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Robot leveling system uses laser, covers up to 3,229 square feet of concrete per hour, operates for up to 10 hours, and reduces labor needs on slabs.
A stage in the construction process still marked by workers pulling vibrating screeds over freshly poured concrete is beginning to gain a robotic alternative capable of covering large areas before the material hardens. According to BrightMaster Robotics, its Concrete Leveling Robot uses laser measurement and real-time adjustments to control the surface height, while the larger setup, featuring a 2.5-meter leveling head, boasts a stated productivity of at least 3,229 square feet per hour.
The most striking number appears in the combination of productivity and autonomy: the 2.5-meter model weighs about 772 lbs, utilizes a 48V and 90Ah battery, and has a declared operational time of 10 hours or more, sufficient, under ideal conditions, to accompany long pouring shifts.
The manufacturer itself describes the equipment as semi-automatic and remotely operated, thus it does not completely eliminate the worker from the process. What changes is the role: instead of pulling and manually controlling the screed for hours, an operator now commands a machine that measures, vibrates, and corrects the concrete level.
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Robot comes in precisely when the concrete starts racing against the clock
Once the concrete is poured on a slab, there is a limited window to spread, compact, and level the material before it begins to set.
In the conventional method, workers must monitor the surface, move equipment, and correct height differences while the concrete is still plastic.
The Concrete Leveling Robot was developed to operate precisely within that gap. BrightMaster reports that the machine performs surface elevation, initial finishing, and level control before hardening.
The equipment combines sensors, motion algorithms, and laser readings to continuously adjust its working head.
The goal is not simply to replace a manual screed with a motorized one. The crucial aspect is to transform the leveling reference into an electronically measured process.
Height no longer solely depends on the worker’s perception and physical skill and is continuously compared against a plane defined by the laser system.
Larger version promises to level at least 3,229 square feet of concrete per hour
The series includes versions with heads of 1.5 and 2.5 meters. The smaller models, 15SY and 15MY, have a declared productivity of at least 1,722 square feet per hour. The larger models, 25SY and 25MY, reach 3,229 square feet per hour or more, according to the manufacturer’s technical sheet.
In scale, 300 m² corresponds to a square slab of just over 17 meters on each side, leveled in approximately one hour, considering nominal performance.
In an extended concrete pouring session, the theoretical accumulated capacity can reach thousands of square meters, although actual productivity depends on logistics, the geometry of the site, concrete placement speed, and site conditions.
DMX Robotics, the technology partner in Singapore, also presents 300 m² per hour as the maximum leveling capacity, applicable in residential floors, basements, factories, shopping centers, and airports.
Laser Corrects Height While the Machine Advances Over the Slab
The most important technical element is the elevation control. The models can operate with laser systems Topcon or MOBA, depending on the chosen version.
The machine uses this reference to verify whether the surface is above or below the set elevation defined in the project.
The leveling head features an adaptive system with two degrees of freedom. As the robot moves, the electronic control can adjust working parameters to keep the surface within the established reference.
BrightMaster claims leveling control with a tolerance of ±5 mm and states that, in man-machine operation, the initial flatness approval rate within this range exceeds 95%. These figures are technical data provided by the manufacturer itself, not results from an independent test cited by the company.
Vibratory Ruler Replaces Part of the Physical Effort of Manual Leveling
DMX highlights an important difference from some conventional laser screeds: the robot uses a vibratory leveling bar, rather than a spiral conveyor to redistribute the concrete. The vibration helps to work the surface while the machine maintains the elevation set by the laser system.
In practice, it is the traditional sequence of pulling, controlling, and correcting the ruler that becomes mechanized.
The worker no longer remains physically connected to the equipment throughout the entire concrete pouring area but takes on a supervisory and command role.
The manufacturer claims that the equipment reduces the physical intensity of the job, particularly during night concreting projects and in large outdoor areas, where repetitive work can continue for many hours.
350 kg Model Can Operate for 10 Hours Before Recharging
The differences between the two sizes go beyond the width of the screed. The smaller version weighs approximately 175 kg, uses a 48 V and 40 Ah battery, and has a declared autonomy of at least five hours.
The 2.5-meter version rises to approximately 350 kg, with a 48 V and 90 Ah battery and an autonomy equal to or greater than 10 hours.
The declared charging time is about 2.5 hours for the smaller unit and four hours for the larger one. The maximum travel speed indicated in the documentation reaches 800 mm per second.
The larger model also works within a greater leveling thickness range, approximately 30 to 250 mm, while the 1.5-meter configuration is specified for 30 to 150 mm. This expands its application in industrial floors, garages, slabs, and other extensive surfaces.
Manufacturer Claims Robot Can Replace Two to Three Workers in This Stage
Perhaps the most directly related data to the transformation of the profession lies in labor. BrightMaster’s commercial documentation states that using the robot can save the work of two to three traditional workers in the leveling stage.
This does not mean that a construction site can operate without masons. The equipment needs to be transported, prepared, supervised, and operated, while pouring, pumping, technological control of the concrete, edges, obstacles, and subsequent stages continue to require workers and other equipment.
The change lies in the composition of the team. A physically repetitive task is beginning to be converted into machine operation, bringing the construction site closer to models already seen in the industry, where workers stop executing each movement directly to control machines that repeat the task.
Combination of Robots Promises to Automate Almost All Surface Execution of the Floor
The leveling machine is not an isolated machine within BrightMaster’s strategy. The manufacturer has developed a family of robots for pumping and distributing concrete, leveling, smoothing, finishing, sanding, and applying coatings.
The company’s documentation describes a sequence formed by an intelligent pouring pump, a leveling robot, a smoothing robot, and a finishing robot.
The idea is for different machines to assume consecutive phases of the flooring, creating a kind of mobile production line within the construction site.
According to the company, the combination of these machines can reduce certain standardized flooring execution costs by approximately 28% when compared to traditional methods. This is again an estimate provided by the manufacturer and linked to its own robotics system.
Technology has reportedly surpassed 5 million m² executed
The reported usage scale by the company indicates that the concept has moved beyond the prototype stage. In technical material published in 2026, BrightMaster claims its leveling robot has been used in over 200 projects, accumulating an operational area exceeding 5 million square meters.
Among the projects mentioned by the company are the Guangzhou Baiyun station, works related to China Railway Construction Engineering Group, hospital projects, and residential developments.
The documentation also mentions international applications such as RAK Central in the United Arab Emirates, NS Square in Singapore, and Centrepole Samsung Raemian.
The presence in various types of construction is important because a construction machine only becomes economically relevant when it can move beyond controlled demonstrations and replicate the service on real job sites.
Construction begins to shift from physical labor to machine operation
For decades, heavy mechanization was common in earthmoving, transport, and pumping, while several finishing stages remained heavily manual. The new generation of robots is beginning to occupy this boundary.
Leveling concrete requires speed, repetition, and precision at a moment when the material is changing states.
These characteristics make the activity particularly suitable for automation: the machine can repeat the trajectory, constantly compare the surface to a laser reference, and maintain the same standard over long periods.
The result is a change similar to that observed in automated factories. Knowledge of construction remains necessary, but part of the physical effort ceases to be applied directly to the material and is instead transferred to electrically operated equipment controlled by the worker.
300 m² per hour machine shows what job sites might look like in the coming years
The Concrete Leveling Robot consolidates several hard-to-ignore figures on a single platform: a working head of up to 2.5 meters, a weight of 350 kg, a minimum nominal productivity of 300 m² per hour, a declared autonomy of 10 hours or more, and laser-based electronic control.
At the same time, the documentation itself prevents interpreting the technology as a workplace without people. The equipment remains semi-automated and remotely operated.
The leap is in allowing one person to supervise a task that traditionally requires several workers acting directly on the surface.
If the numbers published by the manufacturer are consistently reproduced across different job sites, the consequence for large slabs is straightforward: fewer people pulling battens for hours, more square meters executed in the same timeframe, and an operation increasingly resembling that of industrial equipment.
