industrial dust, particles or small solid waste are a significant issue.
• Side-brush coverage is important.
• Cleaning very close to walls and edges is a priority.

A Gausium case study from a mechanical-manufacturing facility in Austria used the roller-brush Scrubber 50 specifically in an environment containing abrasive dirt, metal shavings and sharp-edged debris.

That does not mean every industrial particle is safe for the machine. The correct configuration should be demonstrated with representative waste from the actual facility.

Buyer rule: bring the dirt to the demo. Do not select a cleaning head from a brochure alone. Test the exact floor, contamination, chemicals and debris that the robot will face every day.

Gausium Scrubber 50 Specifications

The following figures are from Gausium’s current Scrubber 50 specification page checked on 12 September 2026.

Why some Scrubber 50 specifications online are different

Buyers may find older Gausium brochures quoting figures such as 1,490 m²/h theoretical productivity or a 0.9 m/s maximum speed.

The current Gausium specification page now lists higher figures, including 1,987 m²/h theoretical scrubbing efficiency for the disc version and a 1.2 m/s maximum cleaning speed.

This is exactly why procurement specifications should reference the exact hardware and software revision being supplied, rather than copying numbers from an old PDF or reseller page.

Ask the supplier to attach a dated specification sheet to the quotation and purchase order.

How Well Does the Gausium Scrubber 50 Clean?

The Scrubber 50 combines mechanical floor cleaning with autonomous route execution. Those are two separate performance questions.

A robot can navigate perfectly and still use the wrong brush, chemical or cleaning parameters for the floor. Likewise, an excellent scrubber cannot generate labour savings if it regularly becomes blocked or requires intervention.

Practical productivity matters more than theoretical productivity

Gausium publishes a theoretical maximum of 1,987 m²/h for the disc configuration and 1,754 m²/h for the roller configuration.

More importantly, Gausium publishes a practical cleaning range of 500–1,300 m²/h for both.

Real productivity will change with:

• Route geometry.
• Number of turns.
• Obstacles and pedestrian traffic.
• Cleaning speed.
• Overlap between passes.
• Level of soil.
• Spot-cleaning events.
• Water stops.
• Elevator waiting time.
• Door and access-control delays.
• Manual intervention.

For ROI calculations, use the practical figure measured during a site trial—not the maximum laboratory number.

Auto Spot Cleaning

One of the Scrubber 50’s distinctive features is Gausium’s AI-based Spot Cleaning mode.

Instead of treating every square metre as equally dirty, the RGB camera and AI system can identify visible waste or stains and target areas requiring cleaning.

Gausium states that this can produce up to a four-times efficiency improvement compared with conventional cleaning patterns.

That claim needs the correct interpretation.

It does not mean a Scrubber 50 will universally clean a 4,000 m² facility four times faster. It means targeted cleaning can avoid unnecessary passes in suitable situations.

Spot Cleaning becomes particularly interesting for:

• Shopping centres during operating hours.
• Transportation corridors.
• Supermarkets.
• Entrance areas.
• Sites where cleanliness varies significantly through the day.

What happens when waste is too large?

Gausium states that the robot can notify operators when it detects waste that it cannot clean.

That illustrates an important point about autonomous cleaning: the target is not zero human involvement.

The target is to automate predictable repetitive work and escalate exceptions to staff.

Navigation, AI and Autonomous Cleaning

The Scrubber 50 uses sensor fusion combining 2D LiDAR, 3D depth perception, RGB cameras and anti-collision sensing.

Gausium uses this system to allow the robot to:

• Map a facility.
• Localise itself during operation.
• Follow scheduled cleaning routes.
• Detect static and moving obstacles.
• Reroute when the environment changes.
• Update its route around temporarily blocked areas.
• Detect waste for Spot Cleaning.
• Return to compatible docking infrastructure.

This is materially different from older autonomous machines that simply replay a taught path with limited environmental understanding.

Dynamic environments are where autonomy is tested

An empty warehouse at 2:00 a.m. is relatively easy.

A shopping centre, university corridor or metro station during operating hours is much harder because the robot must continually deal with:

• Pedestrians.
• Shopping trolleys.
• Luggage.
• Temporary displays.
• Cleaning carts.
• Open and closed doors.
• Furniture changes.
• Queues.
• Unexpected waste.

Gausium’s published customer deployments suggest that Scrubber 50 can operate in these types of dynamic facilities, but the relevant metric for a buyer is still intervention rate at the actual site.

Ask for intervention data

During a pilot, measure:

• Cleaning hours scheduled.
• Cleaning hours completed autonomously.
• Number of human interventions.
• Reason for each intervention.
• Area skipped.
• Tasks aborted.
• Time spent recovering the robot.
• Manual touch-up time after robotic cleaning.

A robot that cleans 1,000 m²/h but needs rescuing every 20 minutes may generate less value than a slower machine that completes entire shifts independently.

Water Recycling, Automatic Refill and Wastewater Management

Water management is one of the Scrubber 50’s most commercially important features.

The robot contains a 30 L clean-water tank and 24 L wastewater tank. Gausium also integrates a multi-stage filtration and recycling system and states that it can reduce freshwater consumption by approximately 80%.

This can reduce:

• Freshwater usage.
• Frequency of manual tank refills.
• Wastewater generation.
• Operator interaction with the robot.

Treat the 80% figure as a manufacturer-reported system capability rather than an automatic site saving. Actual consumption depends on floor condition, cleaning settings and operating pattern.

WS-01 workstation

The optional Gausium WS-01 workstation is designed specifically for Scrubber 50.

When docked, the robot can automatically:

• Recharge its battery.
• Refill clean water.
• Discharge wastewater.

This changes the operating model significantly.

Without automated water management, staff still need to monitor and service tanks.

With the workstation correctly installed, the robot can complete more cleaning cycles with substantially less intervention.

The workstation is an infrastructure project

Do not treat it like a phone charger.

The installation can require:

• Electrical power.
• Clean-water connection.
• Drainage.
• Suitable floor level.
• Space for reliable docking.
• Protection from pedestrian obstruction.
• Network connectivity where required.

A procurement quote should clearly state who supplies and installs every connection.

CD-01 charging dock

Facilities that do not need automated water handling can use the CD-01 charging dock.

Gausium states that the robot can return to the dock when battery level is low, recharge and subsequently resume its task.

The choice is therefore:

• CD-01: automate charging.
• WS-01: automate charging plus clean-water refill and wastewater discharge.

For large unattended deployments, the WS-01 is usually the more strategically important accessory.

Battery Life, Charging and Duty Cycle

The Scrubber 50 uses a 24 V, 60 Ah lithium iron phosphate battery.

Gausium publishes:

• Maximum scrubbing runtime: 3 hours.
• Disc-brush dust mopping: up to 8 hours.
• Roller-brush dust mopping: up to 6 hours.
• Charging time: approximately 2 hours.

Gausium also states that the LFP battery is designed for approximately 2,000 cycles.

Three hours does not equal three productive hours

Actual usable scrubbing time can be lower because energy is consumed by:

• Driving between zones.
• Waiting for elevators.
• Obstacle avoidance.
• Repeated passes.
• Docking.
• Idle periods.
• Battery ageing.

A proper pilot should measure square metres completed per complete charge cycle, not only runtime.

Duty-cycle planning

For a facility requiring long operating hours, determine:

1. How much area can be cleaned before charging.
2. How long charging actually takes in the supplied configuration.
3. Whether cleaning can be divided into zones around charging cycles.
4. Whether the workstation allows unsupervised restart.
5. Whether high-traffic cleaning periods coincide with charging periods.

The robot’s value depends on the complete daily schedule, not the battery specification alone.

Can the Gausium Scrubber 50 Use Elevators?

Yes, the Scrubber 50 can be deployed in multi-floor facilities when an appropriate elevator integration is installed.

Gausium has published several examples of this capability.

At FMZ Imst in Austria, a Scrubber 50 was integrated with a 15-year-old elevator system and used to autonomously clean nearly 4,000 m² across three floors.

At Shanghai Maritime University, Gausium reported a Scrubber 50 autonomously using elevators as part of its multi-level cleaning schedule.

Elevator capability is not plug-and-play

A robot cannot simply enter every existing elevator and start pressing buttons.

Possible integration work includes:

• Elevator control interface.
• Building-management-system integration.
• Network connectivity.
• Robot-to-lift communication.
• Door timing.
• Floor permissions.
• Emergency behaviour.
• Testing with passengers.

Ask the supplier to identify whether the elevator brand and controller at your facility have already been integrated elsewhere.

Multi-floor cleaning can transform ROI

Without elevator integration, staff may need to manually move the robot between floors.

With reliable integration, a single robot can potentially serve multiple levels sequentially.

That can materially increase utilisation and reduce the number of robots required.

Gausium Scrubber 50 Safety and Operating Limitations

The Scrubber 50 is intended to operate in commercial environments that can include people, but buyers should not interpret autonomous obstacle detection as permission to deploy the machine anywhere without risk assessment.

At up to approximately 157 kg, it remains a substantial moving machine.

IEC 63327

Gausium’s current specification page states that alternative configurations compliant with IEC 63327 are available upon request and warns that specifications can vary with the chosen configuration.

IEC 63327:2021 covers safety requirements for automatic commercial floor-treatment machines used for functions including sweeping and scrubbing.

The wording matters.

It does not say that every Scrubber 50 automatically supplied in every market has the same certified configuration.

Request compliance documentation for the exact robot being quoted.

Minimum site-safety review

A deployment assessment should examine:

• Pedestrian traffic.
• Children or vulnerable occupants.
• Blind corners.
• Escalators and stairs.
• Glass doors.
• Loading zones.
• Ramps.
• Floor transitions.
• Emergency exits.
• Elevators.
• Temporary barriers.
• Cleaning chemicals.
• Residual water and slip risk.

Do not assume outdoor capability

The main Scrubber 50 specification page does not publish an IP rating or describe the robot as an all-weather outdoor cleaning machine.

Do not assume that indoor wet-floor capability means the electronics are suitable for rain, washdown or uncontrolled exterior conditions.

Request written confirmation before planning any semi-exposed or outdoor route.

Cameras and privacy

The robot uses RGB vision as part of its perception and Spot Cleaning system.

Organisations operating in public buildings, healthcare, workplaces or residential facilities should understand:

• What visual data is processed.
• Whether images are stored.
• Where data is stored.
• Who can access recordings or logs.
• What information is transmitted to cloud services.
• How remote access is controlled.

Include IT and privacy teams early rather than after deployment.

What Real-World Gausium Scrubber 50 Deployments Show

The Scrubber 50 has a stronger deployment record than many newer commercial cleaning robots.

However, most publicly available performance evidence is published by Gausium or its partners rather than through independent controlled studies.

It is useful evidence of commercial deployment—but not a guarantee of equivalent results.

Madrid Metro

In March 2026, Gausium reported that three Scrubber 50 robots had been deployed across Metro de Madrid station corridors.

This is a useful reference because metro corridors combine several difficult autonomy conditions:

• Continuous pedestrian traffic.
• Luggage.
• Changing obstacle patterns.
• High cleaning frequency.
• Public visibility.

The case supports the argument that Scrubber 50 is more than a warehouse-night-shift robot.

Mömax: more than 20 stores

Gausium reported that furniture retailer Mömax deployed Scrubber 50 across more than 20 Austrian stores beginning in 2024.

One particularly relevant capability was adaptation to changing showroom layouts: when furniture was added or removed, the robot could alter the accessible cleaning area rather than relying on an unchanged fixed route.

That characteristic matters in retail because floor layouts can change frequently.

FMZ Imst: high automation

The FMZ Imst deployment is particularly important for buyers evaluating an unattended system.

Gausium reports that a Scrubber 50:

• Operated at night.
• Used a workstation.
• Integrated with an elevator.
• Covered three floors.
• Cleaned nearly 4,000 m².

That is closer to the real commercial objective of autonomous cleaning: not merely self-driving, but completing a building-wide cleaning process with minimal intervention.

What these cases prove

• Scrubber 50 has been deployed commercially at meaningful scale.
• It can operate in public-facing environments.
• Multi-floor autonomous cleaning is possible with the correct integration.
• The roller configuration can serve more demanding debris conditions.
• The same platform can work across transportation, retail, education and industrial facilities.

What they do not prove

• That every site will achieve the same productivity.
• That every floor can be cleaned with the same brush and chemistry.
• That autonomous cleaning eliminates staff entirely.
• That every elevator can be integrated at the same cost.
• That manufacturer case-study ROI will match your labour market.
• That a Scrubber 50 will outperform every newer robot—including Gausium Omnie—on your site.

Best Uses for the Gausium Scrubber 50

1. Shopping centres

One of the strongest use cases.

Shopping centres combine large hard-floor areas with repetitive cleaning requirements and labour-intensive routes.

Scrubber 50 can operate scheduled cleaning cycles, reroute around customers and use Spot Cleaning for high-traffic areas where waste appears unpredictably.

2. Airports

Airport terminals, check-in halls and circulation areas provide long cleaning routes and high utilisation potential.

Published Scrubber 50 deployments include Salzburg Airport, while Gausium’s broader autonomous-cleaning fleet has also been used at other aviation facilities.

3. Metro and railway stations

Large corridors and concourses fit the machine’s strengths particularly well.

The Madrid Metro deployment demonstrates current use in one of the most demanding public-space categories.

4. Supermarkets and big-box retail

Wide aisles and repeated daily floor-cleaning cycles create a strong automation case.

The robot can perform scheduled cleaning without consuming employee time that could otherwise remain customer-facing.

5. Office and commercial buildings

Large lobbies, circulation areas and hard-floor common areas can be cleaned outside peak periods or continuously where pedestrian conditions permit.

6. Universities

Academic buildings often have long corridors, atriums and multiple floors.

Elevator integration can make a single robot useful across a significantly larger building area.

7. Hospitals and healthcare facilities

The robot can automate repetitive floor care across compatible hard-floor areas.

Healthcare buyers should pay particular attention to infection-control procedures, privacy, chemical compatibility, route restrictions and the interaction between autonomous equipment and patients.

8. Industrial production areas

The roller configuration can be valuable where both scrubbing and particulate collection are required.

The TZU Lienz deployment provides a useful real-world example.

9. Large residential buildings

Lobbies, corridors, shared facilities and other hard-floor common areas can be candidates when the route has sufficient width and appropriate building integration.

Elevator compatibility can be especially important for this category.

When the Gausium Scrubber 50 Is Not the Right Robot

The Scrubber 50 is not automatically the right answer simply because the site needs cleaning automation.

• Small cluttered environments: a compact platform such as Gausium Phantas may access more floor area.
• Carpet-heavy sites: choose a platform designed for vacuuming and mixed flooring.
• Very large industrial floors: a larger high-capacity autonomous scrubber may offer better tank capacity and throughput.
• Outdoor routes: verify environmental protection rather than assuming indoor specifications apply.
• Very narrow corridors: the robot is 700 mm wide and requires an 800 mm published minimum pass width.
• Complex furniture layouts: physical access may matter more than nominal square metres.
• Facilities without a deployment owner: someone still needs to own maintenance, consumables, exceptions and performance.
• No infrastructure budget: the highest level of autonomy can require docking, plumbing and building integration.
• Expectation of zero-touch cleaning: unusual spills, oversized debris, edges, stairs and inaccessible spaces remain human tasks.

The correct question is not “Can a robot clean our building?”

It is:

What percentage of our current floor-cleaning workload can this robot reliably complete without human intervention?

That figure drives the business case.

Gausium Scrubber 50 vs Omnie, Phantas, PUDU CC1 Pro, Tennant X4 ROVR and Avidbots Neo 2W

There is no universal best cleaning robot.

Different platforms optimise for footprint, mixed flooring, throughput, autonomy, support network or industrial scale.

Scrubber 50 vs Omnie

This is now the most important comparison for buyers already considering Gausium.

Gausium explicitly describes Omnie as the latest evolution of Scrubber 50.

Both share a similar overall machine footprint, but Omnie adds a more advanced perception architecture with 3D LiDAR and 360° camera coverage and is positioned for highly dynamic environments such as airports, metro stations and warehouses.

Current Omnie specifications include:

• Up to 1.4 m/s cleaning speed.
• 33 L clean-water tank.
• 520 mm disc scrubbing width.
• Up to 780 mm working width with roller and side brushes.
• 2,621 m²/h theoretical disc scrubbing productivity.
• 2,046 m²/h theoretical roller scrubbing productivity.

Choose Scrubber 50 when its proven platform, price, installed base and local support produce the stronger commercial case.

Choose Omnie when you need Gausium’s current flagship perception and cleaning platform and the additional cost is justified.

Scrubber 50 vs Phantas

Phantas is dramatically smaller.

It is only 445 mm wide versus 700 mm for Scrubber 50 and has a published minimum pass width of 650 mm.

It also supports vacuuming, sweeping, scrubbing and dust mopping.

Choose Phantas for smaller, tighter or mixed-floor environments.

Choose Scrubber 50 when greater hard-floor cleaning capacity and heavier commercial scrubbing are more important than compactness.

Scrubber 50 vs PUDU CC1 Pro

PUDU CC1 Pro is another strong all-in-one alternative.

PUDU publishes approximately five hours of scrubbing runtime, 15 L clean and dirty water tanks, a 500 mm cleaning width and a 75 kg machine weight.

The CC1 Pro may be attractive where compact dimensions, mixed cleaning functions and longer continuous runtime matter.

Scrubber 50 offers larger water capacity, heavier brush pressure, mature workstation options and a strong body of large-site deployments.

Scrubber 50 vs Tennant X4 ROVR

Tennant’s X4 ROVR offers a 500 mm cleaning path, 38 L solution and recovery tanks and up to 2.5 hours autonomous scrubbing time.

Its major strategic advantage is not one specification—it is Tennant’s established commercial-cleaning service infrastructure.

The decision may therefore come down to autonomy capabilities and cleaning performance versus local support, service contracts and fleet standardisation.

Scrubber 50 vs Avidbots Neo 2W

Neo 2W operates in a larger equipment class.

Depending on cleaning head, Avidbots lists 109 L solution and 135 L recovery tanks and theoretical productivity approaching 3,000–4,000 m²/h.

That makes Neo 2W better aligned with very large industrial and logistics environments.

Scrubber 50 is considerably more compact and can be the more practical choice in commercial buildings where manoeuvrability matters.

Use the Anton Robots comparison tool to compare cleaning robots by dimensions, capacity, runtime and application.

Is the Gausium Scrubber 50 Worth It?

The Scrubber 50 can be worth it when a facility has enough repetitive hard-floor cleaning to keep the robot productive for multiple hours per day.

Its business case is weaker when the robot spends most of its time parked or when staff still have to intervene constantly.

Where the value comes from

• Reducing repetitive manual floor scrubbing.
• Increasing cleaning frequency without proportional labour growth.
• Moving staff toward higher-value cleaning tasks.
• Cleaning during periods when labour availability is limited.
• More consistent execution of mapped routes.
• Automated reporting and task visibility.
• Reduced freshwater usage.
• Potential multi-floor utilisation.

Where buyers underestimate cost

• Docking and plumbing infrastructure.
• Elevator or automatic-door integrations.
• Consumables.
• Preventive maintenance.
• Software subscriptions.
• Training.
• Manual edge and detail cleaning.
• Exception handling.
• Site changes requiring map updates.

A simple ROI framework

Do not start with the robot price.

Start with the current cleaning operation.

Calculate:

1. Total annual floor-cleaning labour hours.
2. Percentage of those hours the robot can genuinely automate.
3. Fully loaded labour cost per hour.
4. Manual support hours still required after automation.
5. Robot service, software, consumables and infrastructure cost.

Then:

Annual net benefit = labour and equipment cost avoided or redeployed − annual robot operating costs.

And:

Simple payback = complete installed project cost ÷ annual net benefit.

The most important variable is usually not theoretical square metres per hour.

It is the percentage of work completed without human intervention.

Gausium Scrubber 50 Buying Checklist

1. Measure the cleanable area. Separate total building area from the floor area the robot can physically access.
2. Map the floor types. Record stone, tile, vinyl, epoxy, concrete and transitions.
3. Define the dirt. Document dust, grease, food debris, metal particles, liquids and other contamination.
4. Choose disc or roller brush. Do not let this be selected without a site test.
5. Check every narrow point. The published minimum pass width is 800 mm.
6. Check every turn. Gausium publishes a 1,100 mm minimum U-turn width.
7. Measure practical productivity. Use a live site trial rather than theoretical figures.
8. Measure intervention rate. Record every time staff need to help the robot.
9. Test edge cleaning. Include walls, columns, furniture and corners.
10. Test pedestrian traffic. Do not conduct the entire pilot in an empty building if normal operation is busy.
11. Choose the docking architecture. Compare CD-01 charging with WS-01 full water management.
12. Survey the workstation location. Confirm power, clean water, drainage and space.
13. Review elevator integration. Get written confirmation of compatibility, scope and cost.
14. Review doors and access control. Determine whether the robot can reach every required zone.
15. Confirm safety configuration. Request applicable IEC 63327 documentation for the exact supplied machine.
16. Review privacy and cybersecurity. Understand cameras, cloud services, accounts and remote access.
17. List consumables. Brushes, pads, filters and squeegees need replacement.
18. Get service SLAs. Ask who repairs the machine and how quickly.
19. Compare Omnie. A new 2026 purchase should not ignore Gausium’s latest platform.
20. Define acceptance criteria before purchase. Make the supplier prove the required result.

Pro tip: run the pilot during the most difficult two hours of the site’s normal operating day, not in a cleared demonstration area. Measure autonomous completion rate, interventions, square metres cleaned and manual touch-up time.

How to Buy the Gausium Scrubber 50

Scrubber 50 is sold through Gausium and regional distributors rather than through one universal global online price.

A useful RFQ should include:

• Country and site location.
• Industry and facility type.
• Total floor area.
• Cleanable area per floor.
• Number of floors.
• Operating hours.
• Floor materials.
• Type of dirt and debris.
• Minimum corridor widths.
• Elevator make and model where relevant.
• Automatic doors or gates.
• Expected cleaning frequency.
• Preferred disc or roller configuration.
• Workstation requirement.
• Target deployment date.

Before paying, request:

• Exact machine configuration.
• Current specification sheet.
• Applicable safety/compliance documents.
• Site survey.
• Demonstration or pilot.
• Practical cleaning-productivity result.
• Autonomous completion rate.
• Workstation installation scope.
• Elevator-integration scope where required.
• Training.
• Warranty.
• Service response times.
• Consumables pricing.
• Software and recurring charges.
• Delivery and commissioning schedule.

Review the Gausium Scrubber 50 product page, compare other cleaning robots, or contact Anton Robots to compare suppliers and configurations.

If you are not yet sure which cleaning robot fits the facility, use the Find My Robot tool rather than starting with one manufacturer.

What Is New for the Gausium Scrubber 50 in 2026?

Scrubber 50 remains commercially active

Despite the introduction of newer Gausium platforms, Scrubber 50 remains on the company’s active product website and continues to appear in recent commercial deployments.

That matters because it indicates that this is not simply a historical or discontinued platform.

Madrid Metro deployment

In March 2026, Gausium announced the deployment of three Scrubber 50 robots across the Metro de Madrid network.

The project provides a recent reference for operation in high-footfall public infrastructure.

The Style Outlets Madrid

In January 2026, Gausium published a deployment involving two Scrubber 50 robots at The Style Outlets in Madrid.

It adds another current retail reference to the machine’s installed base.

Omnie is now the latest evolution

The biggest strategic change is the arrival of Gausium Omnie.

Gausium now explicitly describes Omnie as the latest evolution of Scrubber 50.

Omnie adds the company’s newer multimodal perception architecture, including 3D LiDAR and 360° camera coverage, and is marketed for highly dynamic environments.

This does not automatically make Scrubber 50 obsolete.

It means buyers should now evaluate Scrubber 50 as a mature, proven platform against a newer and more capable successor.

Current specifications have changed from older literature

Older Scrubber 50 Pro brochures commonly quote values including a 0.9 m/s speed and 1,490 m²/h disc-brush productivity.

Gausium’s current specification page now lists:

• 1.2 m/s maximum cleaning speed.
• 1,987 m²/h theoretical disc scrubbing efficiency.
• 1,754 m²/h theoretical roller scrubbing efficiency.
• 500–1,300 m²/h practical cleaning efficiency.
• 800 mm minimum pass width.
• 1,100 mm minimum U-turn width.

Procurement teams should therefore use current configuration-specific documents rather than archived brochures.

Frequently Asked Questions

What is the Gausium Scrubber 50?

The Scrubber 50 is an autonomous commercial hard-floor cleaning robot designed for medium-to-large facilities. It combines autonomous navigation with scrubbing, sweeping and dust-mopping capabilities depending on configuration.

How much does the Gausium Scrubber 50 cost?

Gausium does not publish a universal global retail price on its main product page. A current US authorised-distributor listing advertises approximately US$40,999 for the robot, but actual regional project pricing can differ substantially.

Is Scrubber 50 the same as Scrubber 50 Pro?

Gausium has used the Scrubber 50 Pro name in earlier product literature. The current product website primarily uses Scrubber 50. Buyers should rely on the exact current configuration and specification sheet rather than the name alone.

Is the Gausium Scrubber 50 discontinued?

No indication of discontinuation appears on Gausium’s current website. Scrubber 50 remains listed as an active product and appeared in new published deployments during 2026.

What replaced the Scrubber 50?

Gausium describes Omnie as the latest evolution of Scrubber 50. Scrubber 50 remains available, but new buyers should compare it with Omnie.

How much area can the Scrubber 50 clean per hour?

Gausium currently publishes practical cleaning efficiency of approximately 500–1,300 m²/h. Theoretical maximum scrubbing efficiency is higher.

What is the maximum theoretical productivity?

The current specification lists 1,987 m²/h for the disc-brush version and 1,754 m²/h for the roller-brush version.

How long does the battery last?

Gausium publishes up to three hours of scrubbing runtime. Dust-mopping runtime is longer.

How long does charging take?

The current specification lists approximately two hours.

Can the Scrubber 50 recharge automatically?

Yes. The optional CD-01 charging dock allows automatic charging. The WS-01 workstation adds automatic water refill and wastewater discharge.

Can it refill its own water?

Yes, when paired with the WS-01 workstation.

Can it automatically empty dirty water?

Yes. Gausium states that the WS-01 supports automatic sewage discharge.

How much water does the Scrubber 50 carry?

It has a 30 L clean-water tank and a 24 L wastewater tank.

Does it recycle water?

Yes. Gausium uses a multi-stage filtration system and states that it can reduce freshwater usage by approximately 80%.

Can the Gausium Scrubber 50 sweep as well as scrub?

The platform is marketed as a 3-in-1 solution combining scrubbing, sweeping and dust mopping. The roller-brush configuration is particularly relevant when loose debris collection is required.

What is the difference between disc and roller brush versions?

The disc configuration uses higher published brush pressure, while the roller version incorporates debris trays and can use side brushes for wider cleaning and zero-distance edge coverage.

Can it clean right against a wall?

Gausium lists a 40 mm standard edge distance. The roller version can achieve 0 mm with side brushes.

How narrow a corridor can it use?

The current minimum published pass width is 800 mm.

How much room does it need to turn?

Gausium publishes a 1,100 mm minimum U-turn width.

Can Scrubber 50 use elevators?

Yes, with the required elevator and building-system integration. Gausium has published multi-floor deployments where Scrubber 50 autonomously uses elevators.

Can one Scrubber 50 clean multiple floors?

Yes, when routes, elevator integration and docking infrastructure support it. A Gausium deployment at FMZ Imst reportedly cleaned nearly 4,000 m² across three floors.

Can it operate around people?

Scrubber 50 has been deployed in busy public facilities including Madrid Metro, airports and shopping centres. The actual deployment still requires site-specific commissioning and safety assessment.

Does the Scrubber 50 comply with IEC 63327?

Gausium says alternative configurations compliant with IEC 63327 are available upon request. Buyers should request documentation for the exact configuration being purchased rather than assume every version is identical.

Can the Scrubber 50 clean carpet?

It is primarily a hard-floor scrubbing platform. Buyers with substantial carpet should compare robots with dedicated commercial vacuuming capability such as Gausium Phantas or another mixed-floor platform.

Can it work in warehouses?

Yes, where the floor, debris type, aisle geometry and operating conditions suit the machine. Very large warehouses may justify comparing larger-capacity robots.

Can it handle industrial debris?

The roller-brush version can collect loose debris, and Gausium has published an industrial deployment involving abrasive debris and metal shavings. Test representative debris before purchasing.

Can it work outdoors?

Do not assume so. Gausium’s main specification does not publish an all-weather IP rating for Scrubber 50. Obtain written confirmation for any outdoor or partially exposed application.

Does it need Wi-Fi?

Autonomous navigation is performed onboard, while remote monitoring, cloud functionality and some integrations may require connectivity. Network requirements should be confirmed during the site survey.

Does it record video?

The machine uses RGB cameras as part of its perception system. Organisations should ask Gausium or the distributor exactly what visual data is processed, stored or transmitted for the supplied software configuration.

How often does Scrubber 50 need human help?

There is no universal figure. Intervention depends heavily on site geometry, traffic, waste, infrastructure and deployment quality. This should be measured during the pilot.

What is the best alternative to Scrubber 50?

Consider Gausium Omnie for Gausium’s newest high-end autonomy, Phantas for tight and mixed-floor spaces, PUDU CC1 Pro for compact all-in-one cleaning, Tennant X4 ROVR for Tennant-backed autonomous scrubbing, or Avidbots Neo 2W for larger industrial sites.

Is the Gausium Scrubber 50 worth buying in 2026?

Yes, when the facility has enough repeatable hard-floor cleaning to keep the machine productive and the pilot demonstrates a high autonomous completion rate. New buyers should also compare Omnie before deciding.

Final Verdict: Should You Buy the Gausium Scrubber 50?

Buy or shortlist the Gausium Scrubber 50 if you have substantial repeatable hard-floor cleaning and want a mature autonomous platform that can scrub, navigate dynamic environments, recycle water and—with the correct infrastructure—manage charging and water operations with limited staff intervention.

The robot’s strongest argument is no longer novelty.

It is deployment maturity.

Scrubber 50 has been used across shopping centres, retail stores, airports, metro stations, universities and industrial facilities. Gausium has demonstrated workstation integration, elevator use, high-traffic navigation and multiple cleaning configurations.

But the robot should not be purchased from specification sheets alone.

Its real value depends on four questions:

1. How much of the floor can it physically reach?
2. How much of the cleaning workload can it complete autonomously?
3. How often does a person need to intervene?
4. Does the labour saved or redeployed justify the complete installed cost?

The disc-versus-roller decision also matters. Buyers dealing primarily with scrubbing can favour the disc configuration, while environments containing loose debris should seriously evaluate the roller version and side brushes.

For maximum automation, include the WS-01 workstation and investigate elevator and door integration during the site survey—not after the robot arrives.

There is one final 2026 consideration: Omnie.

Gausium now calls Omnie the latest evolution of Scrubber 50. A new buyer should therefore request both options and understand what additional capability Omnie provides for the price.

If Scrubber 50 passes a real-world pilot and delivers a high autonomous-completion rate at a better total cost, its age is not a weakness. It becomes an advantage: a mature autonomous cleaning platform with a meaningful commercial track record.

Ready to evaluate a deployment? View the Gausium Scrubber 50 at Anton Robots, use the robot comparison tool, or request help comparing cleaning robots and suppliers.