Leveling concrete is the process of correcting uneven, sloped, or damaged concrete surfaces using self-leveling compounds, grinding, or grouting methods – essential for floors, foundations, and infrastructure in mining, tunneling, and heavy civil construction.
Table of Contents
- What Is Leveling Concrete?
- Methods and Materials for Leveling Concrete
- Applications in Mining and Tunneling
- Grout Mixing Equipment for Concrete Leveling
- Frequently Asked Questions
- Comparison of Leveling Concrete Methods
- How AMIX Systems Supports Concrete Leveling Projects
- Practical Tips for Leveling Concrete Successfully
- Key Takeaways
- Sources & Citations
Article Snapshot
Leveling concrete is a construction process that corrects surface irregularities in floors, foundations, and slabs using self-leveling compounds, cementitious grouts, or mechanical grinding. The right method depends on surface depth, substrate condition, and project timeline – choices that directly affect long-term structural performance.
By the Numbers
- The global self-leveling concrete market was valued at $6.19 billion USD in 2025 and is projected to reach $8.37 billion USD by 2030 (Globe Newswire, 2026)[1]
- The U.S. self-leveling concrete market was worth $1.02 billion USD in 2024 and is forecast to grow to $1.67 billion USD by 2032 (DataBridge Market Research, 2025)[2]
- Cement-based self-leveling compounds held a 45% market share in 2025, confirming cementitious formulations as the dominant product category (USDAnalytics, 2025)[3]
- Residential projects accounted for 39.72% of global self-leveling concrete consumption by volume in 2025 (Mordor Intelligence, 2026)[4]
What Is Leveling Concrete?
Leveling concrete is the systematic correction of surface irregularities – dips, high spots, cracks, and slopes – in concrete slabs, floors, and foundations using cementitious compounds, grouting materials, or mechanical surface treatment. The goal is a flat, structurally sound surface capable of meeting load-bearing, finish, and tolerance requirements specified in engineering drawings. AMIX Systems, a Canadian manufacturer of automated grout mixing plants and pumping equipment, builds the high-output mixing systems that produce the cementitious materials used across concrete leveling, ground improvement, and structural repair applications worldwide.
The term covers several distinct techniques. Self-leveling concrete (SLC) compounds flow under gravity to fill low areas, while slab lifting – sometimes called mudjacking or polyurethane foam injection – raises settled slabs from below. Grinding and shot blasting remove high spots without adding material. In heavy civil and mining applications, cementitious grout injection fills voids beneath existing slabs or stabilizes subsurface ground to prevent future differential settlement. Each approach addresses a different root cause of unevenness: surface wear, subsidence, original placement error, or structural movement.
Understanding which mechanism caused the irregularity drives the choice of repair method. A warehouse floor worn uneven by forklift traffic needs a different solution than a tunnel invert that has settled due to groundwater ingress. Selecting the correct floor leveling compound, grout formulation, and mixing equipment from the outset prevents repeat repairs and keeps projects on schedule.
Why Concrete Surface Correction Matters in Construction
Uneven concrete creates cascading problems in any structure. In commercial buildings, floor flatness tolerances directly affect racking systems, automated guided vehicles, and finish flooring installation. In mining and tunneling environments, an uneven invert disrupts trackless equipment travel, increases tyre wear, and creates water pooling that accelerates corrosion of support infrastructure. For dam foundations and hydroelectric structures, irregular concrete bearing surfaces compromise load distribution and introduce stress concentrations that propagate cracking over time.
Concrete leveling in industrial settings is not purely cosmetic – it is a structural and safety requirement. The American Concrete Institute (ACI) publishes flatness and levelness tolerances (F-numbers) that specify acceptable surface variation for different use categories. Failing to meet these tolerances on a logistics centre floor, for example, renders an entire warehouse system inoperable regardless of how sound the structural slab itself is. In underground mining, invert maintenance is a scheduled operational activity, not an afterthought, because equipment reliability depends on consistent travel surfaces.
Methods and Materials for Leveling Concrete
Four primary methods cover the majority of concrete leveling work in commercial and industrial construction: self-leveling underlayments, cementitious grout injection, mechanical grinding, and slab stabilisation by void filling.
Self-leveling underlayments (SLUs) are cement- or gypsum-based compounds mixed with water to a pourable consistency that flows across a prepared substrate, seeking its own level under gravity. They cure to a hard, smooth surface suitable as a finish floor or as a base for tile, resin coatings, or carpet. Modern rapid-set SLU formulations achieve compressive strengths exceeding 3,000 psi within 72 hours (Mordor Intelligence, 2025)[4], enabling fast floor-covering installation on commercial projects where schedule pressure is significant. The Grand View Research Analysis Team noted that “ease of application, labor and time savings, and greater quality surface finish” are primary drivers of adoption in both developing and developed markets (Grand View Research Analysis Team, 2024)[5].
Cementitious grout injection addresses leveling from beneath the slab rather than on top of it. Drill holes are bored through the existing concrete at regular intervals, and pumpable grout – a cement-water blend or cement-bentonite mix – is injected under controlled pressure to fill voids and lift settled sections back to design elevation. This method is used in dam foundation grouting, tunnel invert repair, and industrial floor rehabilitation where removing and replacing the existing slab is impractical or cost-prohibitive.
Mechanical grinding uses diamond-segment tooling to remove concrete high spots, surface laitance, and contamination, creating a level substrate for overlay application or exposing aggregate for industrial finishes. Shot blasting achieves similar preparation using steel shot propelled at high velocity. Neither method adds material; both are used as preparatory steps before applying a self-leveling or topping compound when surface irregularities are minor.
Choosing the Right Cementitious Mix
Material selection for concrete leveling depends on depth of correction required, substrate condition, service environment, and required cure time. For depths up to 50 mm, most SLU products perform well. For deeper fills, a structural concrete topping or lean mix backfill is more economical. In mining and underground construction, mix design must also account for bleed control – excess bleed water in confined voids displaces grout before it sets, reducing fill efficiency and creating weak zones.
Colloidal mixing technology, used in AMIX Systems equipment, disperses cement particles more completely than conventional paddle mixing, producing mixes with lower water-to-cement ratios and significantly reduced bleed. This is particularly important for void-filling operations beneath existing slabs and for annulus grouting in tunnels, where mix stability directly affects long-term performance. Properly mixed cementitious grout used in concrete leveling applications resists segregation during pumping and achieves higher in-place densities than conventionally mixed alternatives.
Applications in Mining and Tunneling
Concrete leveling in mining and tunneling environments addresses challenges that go well beyond the surface flatness requirements of a commercial building floor. These applications involve confined spaces, aggressive chemical exposure, high-volume production demands, and structural consequences if the work fails.
In underground hard-rock mines, the tunnel invert – the floor of the tunnel – takes continuous punishment from heavy rubber-tyred vehicles, water runoff, and blasting vibration. Invert rehabilitation requires a grout or concrete mix that is placed quickly in narrow working windows between production shifts, achieves early strength to allow rapid return to service, and bonds to the existing substrate without requiring extensive surface preparation. AGP-Paddle Mixer systems configured for underground use provide the continuous output needed to place concrete leveling materials efficiently during these short shift breaks.
Tunnel Boring Machine (TBM) operations generate a specific concrete leveling requirement at the invert: the TBM back-up gantry travels on steel rails or a smooth concrete surface, and any unevenness in this track zone creates equipment misalignment that interrupts boring progress. Grout plants supporting TBM operations must supply consistent, pumpable mixes on demand – delays in segment backfilling or invert preparation directly stall the advance rate of the machine.
In coal, phosphate, and salt mining using room-and-pillar methods – common across Queensland in Australia, Appalachia in the United States, and Saskatchewan in Canada – crib bag grouting fills voids left by pillar recovery. The grout placed in these bags functions as a leveling and load-transfer medium between the mine roof and floor, requiring precise batching to achieve consistent early strength without over-pressuring fragile pillars. The DataBridge Market Research Team observed that “commercial contractors are increasingly opting for self-leveling concrete due to its rapid setting properties, ability to cover large surfaces quickly, and minimal labor requirements” (DataBridge Market Research Team, 2025)[2] – a trend equally visible in mining rehabilitation where productivity demands are just as pressing as on surface construction sites.
Dam Foundations and Civil Infrastructure
Dam grouting projects in British Columbia, Quebec, Washington State, and Colorado require concrete leveling work as part of foundation consolidation or remediation. Irregular bearing surfaces beneath dam structures – caused by uneven rock, weathering, or prior construction defects – are corrected through injection of cementitious grout, creating a uniform load-bearing interface between the structure and its foundation. The same principle applies to hydroelectric powerhouse floors, where precision leveling of machinery pads affects turbine alignment and long-term bearing performance.
Grout Mixing Equipment for Concrete Leveling
The quality of any concrete leveling application depends heavily on the quality and consistency of the mix produced. Batch-to-batch variation in water-to-cement ratio, mixing time, or admixture dosing translates directly into variation in flowability, set time, and final strength – outcomes that are difficult or impossible to correct once material is placed.
Automated grout mixing plants address this variability by controlling water addition, cement feed rate, and mixing time through programmable logic controllers (PLCs). Operators set target mix designs, and the system replicates those parameters consistently across every batch. For leveling concrete applications requiring large volumes – such as void filling under industrial floors or invert rehabilitation in long tunnels – automated plants also provide the throughput needed to complete pours within working windows before previously placed material begins to set.
Colloidal Grout Mixers – Superior performance results used in AMIX Systems plants operate on a high-shear principle that forces cement particles through a narrow gap at high velocity, breaking down agglomerates and producing a colloidal suspension. This means cement particles remain uniformly dispersed rather than settling, which reduces bleed and improves the flow characteristics of the mix – both important for self-leveling applications where the material must spread uniformly before setting.
For projects requiring moderate output – such as micropile grouting beneath a settled foundation slab or low-volume crib bag work in a small underground mine – the Typhoon Series – The Perfect Storm provides 2-8 m³/hr output in a containerized format that is transported to confined sites. For high-volume applications such as mass floor leveling in large industrial facilities or cemented rock fill operations, larger SG-series plants scale output to 100 m³/hr or more.
Pumping is the other important variable. Peristaltic Pumps – Handles aggressive, high viscosity, and high density products excel at conveying high-density, abrasive cementitious mixes through long hose runs to injection points beneath existing slabs or within deep boreholes – without the wear issues that affect centrifugal or piston pumps handling gritty materials. Their self-priming capability and ±1% metering accuracy make them well-suited to the precise dosing required in void-filling applications where over-injection risks cracking the overlying slab.
Your Most Common Questions
What is the difference between self-leveling concrete and regular concrete topping?
Self-leveling concrete is a specifically formulated cementitious compound with a very low viscosity that allows it to spread and seek its own level under gravity with minimal manual intervention. Regular concrete toppings, by contrast, require mechanical screeding, floating, and finishing to achieve a flat surface. Self-leveling compounds contain superplasticizers, polymer modifiers, and carefully controlled aggregate sizing to achieve this flowable consistency while still reaching structural compressive strengths – often exceeding 3,000 psi within 72 hours for rapid-set formulations. Standard concrete toppings achieve higher ultimate strengths but require significantly more labour to place and finish. For industrial floors, warehouse slabs, and tunnel inverts where surface flatness tolerances are tight and working windows are short, self-leveling products deliver a consistent result that is difficult to match with hand-screeded conventional mixes. The tradeoff is cost per cubic metre – SLU compounds are more expensive per unit volume than conventional concrete, so project economics favour their use in thin correction layers rather than as bulk fill material.
How thick can you apply self-leveling concrete in a single pour?
Application thickness varies by product formulation. Most standard self-leveling underlayments are designed for depths between 3 mm and 50 mm in a single application. Extended-depth or heavyweight formulations – sometimes called self-leveling topping compounds – are placed at depths up to 75 mm or more in a single pour. For corrections deeper than the product’s specified maximum, contractors apply multiple lifts, allowing each layer to reach sufficient green strength before placing the next. In mining and tunneling applications, cementitious grout used for void filling or invert leveling is placed in much greater thicknesses – sometimes hundreds of millimetres – but these mixes use different formulations than surface SLU products, with higher filler content and different rheology. Always consult the technical data sheet for the specific product being used, as exceeding maximum pour depth in a single application causes cracking, delayed set, or incomplete hydration in the material core. Proper substrate preparation, including priming with a bonding agent, is equally important regardless of pour depth.
What equipment is needed to mix and pump self-leveling concrete on large projects?
Large-scale concrete leveling projects require continuous-output mixing plants capable of producing consistent batches at the rate needed to complete the pour within the product’s working time window. A floor pour that runs out of freshly mixed material mid-pour develops cold joints – visible and structurally weak lines where partially set material contacts new material. Automated grout mixing plants with PLC-controlled batching eliminate the risk of operator-to-operator variation in mix water, cement content, or mixing time. For high-volume applications, colloidal mixing technology produces lower-bleed, higher-flowability mixes that spread more uniformly and self-level more effectively than paddle-mixed alternatives. On the pumping side, peristaltic pumps are preferred for abrasive, high-solids mixes because they isolate the material from mechanical components – only the hose contacts the product, eliminating valve and seal wear. For very long pump runs to injection points beneath existing slabs, high-pressure peristaltic configurations sustain delivery pressures up to 3 MPa (435 psi). Silo and hopper feed systems integrated with the plant ensure uninterrupted cement supply during large pours, avoiding the batch interruptions that occur when manually tipping bags.
Can leveling concrete be used in underground mining and tunnel applications?
Leveling concrete and cementitious grout are both used extensively in underground mining and tunneling. The specific application determines which product and method is most appropriate. Tunnel invert rehabilitation – restoring the floor of a tunnel damaged by equipment traffic, groundwater, or blasting – uses rapid-setting cementitious compounds placed in narrow working windows between production shifts. TBM back-up gantry surfaces require precise flatness to maintain equipment alignment, making self-leveling compound application a standard part of tunnel fit-out. In underground mining, crib bag grouting in room-and-pillar operations places cementitious grout in fabric bags at controlled pressures to transfer roof loads to the floor, effectively leveling load distribution across the mined-out panel. Void filling beneath settled floor slabs in mine access drives and service areas uses injected grout to re-establish even support. All of these applications require mixing equipment compact enough for underground transport – containerized or skid-mounted plants that are lowered in sections to the working level – and pumping systems capable of handling abrasive mixes through long hose runs to remote injection points. Containerized grout plants and peristaltic pump configurations designed specifically for underground use are available from AMIX Systems to meet these demands.
Your Most Common Questions
What is the difference between self-leveling concrete and regular concrete topping?
Self-leveling concrete is a specifically formulated cementitious compound with a very low viscosity that allows it to spread and seek its own level under gravity with minimal manual intervention. Regular concrete toppings, by contrast, require mechanical screeding, floating, and finishing to achieve a flat surface. Self-leveling compounds contain superplasticizers, polymer modifiers, and carefully controlled aggregate sizing to achieve this flowable consistency while still reaching structural compressive strengths – often exceeding 3,000 psi within 72 hours for rapid-set formulations. Standard concrete toppings achieve higher ultimate strengths but require significantly more labour to place and finish. For industrial floors, warehouse slabs, and tunnel inverts where surface flatness tolerances are tight and working windows are short, self-leveling products deliver a consistent result that is difficult to match with hand-screeded conventional mixes. The tradeoff is cost per cubic metre – SLU compounds are more expensive per unit volume than conventional concrete, so project economics favour their use in thin correction layers rather than as bulk fill material.
How thick can you apply self-leveling concrete in a single pour?
Application thickness varies by product formulation. Most standard self-leveling underlayments are designed for depths between 3 mm and 50 mm in a single application. Extended-depth or heavyweight formulations – sometimes called self-leveling topping compounds – are placed at depths up to 75 mm or more in a single pour. For corrections deeper than the product’s specified maximum, contractors apply multiple lifts, allowing each layer to reach sufficient green strength before placing the next. In mining and tunneling applications, cementitious grout used for void filling or invert leveling is placed in much greater thicknesses – sometimes hundreds of millimetres – but these mixes use different formulations than surface SLU products, with higher filler content and different rheology. Always consult the technical data sheet for the specific product being used, as exceeding maximum pour depth in a single application causes cracking, delayed set, or incomplete hydration in the material core. Proper substrate preparation, including priming with a bonding agent, is equally important regardless of pour depth.
What equipment is needed to mix and pump self-leveling concrete on large projects?
Large-scale concrete leveling projects require continuous-output mixing plants capable of producing consistent batches at the rate needed to complete the pour within the product’s working time window. A floor pour that runs out of freshly mixed material mid-pour develops cold joints – visible and structurally weak lines where partially set material contacts new material. Automated grout mixing plants with PLC-controlled batching eliminate the risk of operator-to-operator variation in mix water, cement content, or mixing time. For high-volume applications, colloidal mixing technology produces lower-bleed, higher-flowability mixes that spread more uniformly and self-level more effectively than paddle-mixed alternatives. On the pumping side, peristaltic pumps are preferred for abrasive, high-solids mixes because they isolate the material from mechanical components – only the hose contacts the product, eliminating valve and seal wear. For very long pump runs to injection points beneath existing slabs, high-pressure peristaltic configurations sustain delivery pressures up to 3 MPa (435 psi). Silo and hopper feed systems integrated with the plant ensure uninterrupted cement supply during large pours, avoiding the batch interruptions that occur when manually tipping bags.
Can leveling concrete be used in underground mining and tunnel applications?
Leveling concrete and cementitious grout are both used extensively in underground mining and tunneling. The specific application determines which product and method is most appropriate. Tunnel invert rehabilitation – restoring the floor of a tunnel damaged by equipment traffic, groundwater, or blasting – uses rapid-setting cementitious compounds placed in narrow working windows between production shifts. TBM back-up gantry surfaces require precise flatness to maintain equipment alignment, making self-leveling compound application a standard part of tunnel fit-out. In underground mining, crib bag grouting in room-and-pillar operations places cementitious grout in fabric bags at controlled pressures to transfer roof loads to the floor, effectively leveling load distribution across the mined-out panel. Void filling beneath settled floor slabs in mine access drives and service areas uses injected grout to re-establish even support. All of these applications require mixing equipment compact enough for underground transport – containerized or skid-mounted plants that are lowered in sections to the working level – and pumping systems capable of handling abrasive mixes through long hose runs to remote injection points. Containerized grout plants and peristaltic pump configurations designed specifically for underground use are available from AMIX Systems to meet these demands.
Comparing Concrete Leveling Methods
Choosing between concrete leveling approaches requires weighing correction depth, access constraints, required cure time, and long-term durability. The table below summarises four methods used in industrial and infrastructure projects to help contractors and engineers select the right technique for their conditions.
| Method | Correction Depth | Best Application | Cure Time | Equipment Required |
|---|---|---|---|---|
| Self-Leveling Underlayment (SLU) | 3-75 mm | Commercial floors, warehouse slabs, tunnel inverts | Rapid-set: 3,000 psi in 72 hrs (Mordor Intelligence, 2025)[4] | Automated grout mixing plant, peristaltic pump |
| Cementitious Void-Fill Grouting | Unlimited | Subslab voids, dam foundations, mine void filling | Application-specific; 24-72 hrs typical | High-output colloidal mixer, injection pump |
| Mudjacking / Slab Lifting | Surface lift up to 150 mm | Residential driveways, light commercial paving | Hours to 1 day | Pump truck, drill rig |
| Diamond Grinding / Shot Blasting | Material removal only (0-10 mm) | Surface preparation, high-spot removal | No cure required | Grinding or shot-blast machine |
How AMIX Systems Supports Concrete Leveling Projects
AMIX Systems designs and manufactures the automated grout mixing plants and pumping systems that produce the cementitious materials used across concrete leveling, void filling, and ground improvement applications in mining, tunneling, and heavy civil construction. Based in Vancouver, British Columbia, AMIX has delivered equipment to projects across Canada, the United States, the Middle East, Australia, and South America since 2012.
For concrete leveling work requiring consistent, high-quality cementitious mixes, the AMIX colloidal mixing platform delivers measurably superior performance compared to conventional paddle mixing. The high-shear mixing action produces stable, low-bleed mixes that flow more uniformly during placement and achieve more consistent in-place properties – important for applications where surface flatness tolerances or structural performance requirements are strict.
“We’ve used various grout mixing equipment over the years, but AMIX’s colloidal mixers consistently produce the best quality grout for our tunneling operations. The precision and reliability of their equipment have become essential to our success on infrastructure projects where quality standards are exceptionally strict.” – Operations Director, North American Tunneling Contractor
The Hurricane Series (Rental) – The Perfect Storm rental program provides access to AMIX grout mixing plants for project-specific concrete leveling work without capital investment – particularly useful for contractors undertaking a single dam repair, emergency floor rehabilitation, or limited-duration tunneling fit-out. Rental units are delivered ready to operate, with technical support available throughout the project.
For contractors and engineers planning leveling concrete projects of any scale, contact AMIX Systems at +1 (604) 746-0555 or sales@amixsystems.com to discuss equipment configuration, output requirements, and project logistics. Visit our contact form to submit a detailed project inquiry.
Practical Tips for Leveling Concrete Successfully
Successful concrete leveling depends as much on preparation and process discipline as on product selection. The following practices reflect established industry technique and equipment considerations relevant to mining, tunneling, and heavy civil applications.
Profile the substrate before selecting a method. Use floor profiling tools, laser levels, or straightedges to document the extent and depth of surface irregularities before specifying a leveling compound or grout. This determines whether grinding alone corrects the surface, whether a thin SLU application is adequate, or whether subslab void filling is needed to address the root cause of settlement.
Prime the substrate correctly. Self-leveling compounds require a properly primed surface to prevent rapid moisture absorption from the substrate, which causes the compound to set unevenly and reduces bonding. Follow manufacturer-specified primer products and application rates – this step is frequently skipped on site but has a major impact on the quality of the finished surface.
Control mix water precisely. Adding excess water to self-leveling compounds to improve flowability is a common field shortcut that significantly reduces compressive strength and increases shrinkage. Automated batching systems eliminate this risk by metering water to within tight tolerances regardless of operator preference. On large pours, a mixing plant with PLC-controlled water addition is more reliable than manual mixing.
Plan pour sequences for large areas. On warehouse floors or large industrial slabs, pour planning ensures that fresh material reaches every section of the floor before the working time expires. Mixing plant output rate must match or exceed the pace of placement and spreading – undersized equipment creates cold joints and surface inconsistencies. Match your plant selection to the pour volume and timeline.
Monitor temperature and humidity. Self-leveling concrete is sensitive to ambient conditions. High temperatures accelerate set time and reduce working time; low temperatures slow hydration and cause incomplete curing. In underground environments, high humidity benefits curing but reduces primer effectiveness if the substrate is visibly wet. Always check product data sheets for temperature and humidity limits before placing material.
Following these protocols, combined with properly sized and maintained mixing and pumping equipment, delivers concrete leveling results that meet specification and stand up to long-term service demands in even the most demanding industrial environments. Follow us on LinkedIn for updates on equipment innovations and project case studies relevant to concrete leveling and ground improvement applications. You can also connect with us on Follow us on Facebook for industry news and project highlights. For technical questions about admixture dosing and batching precision, our Admixture Systems – Highly accurate and reliable mixing systems are designed for integration into automated plants to ensure consistent chemical addition batch after batch.
Key Takeaways
Leveling concrete is a technically demanding process that spans surface correction of commercial floors, structural rehabilitation of dam foundations, and invert maintenance in underground mines. Choosing the right method – self-leveling underlayment, cementitious void-fill grouting, mechanical grinding, or slab lifting – depends on the depth of correction needed, the root cause of the irregularity, and the service demands of the finished surface.
The quality of mixed cementitious material drives the quality of the result. Automated, colloidal mixing technology produces consistently stable, low-bleed mixes that outperform conventionally mixed alternatives across all leveling applications. For mining, tunneling, and heavy civil contractors in Canada, the United States, and internationally, AMIX Systems provides the equipment and expertise to produce the right mix for every leveling concrete project.
Contact AMIX Systems at +1 (604) 746-0555, email sales@amixsystems.com, or visit amixsystems.com to discuss your next concrete leveling or grout mixing project.
Sources & Citations
- Self-Leveling Concrete Market to Reach $8.37 Billion by 2030. Globe Newswire.
https://www.globenewswire.com/news-release/2026/01/28/3227755/0/en/Self-Leveling-Concrete-Market-to-Reach-8-37-Billion-by-2030-Eco-Friendly-and-Automated-Solutions-Present-Lucrative-Opportunities.html - U.S. Self-levelling Concrete Market Size & Share | Industry Growth. DataBridge Market Research.
https://www.databridgemarketresearch.com/reports/u-s-self-leveling-concrete-market - Self-Leveling Concrete Market – Global Forecast 2025 to 2034. USDAnalytics.
https://www.usdanalytics.com/press-release/global-self-leveling-concrete-market - Self Leveling Concrete Market Share & Size 2031 Outlook. Mordor Intelligence.
https://www.mordorintelligence.com/industry-reports/self-leveling-concrete-market - Self-leveling Concrete Market Size & Share Report, 2030. Grand View Research.
https://www.grandviewresearch.com/industry-analysis/self-leveling-concrete-market-report