Sika provides a wide range of waterproofing solutions, including liquid-applied membranes, sheet membranes, cementitious coatings, and waterproofing admixtures for concrete. These solutions are designed for different applications such as basements, roofs, wet areas, tunnels, and water-retaining structures.
The best system depends on factors such as the type of structure, exposure conditions, and project requirements. Sika offers tailored solutions for residential, commercial, and infrastructure projects, and our experts can recommend the most suitable product based on specific needs.
Waterproofing is essential in construction to protect structures from water ingress, deterioration, and long-term damage. It is necessary in areas where exposure to water or moisture is likely or consistent. These include:
Effective waterproofing in these applications not only preserves the structural integrity of the building but also extends its lifespan, reduces maintenance costs, and enhances safety.
Waterproofing should be integrated during the construction phase—before backfilling, tiling, or plastering. Areas such as foundations, basements, slabs, and wet rooms should be treated early in the building process.
Yes, Sika waterproofing systems are designed for both new builds and refurbishment projects. We provide solutions for repairing existing waterproofing systems, as well as new installations that ensure long-term durability and protection.
Common causes include:
The durability of our waterproofing solutions depends on the product type, application method, and environmental conditions. However, our high-quality materials are engineered for long-term performance, with many systems offering extended lifespans when applied correctly.
Liquid-applied membrane can be applied using brush, roller, or airless spray.
A hot-applied membrane is typically referring to a two-component product that uses a hot spray machine for application. The two-component hot spray machines can be adjusted to a specific mixing ratio, working pressure, and heated temperature.
Not all liquid applied membrane are root resistance. Kindly consult us for suitable root resistant product.
The fibre reinforcement enhances the tensile strength, crack bridging ability and ensures sufficient consumption thickness of the waterproofing coating. The randomly oriented fibres within the mats give maximum multi directional tensile strength to the membranes while allowing them to remain highly elastomeric.
Spray-applied polyurethane/polyurea hybrids, for example Sikalastic®-851, crystalline waterproofing admixtures, or torch-on bitumen membranes are commonly used for below-ground protection.
Wateproofing admixtures are additives mixed directly into concrete or mortar to reduce water permeability. They work by creating a hydrophobic barrier or forming crystals that block micro-pores and capillaries in the concrete.
Sika®-1 is a normal setting liquid waterproofing admixture for mortar and concrete. Sika®-1 blocks the capillaries and pores in the applied cementitious system to provide an effective water barrier against the transmission of liquid water.
Cementitious slurry products, like Sika® Cemflex® or SikaTop® Seal-107 ZA, are used to waterproof basements, foundations, tunnels, retaining walls, brickwalls and other underground structures. The silane systems are used to prevent water penetration of brick and natural stone.
Key types include:
Consider the following factors:
Waterbars are the most common waterproof jointsealing solution for construction joints and are mandatory for expansion joints. The appropriate profile can be chosen from the wide range of Sika Waterbar® based on various materials, depending on project requirements.
Absolutely. For basements, tunnels, lift pits, and water-retaining structures, joint waterproofing is critical. Products like hydrophilic waterbars, injection hoses, or internal joint tapes are often used in these conditions.
Yes. Injection hoses, PU injection, or external joint bandages/tapes can be used for post-construction or remedial joint waterproofing without demolishing structures.
Common reasons include:
Yes. Polyurethane foams are especially effective at sealing actively leaking cracks, as they expand upon contact with water, forming a watertight seal.
They are typically used for:
The most common are:
Rigid (like epoxy): Used for structural crack repairs where movement is not expected.
Flexible (like PU or acrylic gel): Used in dynamic structures or where ongoing movement or water exposure is expected.
Key factors include:
The process typically involves:
When correctly applied with the right material for the condition, injection systems can provide long-term waterproofing and structural stability. Regular inspection may still be needed for high-movement areas.
While mostly used in commercial and industrial applications, PU injection can be used in residential basements or retaining walls, especially where retrofitting is needed.
While both waterproofing and damp proofing are used to protect structures from moisture, they serve different purposes and offer different levels of protection.
Waterproofing stops water, while damp proofing slows or resists moisture. For areas exposed to water pressure or continuous moisture, waterproofing is the more reliable and durable solution.
Yes, all Product Data Sheets (PDS) are available for quick and easy download from Sika South Africa.
You can access PDS via the central downloads page or directly from specific product category pages. All PDS are the latest approved versions.
Yes, all Safety Data Sheets (SDS) are available for download.
Access them from the central downloads page or the relevant product page. Documents are updated in accordance with regulatory requirements to ensure safety and compliance.
Yes, product brochures are available in digital format for download.
Brochures provide overviews of product features, applications, and system solutions. They are accessible via the downloads page or individual product pages.
The latest BEE certificate isavailable for download from the official downloads page.
This document can be used for tender submissions, supplier onboarding, and compliance verification.
ISO certificates are availablefor download from the Sika South Africa downloads section.
This certificate can be used for tender submissions, supplier onboarding, and compliance verification.
Yes, additional compliance documentation for tender submissions is available. Please complete the contact form our website with your request, and our team will assist you promptly.
Yes, we do! Our technical department has extensive experience with all Sika products, ensuring expertguidance for your projects.
Our sales representatives are known as Technical Sales, as in-depth product knowledge and technical expertise are fundamental to how we support our customers.
Please complete the contact form below with your request, and our team will assist you promptly.
Yes, Sika South Africa offers on-site technical support and inspections. Our technical team can assist with project planning, application guidance, and quality assurance to ensure your project meets performance expectations.
You can contact our technical services team by submitting your query through our website contact form, via email, phone, or by phone. Our experts are available to provide advice, technical guidance, and support for product selection, application, and troubleshooting.
Yes, Sika South Africa works with approved applicators to ensure high quality product application and projectperformance.
We offer applicator training sessions, and our technical team maintains a list of trained and approved applicators.
To obtain details, please contact our technical department or reach out to your local Sika sales representative.
Sika South Africa does not publish a general price list online.
To obtain a quote, please contact your Sika sales representative or submit a request via our website. Our team will provide a personalised quotation based on your project requirements and product selection.
Yes, Sika South Africa can export stock to neighbouring countries where there is no existing Sika company presence. We have a dedicated export department that manages orders, logistics, and compliance for international deliveries.
All current job vacancies are published on the official career page of Sika. Positions are updated regularly across various departments and regions.
Applications must be submitted online through the official Sika careers portal. Select the relevant job posting, review the requirements carefully, and follow the online application process.
To ensure a fair and structured recruitment process, Sika requires all applications to be submitted through the official careers platform. Unsolicited CVs sent via email may not be processed.
Cement additives are chemicals added during cement manufacturing to improve grinding efficiency, enhance cement performance, and optimise production processes.
Grinding aids are a type of cement additive specifically used to improve the efficiency of the grinding process, while cement additives also include strength enhancers and performance enhancers.
They reduce energy consumption, increase mill output, and improve material flowability, resulting in more efficient cement manufacturing.
They enable the use of supplementary cementitious materials (SCMs), reduce clinker content, and lower overall CO₂ emissions.
Cement additives are primarily used in cement manufacturing plants and by cement producers supplying the construction industry.
Cement grinding aids are chemical additives used in cement mills to improve grinding efficiency, reduce energy consumption, and enhance cement quality.
They reduce particle agglomeration, improve material flow, increase mill output, and enhance the fineness of cement.
Grinding aids improve the milling process, while quality improvers enhance final cement properties such as strength and performance.
They are used in ball mills, vertical roller mills, and HoroMills during the cement manufacturing process.
Yes, they significantly reduce the energy required for grinding by improving mill efficiency and material flow.
You can purchase Sika DIY products from selected hardware stores and retailers across South Africa. Visit our Distribution Store Locator to find your nearest store stocking Sika products.
Sika South Africa has branches and offices across South Africa and the Southern African region, providing access to our products, technical expertise and customer support. Our locations include Westmead/Pinetown in KwaZulu-Natal, Isando in Gauteng, Bloemfontein in the Free State, Gqeberha (Port Elizabeth) in the Eastern Cape, Cape Town in the Western Cape, and Richards Bay in KwaZulu-Natal. We also have locations in Windhoek, Namibia, and Gaborone, Botswana.
Visit our Branches page to find the Sika location and contact details nearest to you.
A bonding agent is a material applied between an existing concrete substrate and a new repair material to improve adhesion between the two surfaces. Bonding agents help create a strong and reliable connection, which is important for the performance and durability of concrete repairs.
A bonding agent can help improve the adhesion between existing concrete and a repair mortar, fresh concrete or other cementitious material. This helps reduce the risk of poor adhesion and supports a durable repair when the substrate has been correctly prepared and the appropriate bonding agent is selected.
Epoxy bonding agents are resin-based products that provide high-strength adhesion and are commonly used for structural bonding applications, including bonding fresh to hardened concrete. SBR bonding agents are synthetic rubber-based products that can be used as bonding agents or added to cementitious mixes to improve adhesion, workability and other performance properties. The appropriate product depends on the substrate, repair material and application requirements.
A corrosion protection slurry is used when steel reinforcement has been exposed during concrete repair and requires protection against further corrosion. The reinforcement should be properly prepared before the corrosion protection coating is applied. Products such as Sika MonoTop®-1010 ZA can also be used as a bonding primer on concrete as part of a complete repair system.
Yes. Some products are designed to perform both functions. For example, SikaTop® Armatec®-110 EpoCem® and Sika MonoTop®-1010 ZA can be used as bonding primers and for reinforcement corrosion protection as part of a concrete repair system.
The correct bonding agent depends on factors such as the condition and type of substrate, the repair material being used, whether the concrete is dry or damp, the required bond strength and the conditions to which the repair will be exposed. Always refer to the relevant Product Data Sheet and recommended Sika repair system to ensure product compatibility and correct application.
Some bonding agents are specifically formulated for use on damp substrates. For example, Sikadur®-32 N is moisture tolerant and suitable for application to dry or damp concrete. Always check the Product Data Sheet for the specific product before application.
Yes. Certain structural bonding agents are specifically designed for this application. Sikadur®-32 N can be used as a structural bonding agent for bonding fresh concrete to hardened concrete, provided the substrate is correctly prepared and the product is applied according to the manufacturer's requirements.
Exposed reinforcement should be fully exposed where required, cleaned back to sound steel, and freed from loose rust, scale, dust, concrete residues, and contaminants. After cleaning, a compatible reinforcement corrosion protection product, such as Sika MonoTop®-1010 or SikaTop® Armatec®-110 EpoCem®, is applied to the steel in accordance with the relevant Product Data Sheet. Once the corrosion protection layer has been correctly applied and is ready to receive the repair material, the concrete repair mortar, such as a suitable Sika MonoTop® repair mortar, can be placed to restore the profile, cover, and protection of the reinforcement.
Reinforcement corrosion occurs when the protective passivation layer around the steel is compromised. This can happen when carbon dioxide causes carbonation of the concrete or when chlorides penetrate the concrete and reach the reinforcement. Moisture and wet/dry cycles can then accelerate the corrosion process.
Corrosion protection helps reduce the risk of deterioration caused by reinforcement corrosion and can help extend the service life of reinforced concrete structures. Selecting the appropriate protection system according to the exposure conditions, concrete quality and extent of corrosion is an important part of a long-term concrete repair and maintenance strategy.
A corrosion inhibitor is a product or system designed to help reduce or control corrosion of steel reinforcement within reinforced concrete. Depending on the system, corrosion inhibitors can work actively to mitigate corrosion or passively by reducing water uptake and the ingress of contaminants such as chlorides.
Active corrosion protection systems are designed to help control or mitigate corrosion of reinforcement. Passive corrosion protection systems, including hydrophobic impregnations, help reduce water uptake and limit the ingress of water-dissolved contaminants such as chlorides. The appropriate solution
depends on the condition of the concrete and the exposure environment.
The correct system depends on the cause of deterioration, exposure conditions, concrete quality, amount of concrete cover and extent of reinforcement corrosion. A suitable assessment of the concrete structure should be carried out before selecting the appropriate repair and corrosion protection strategy.
Concrete repair mortars are specially formulated materials used to repair, restore and replace damaged or deteriorated concrete. They can be used for applications ranging from minor surface repairs to the restoration of spalled and damaged concrete on buildings, bridges, infrastructure and other concrete structures.
Concrete repair mortar is used when existing concrete has been damaged or deteriorated due to factors such as weathering, water ingress, chemical attack, mechanical damage or corrosion of embedded reinforcement. The appropriate repair mortar should be selected according to the type and extent of damage, the substrate and the requirements of the repair.
Repairing damaged or spalled concrete generally involves removing loose or deteriorated concrete, preparing the substrate and treating any exposed reinforcement where required. A suitable concrete repair mortar is then applied to restore the original profile and function of the concrete. The repair system may also include bonding agents, corrosion protection products and levelling mortars, for example Sika MonoTop®-3020 ZA, depending on the condition of the structure.
The appropriate concrete repair mortar depends on the type and extent of damage, the application method, the substrate and the required performance of the repair. Sika offers cement-based, polymer-modified, cementitious and epoxy-based repair mortars for different concrete repair applications. Refer to the relevant Product Data Sheet and recommended repair system when selecting a product.
Yes. Depending on the specific product, Sika concrete repair mortars can be applied manually or by spray application. Some products also allow the consistency to be adjusted to suit the application. Always check the relevant Product Data Sheet for the recommended application method and requirements.
Structural strengthening involves improving the load-carrying capacity, performance or durability of an existing structure. It may be required when building use changes, loads increase, structures are modified, building standards are updated or existing structural elements need reinforcement. Sika offers structural strengthening solutions for concrete, steel, wood and masonry structures.
Structural strengthening may be required when a structure needs to support increased loads, undergoes structural modifications, requires improved bending or shear capacity, or needs upgrading to meet changing design or building requirements. Strengthening can also be used for seismic upgrading and the rehabilitation of existing structures.
Carbon Fibre Reinforced Polymer (CFRP) is a lightweight, high-performance material used to strengthen existing structures. Sika CFRP systems include prefabricated carbon fibre plates and rods that can be externally bonded or installed using near-surface mounting techniques. CFRP strengthening can be used for applications such as flexural and shear strengthening of concrete beams, slabs and other structural elements.
Carbon Fibre Reinforced Polymer (CFRP) is a lightweight, high-performance material used to strengthen existing structures. Sika CFRP systems include prefabricated carbon fibre plates and rods that can be externally bonded or installed using near-surface mounting techniques. CFRP strengthening can be used for applications such as flexural and shear strengthening of concrete beams, slabs and other structural elements.
FRP (Fibre Reinforced Polymer) fabric systems combine woven or stitched, unidirectional carbon or glass fibres with impregnating resins. They can be used for a range of structural strengthening applications, including column confinement, shear strengthening, seismic upgrading and strengthening of weak concrete, masonry, natural stone and timber structures.
Yes. CFRP strengthening systems can be used for different structural applications, including increasing the flexural capacity of concrete beams and slabs, improving shear capacity and strengthening columns through confinement. Sika offers CFRP plates, rods and fabric-based systems designed for different strengthening requirements and substrate conditions.
The appropriate structural strengthening system depends on factors such as the existing structure, required increase in load capacity, type of structural element, strengthening objective, substrate condition and installation requirements. Sika offers CFRP plates and rods, FRP fabric systems, as well as specialised solutions for shear, seismic and pre-stressed strengthening. Structural strengthening should be designed and specified by a suitably qualified structural engineer using the appropriate design requirements and system information.
Free-flowing grout is a high-strength grout designed to flow easily into voids, cavities, gaps and recesses without the need for extensive compaction. It provides effective filling and contact around structural elements, helping to achievereliable support and load transfer.
Free-flowing grout is commonly used for applications such as machine and base plates, dowelling reinforcing bars, fixing posts and bedding joints in precast concrete sections. Its flow properties allow it to reach difficult or confined areas while providing high strength and good adhesion to concrete.
Grout is used to fill voids, gaps and cavities and to provide support and load transfer between structural elements. Concrete grouts are commonly used for machine and base plates, anchor bolts, reinforcing bars, precast concrete connections, structural repairs and other applications where high strength and dimensional stability are required.
Non-shrink grout is designed to maintain dimensional stability as it hardens, helping to prevent gaps, settlement and loss of contact between the grout and the surrounding surfaces. This is particularly important where the grout is required to provide reliable bearing and load transfer, such as beneath machinery, base plates and structural elements.
Resin grout may be preferred where high bond strength, chemical resistance, vibration resistance or precise load transfer is required. Cementitious grouts are generally more suited to static or predominantly static loading, while resin grouts may be better suited to demanding applications involving significant vibration, impact or dynamic loading. Resin grout can also be suitable for industrial and structural applications involving heavy machinery, anchor bolts, highway fixings and environments exposed to aggressive chemicals.
Yes. Cementitious grouts can be used for a range of concrete repair and new construction applications, including filling voids, reinstating damaged areas, precast concrete connections, bedding joints and anchoring reinforcement. The appropriate grout should be selected according to the required strength, flow, setting time, application method, loading conditions and service environment..
The appropriate grout depends on the application, required load transfer, loading conditions, substrate, gap size, installation method, environmental conditions and required strength development. Cementitious grouts are generally suited to static or predominantly static loads, while resin grout may be considered for applications involving significant vibration or dynamic loading. Sika offers cementitious and resin grout solutions for applications including machinery bases, structural repairs, precast concrete, highways, anchor bolts and wind-turbine foundations. For critical structural applications, the grout should be selected according to the project requirements and relevant technical specifications.
SikaGrout®-212 is a cementitious, non-shrink grout designed for applications requiring high-strength, reliable support and load transfer. It can be used for grouting beneath machine and base plates, structural elements and other applications where void filling, dimensional stability and high bearing capacity are required.
Its free-flowing properties allow it to fill gaps and cavities effectively, helping to provide full contact between the grout and surrounding surfaces.
Chemical resistant coatings are protective coatings designed to protect concrete surfaces from damage caused by exposure to aggressive chemicals. They help reduce chemical attack and deterioration, making them suitable for industrial, chemical and wastewater environments.
Chemical exposure can cause concrete surfaces to deteriorate over time. A chemical resistant coating provides a protective barrier that helps protect the concrete from aggressive substances and extend its service life.
Chemical resistant coatings are used on concrete surfaces exposed to chemicals and other aggressive substances. Common applications include industrial facilities, chemical processing areas, wastewater environments and other areas where concrete requires additional protection.
Yes. A suitable chemical resistant coating can beapplied to prepared concrete surfaces to provide a protective barrier against chemical exposure. The correct coating depends on the application and the conditions the concrete will be exposed to.
The best chemical resistant coating depends on the type of concrete surface, the chemicals present and the level of exposure. Sika offers chemical resistant coating solutions including Sikadur®-62, Sikadur®-63 N and Sika®-4a for concrete protection applications.
Protecting concrete from chemical attack involves selecting a suitable protective system for the exposure conditions and applying it to a properly prepared surface. Chemical resistant coatings can provide a protective barrier that helps prevent aggressive chemicals from directly attacking the concrete.
A silane treatment is a surface-applied hydrophobic treatment that penetrates the pores and capillaries of concrete and other mineral substrates to create a water-repellent surface. It helps reduce the penetration of water and aggressive water-soluble substances, such as chlorides and sulphates, without significantly changing the appearance of the substrate.
Silane-based hydrophobic treatments penetrate the pores of concrete and other mineral substrates, helping to repel water and reduce the ingress of moisture and water-soluble salts. This can help protect concrete from deterioration and support the long-term durability of the structure.
Hydrophobic impregnation penetrates the surface of the substrate and provides water-repellent protection without forming a visible film. Unlike film-forming concrete coatings, it generally has little or no effect on the original appearance of the concrete, brick or stone.
Hydrophobic impregnation can be used where concrete or other mineral substrates need protection from water ingress while maintaining their original appearance. It is suitable for new and repair works and can also be used as a primer beneath certain protective coating systems.
An anti-graffiti coating is a protective coating applied to surfaces to make unwanted graffiti easier to remove. It provides a protective barrier that helps prevent graffiti from damaging the underlying surface and can help reduce the cost and effort of repeated graffiti removal.
Applying an anti-graffiti coating provides a protective layer that helps make graffiti easier to remove without damaging the underlying surface. Sikagard®-850 AG is a permanent, transparent anti-graffiti and anti-poster coating designed to protect a range of surfaces from recurring graffiti and unwanted posters.
Yes. Sikagard®-850 AG is designed to help prevent fly posters from adhering permanently to protected surfaces. Posters can fall away after a few days, allowing them to be easily discarded.
Anti-graffiti coatings can be used on a range of surfaces, including concrete, masonry, metal and wood. Sikagard®-850 AG can be applied to both coated and uncoated surfaces, including painted masonry and substrates treated with hydrophobic impregnation.
A carbonation protective coating is applied to concrete to help reduce the penetration of carbon dioxide into the concrete. This helps protect the alkalinity of the concrete and can reduce the risk of corrosion of embedded steel reinforcement.
Concrete can be protected from chloride ingress by applying a suitable protective coating or treatment designed to reduce the penetration of chlorides and moisture. This can help protect embedded reinforcement and reduce the risk of corrosion and further concrete deterioration.
Carbonation occurs when carbon dioxide from the atmosphere penetrates the concrete and reacts with components within the cement paste. Over time, this can reduce the alkalinity of the concrete and increase the risk of corrosion of embedded steel reinforcement.
Carbonation in concrete is a natural chemical process where carbon dioxide from the air penetrates the concrete and reacts with the cement paste. This reaction gradually reduces the concrete’s alkalinity, which can weaken the natural protective layer around embedded steel reinforcement.
When reinforcement is no longer protected, moisture and oxygen can contribute to steel corrosion, leading to cracking, spalling and deterioration of reinforced concrete structures. Sika concrete protection systems, such as suitable anti-carbonation coatings and protective surface treatments, help reduce carbon dioxide ingress and support the long-term durability of concrete.
Carbonation affects reinforced concrete by reducing the natural alkalinity of the concrete around the embedded steel reinforcement.
In sound, highly alkaline concrete, the steel is normally protected by a
passive layer that helps prevent corrosion. As carbon dioxide penetrates the concrete and carbonation progresses, this protective environment can be weakened. If carbonation reaches the level of the reinforcement, and moisture and oxygen are present, the steel can begin to corrode. This corrosion can cause expansion, cracking, spalling and loss of durability in reinforced concrete structures.
Suitable Sika concrete protection systems, including anti-carbonation coatings and protective surface treatments, help reduce carbon dioxide ingress and support longer service life.
Concrete can be protected from carbonation by applying a suitable concrete protection system that helps reduce the penetration of carbon dioxide into the concrete. Anti-carbonation coatings form a protective
barrier on the concrete surface, helping to maintain the concrete’s alkalinity and protect embedded steel reinforcement from corrosion. Good concrete protection also starts with correct surface preparation, repair of damaged or spalled areas, and selection of the right Sika coating or surface treatment for the exposure conditions. Sika anti-carbonation coatings and protective systems help improve durability, reduce carbonation-related deterioration, and extend the service life of reinforced concrete structures.
Epoxy resin flooring provides a durable, seamless surface that is suitable for areas exposed to regular traffic, wear and, depending on the system, chemical exposure. Epoxy flooring is also easy to clean and can be available in different finishes and colours to suit the application.
The most suitable Sika epoxy flooring system depends on the application and the performance requirements of the floor. Sika offers different epoxy systems for general industrial flooring, heavy-duty environments, warehouses and areas requiring specialist properties such as anti-static protection.
The most suitable epoxy floor for a warehouse depends on factors such as traffic levels, forklift use, abrasion, chemical exposure and the condition of the existing floor. Sika offers epoxy flooring systems suitable for warehouses and logistics areas, including Sikafloor®-264 ZA.
For areas requiring anti-static properties, specialist systems such as Sikafloor®-262 AS N maybe considered.
Epoxy resin flooring provides a seamless, durable surface with good resistance to wear and, depending on the system, chemicals and mechanical traffic. Compared with traditional concrete surfaces, epoxy coatings can also provide a more uniform and easier-to-clean finish. The suitability of epoxy compared with tiles will depend on the requirements of the specific application.
Epoxy and polyurethane flooring systems offer durable, seamless flooring solutions, but their performance characteristics differ. Epoxy flooring is known for its hardness, durability and resistance to wear and chemicals, making it suitable for many industrial and commercial environments. Polyurethane flooring offers greater flexibility and can be well suited to areas exposed to temperature changes, impact and demanding cleaning conditions. The most suitable system depends on the requirements of the application.
Sika epoxy flooring systems can provide resistance to abrasion, mechanical traffic and chemicals, depending on the specific product and system. This makes them suitable for many industrial environments where floors are exposed to forklifts, heavy traffic and chemical substances. The product data sheet should be consulted to confirm the resistance of a specific system.
The service life of an epoxy floor depends on factors such as the flooring system selected, substrate condition, installation, traffic and maintenance. Rather than specifying a fixed lifespan, Sika recommends selecting the flooring system according to the expected conditions of use and maintaining the floor in accordance with the system requirements.
The best resin flooring depends on the requirements of the application, including traffic, chemical exposure, hygiene, slip resistance and the condition of the substrate. Sika offers a range of epoxy flooring systems designed for different industrial and commercial applications.
Resin flooring can be used in a wide range of industrial and commercial environments, including warehouses, manufacturing facilities, food and beverage plants, pharmaceutical facilities, car parks and commercial buildings. The most suitable system will depend on the specific requirements of the area.
Yes. Depending on the Sika flooring system selected, options are available for different colours, slip-resistant finishes and specialist requirements such as anti-static or electrostatic discharge (ESD) protection.
PU flooring is generally installed over a suitably prepared concrete substrate. The installation process typically involves preparing the substrate, applying the appropriate primer or base layer, and installing the selected polyurethane flooring system and finish. Requirements vary between systems, so the relevantSika product data sheet and application instructions should be followed.
Once installed, PU flooring is relatively straightforward to maintain. Regular cleaning helps to remove dirt and contaminants, while periodic inspections can identify areas requiring attention before they become more serious. Maintenance requirements will depend on the flooring system and the conditions of use.
Yes. Sika offers polyurethane flooring systems designed for demanding industrial environments exposed to traffic, mechanical wear and other challenging conditions. The appropriate system should be selected according to the level of traffic, impact, abrasion, chemical exposure and other requirements of the application.
Certain polyurethane flooring systems have crack-bridging properties and can accommodate movement in the substrate. Sika systems such as Sikafloor®-3240 and Sikafloor®-376 are designed for applications where flexibility and crack bridging are important. The suitability of a system will depend on the type and extent of movement or cracking.
Yes. Polyurethane flooring systems can be suitable for car parks and other areas exposed to vehicle traffic, abrasion and weathering. Sika offers polyurethane systems designed for car park applications, including systems for areas such as parking decks and garage floors.
Polyurethane flooring can be suitable for environments exposed to temperature variation, particularly where the floor also needs to accommodate movement and withstand mechanical or thermal stresses. The appropriate system depends on the expected temperature range, type of exposure and other conditions of the application.
Polyurethane flooring can provide good resistance to abrasion and a range of chemicals, depending on the system selected. This makes certain polyurethane systems suitable for industrial environments where floors are exposed to mechanical wear or chemical substances. The relevant product data sheet should be consulted to confirm resistance to specific chemicals.