Sustainable Materials Guide
Sustainable Materials Guide
Sustainable materials are becoming increasingly important in construction, architecture, manufacturing, and product design. Builders, architects, engineers, property owners, and manufacturers are looking for ways to reduce waste, use resources more responsibly, improve building durability, and lower the environmental impact of the materials they select.
However, describing a material as sustainable does not automatically mean it is the best choice for every project.
A material may be renewable but require long-distance transportation. Another may contain recycled content but have a short service life. A highly durable material may require more energy to manufacture but remain in service for decades with limited replacement.
The most responsible choice depends on the complete life of the material, including:
- Where its raw materials come from
- How it is manufactured
- How far it travels
- How long it lasts
- How much maintenance it requires
- Whether it improves building performance
- Whether it can be reused or recycled
- What happens at the end of its service life
In construction, durability is an especially important part of sustainability. A material that helps protect concrete, reduce water damage, or extend the life of a building may reduce the need for repeated repairs and replacement.
Rebotec USA provides mineral-based waterproofing products for concrete and mortar used in residential, commercial, and industrial construction. For product information related to concrete, mortar, waterproofing, or compatible cementitious applications, call Rebotec USA at +1 469-352-3379.
What Are Sustainable Materials?
Sustainable materials are materials selected, produced, used, and managed in ways that seek to reduce environmental impact while still meeting the project's functional requirements.
A sustainable material may have one or more of the following qualities:
- Renewable sourcing
- Recycled content
- Recyclability
- Long service life
- Low maintenance requirements
- Responsible local sourcing
- Reduced manufacturing waste
- Efficient use of raw materials
- Low-emission formulations
- Repairability
- Reusability
- Support for energy-efficient buildings
- Resistance to water, decay, or deterioration
The sustainable material meaning is broader than simply being natural.
Natural materials can still be harvested irresponsibly, transported long distances, or replaced frequently. Manufactured materials may provide environmental benefits when they use recycled inputs, reduce operating energy, improve durability, or remain in service for many years.
What Is a Sustainable Material?
A sustainable material is one that supports responsible resource use over its full life cycle.
That life cycle may include:
- Raw-material extraction
- Processing
- Manufacturing
- Packaging
- Transportation
- Installation
- Use
- Maintenance
- Repair
- Reuse, recycling, or disposal
For example, reclaimed wood may be considered sustainable because it reuses an existing material and reduces demand for newly harvested timber.
A durable concrete waterproofing product may also support sustainability when it helps extend the life of an existing concrete structure and reduces repeated demolition and reconstruction. The exact environmental benefit depends on the product, application, service life, and alternatives.
Sustainable Materials vs Sustainable Products
A sustainable material is the substance from which something is made.
A sustainable product is the finished item and includes additional considerations, such as:
- Product design
- Manufacturing efficiency
- Packaging
- Transportation
- Service life
- Maintenance
- Repairability
- End-of-life options
A product made from a renewable material is not automatically sustainable if it breaks quickly or cannot be repaired.
Similarly, a product made with conventional materials may still provide value when it significantly improves durability, energy efficiency, or building performance.
Sustainable Raw Materials
Sustainable raw materials are the basic resources used to manufacture products while seeking to reduce resource depletion and environmental harm.
They may include:
- Recycled metals
- Reclaimed wood
- Responsibly sourced timber
- Bamboo
- Cork
- Recycled glass
- Recycled plastic
- Agricultural fibers
- Recovered mineral materials
- Reused brick
- Reclaimed stone
- Industrial byproducts used in compatible products
When evaluating sustainable raw materials, consider:
- Whether the source is renewable
- How quickly the resource regenerates
- How extraction affects the surrounding area
- Whether workers and communities are treated responsibly
- How much energy processing requires
- Whether hazardous substances are involved
- How much usable material becomes waste
- Whether the source is independently documented
The origin of a material matters, but it is only one part of the complete evaluation.
Why Sustainable Materials Matter in Construction
Construction uses large amounts of concrete, steel, timber, glass, insulation, roofing, finishes, and other resources.
Selecting sustainable materials for construction may help:
- Reduce waste
- Preserve natural resources
- Reuse existing materials
- Extend building life
- Reduce replacement frequency
- Improve energy performance
- Create healthier interior environments
- Support responsible manufacturing
- Lower maintenance demands
- Make future disassembly or recycling easier
The most effective sustainable design strategies often begin before materials are selected.
They may include:
- Building only the space that is needed
- Reusing an existing structure
- Repairing rather than demolishing
- Designing for durability
- Reducing unnecessary material layers
- Planning for future adaptation
- Preventing water intrusion
- Improving energy efficiency
- Selecting materials suited to the climate
A durable building is generally more resource-efficient than one that requires frequent repair or premature replacement.
Sustainable Materials in Construction
Sustainable materials used in construction may come from renewable resources, recycled materials, reclaimed products, or durable mineral-based systems.
The right material depends on the building type, climate, local availability, structural requirements, moisture exposure, code requirements, and budget.
Responsibly Sourced Wood
Wood is renewable when forests are responsibly managed and harvesting does not exceed regeneration.
Wood may be used for:
- Structural framing
- Flooring
- Wall finishes
- Cabinets
- Doors
- Exterior cladding
- Furniture
Potential sustainability benefits include:
- Renewable sourcing
- Lower weight than some alternatives
- Reuse and repair potential
- Storage of biogenic carbon during service life
- Availability from local sources in some regions
Wood must still be protected from moisture, insects, fire, and decay according to the application.
Reclaimed Wood
Reclaimed wood is recovered from existing buildings, barns, industrial structures, shipping materials, or other previous uses.
Potential benefits include:
- Extends the life of existing material
- Reduces demand for new lumber
- Keeps usable material out of disposal streams
- Provides unique appearance and character
Reclaimed wood should be inspected for:
- Structural condition
- Moisture damage
- Insect activity
- Embedded metal
- Existing coatings
- Possible contaminants
Bamboo
Bamboo grows quickly and can be used in flooring, panels, furniture, and decorative applications.
Its environmental performance depends on:
- Growing practices
- Manufacturing process
- Adhesives
- Finishes
- Transportation distance
- Product durability
Bamboo is an example of a renewable resource, but the complete product should still be evaluated rather than focusing only on growth rate.
Cork
Cork is harvested from the bark of cork oak trees without cutting down the tree.
It may be used for:
- Flooring
- Wall panels
- Underlayment
- Acoustic products
- Insulation
- Product components
Potential benefits include:
- Renewable harvesting
- Acoustic performance
- Thermal properties
- Lightweight construction
- Comfortable flooring applications
Its suitability depends on moisture, traffic, finish, and installation conditions.
Recycled Steel
Steel may be recovered and recycled into new structural and nonstructural products.
It is used for:
- Structural frames
- Reinforcing steel
- Roofing
- Wall systems
- Fasteners
- Equipment
- Interior framing
Potential benefits include:
- High strength
- Long service life
- Recyclability
- Efficient structural use
- Recovered-content options
Steel still requires energy-intensive manufacturing, so recycled content, efficient design, durability, and reuse all matter.
Recycled Aluminum
Aluminum is used in:
- Window frames
- Curtain walls
- Roofing
- Flashing
- Doors
- Railings
- Product components
Recycled aluminum can reduce demand for newly extracted raw material. Its light weight may also reduce transportation and structural loads in certain applications.
Recycled Glass
Recycled glass may be used in:
- Countertops
- Tile
- Insulation
- Decorative surfaces
- Concrete aggregates where approved
- Landscaping products
The environmental value depends on local processing, transportation, product durability, and whether the glass would otherwise be discarded.
Reclaimed Brick
Existing brick can sometimes be cleaned and reused.
Reclaimed brick may offer:
- Reduced demand for newly manufactured units
- Historic appearance
- Material reuse
- Long service life
The brick should be evaluated for strength, weathering, previous exposure, and compatibility with the new mortar.
Reclaimed Stone
Stone recovered from existing buildings, walls, paving, or landscaping may be reused in new projects.
Possible applications include:
- Cladding
- Flooring
- Pavers
- Retaining walls
- Landscape features
- Interior finishes
Local reclaimed stone can provide durability while reducing the need for newly quarried material.
Earthen Materials
Earthen construction may include:
- Rammed earth
- Adobe
- Compressed earth blocks
- Clay plaster
- Earthen floors
Potential benefits may include:
- Local sourcing
- Minimal processing
- Thermal mass
- Low material waste
- Repairability
However, earthen materials require careful protection from water and must be designed for the local climate and structural requirements.
Straw-Based Materials
Straw is an agricultural byproduct that may be used in:
- Straw-bale walls
- Insulated panels
- Fiberboards
- Composite products
These systems require proper detailing for fire, moisture, pests, and structural performance.
Hemp-Based Materials
Hemp fibers and hemp-lime mixtures may be used in insulation, wall infill, panels, and other building products.
Potential advantages may include:
- Renewable agricultural sourcing
- Insulation performance
- Vapor-permeable wall systems
- Lightweight applications
Availability, code acceptance, manufacturing, binders, and transport should be considered.
Cellulose Insulation
Cellulose insulation is commonly made from recycled paper fibers treated for fire and pest resistance.
It may be used in:
- Attics
- Wall cavities
- Floors
- Retrofit projects
Proper installation is important to achieve the intended density and thermal performance.
Recycled Plastic Products
Recovered plastic may be used in:
- Composite decking
- Roofing components
- Drainage materials
- Insulation
- Site furnishings
- Panels
- Product packaging
Recycled plastic can keep material in use longer, but designers should also evaluate durability, heat exposure, repairability, future recyclability, and the potential release of small plastic particles.
Concrete as a Sustainable Building Material
Concrete is widely used because it is strong, versatile, fire resistant, and suitable for foundations, slabs, walls, roofs, bridges, tanks, and infrastructure.
However, conventional cement production can have a significant environmental impact. As a result, more sustainable concrete strategies may include:
- Designing efficiently to reduce unnecessary concrete
- Using supplementary cementitious materials where appropriate
- Using recycled aggregate where approved
- Improving placement quality
- Reducing repair and replacement
- Using local materials when practical
- Extending the service life of concrete
- Reusing existing concrete structures
- Recycling demolished concrete as aggregate or fill where suitable
Durability is critical.
A concrete structure that lasts longer and avoids premature reconstruction may use fewer resources over its complete life than one that requires repeated repair or replacement.
Waterproofing and Concrete Durability
Water intrusion may contribute to:
- Reinforcing-steel corrosion
- Spalling
- Freeze-thaw damage
- Efflorescence
- Coating failure
- Interior damage
- Repeated repairs
Protecting concrete from water may help extend its usable life.
Rebotec USA offers mineral-based waterproofing products for compatible concrete and mortar applications.
Rebotec Admix Powder is designed to help create hydrophobic properties throughout compatible new concrete, mortar, grout, or cementitious repair materials.
Rebotec Paint is a surface-applied mineral-based hydrophobic waterproofing product for compatible concrete and masonry.
The environmental performance of any product should be evaluated using accurate project-specific information, including composition, transportation, installation, durability, maintenance, and expected service life.
Sustainable Materials in Architecture
Sustainable materials in architecture should support both the building's appearance and its long-term performance.
Architects may consider:
- Embodied environmental impact
- Operational energy
- Durability
- Climate suitability
- Maintenance
- Local availability
- Repairability
- Material health
- Adaptability
- End-of-life recovery
A material that performs well in a dry climate may not be suitable in a humid or coastal environment.
Water management is an important architectural concern. Roofs, walls, windows, balconies, foundations, and joints should be designed to prevent moisture from damaging otherwise durable materials.
Designing for Durability
Sustainable materials architecture should include details that protect materials from predictable exposure.
Examples include:
- Roof overhangs
- Flashing
- Drip edges
- Drainage cavities
- Raised wall materials
- Slope to drains
- Capillary breaks
- Foundation waterproofing
- Replaceable wear layers
- Accessible joints
- Protected sealants
A durable material can still fail early when the surrounding design allows water to collect or enter.
Designing for Adaptability
Buildings frequently change uses over time.
Adaptable design may include:
- Flexible floor plans
- Accessible building systems
- Replaceable interior partitions
- Modular components
- Reusable structural systems
- Demountable finishes
Allowing a building to change without major demolition can preserve materials and reduce future waste.
Designing for Disassembly
Some products and assemblies can be connected mechanically rather than permanently bonded.
This may make it easier to:
- Repair damaged components
- Replace individual sections
- Reuse materials
- Separate recycling streams
- Adapt the building later
Adhesives and composite materials may make separation more difficult, although they may still be necessary for performance in some applications.
Sustainable Materials for Building a House
Sustainable materials to build a house depend on location, climate, design, availability, and budget.
Possible options include:
- Responsibly sourced wood framing
- Reclaimed wood
- Recycled steel
- Cellulose insulation
- Cork flooring
- Reclaimed brick
- Recycled-glass surfaces
- Durable roofing
- Low-emission interior finishes
- Efficient windows
- Local stone
- Mineral-based wall finishes
- Durable concrete with appropriate water protection
Homeowners should consider the complete assembly rather than purchasing individual "green" materials without a plan.
For example, high-performance insulation will not deliver its intended benefit if air leakage, water intrusion, or poor installation is left unaddressed.
Sustainable Materials for Products
Sustainable materials for products may include:
- Recycled metal
- Recycled glass
- Recovered plastic
- Responsibly sourced wood
- Bamboo
- Cork
- Agricultural fibers
- Recycled paper
- Reusable textile fibers
- Mineral-based materials
- Refillable packaging
Product designers should also consider:
- How much material is needed
- Whether parts can be repaired
- Whether batteries or electronics can be replaced
- Whether components can be separated
- Whether packaging can be reduced
- Whether the product is built to last
- Whether replacement parts will remain available
The most sustainable product may sometimes be the one that does not need to be replaced frequently.
Sustainable Materials Examples
The following sustainable materials list includes commonly discussed options for construction, architecture, and products:
- Reclaimed wood
- Responsibly sourced timber
- Bamboo
- Cork
- Recycled steel
- Recycled aluminum
- Recycled glass
- Reclaimed brick
- Reclaimed stone
- Cellulose insulation
- Straw-based panels
- Hemp-based insulation
- Rammed earth
- Adobe
- Compressed earth blocks
- Recycled-plastic composites
- Recycled rubber products
- Reused concrete components
- Concrete containing approved recycled or recovered inputs
- Durable mineral-based finishes
- Natural-fiber textiles
- Recycled paper products
This is not a ranking from best to worst.
The most sustainable materials for one project may be poor choices for another. Local climate, building code, transport, durability, maintenance, and end-of-life options should guide the final selection.
New Sustainable Materials
New sustainable materials are being developed to reduce waste, reuse byproducts, improve efficiency, and replace limited resources.
Emerging material categories may include:
- Bio-based insulation
- Agricultural-fiber panels
- Mycelium-based products
- Low-impact cement alternatives
- Carbon-storing composites
- Recycled-plastic construction products
- Advanced timber systems
- Recovered-mineral products
- Reusable modular assemblies
- High-performance coatings that extend material life
New does not automatically mean better.
Before using an emerging material, evaluate:
- Building-code acceptance
- Fire performance
- Moisture behavior
- Structural capacity
- Long-term durability
- Repair options
- Manufacturer support
- Installation requirements
- Availability of replacement material
- Verified environmental documentation
A promising new material may still have limited field history.
How to Choose Sustainable Materials
A practical evaluation can include the following steps.
Step 1: Define the Required Performance
Determine what the material must do.
Consider:
- Structural loads
- Moisture exposure
- Temperature
- Fire resistance
- Traffic
- Chemical exposure
- Appearance
- Expected service life
A material that cannot perform safely is not sustainable for that application.
Step 2: Evaluate Durability
Ask:
- How long is the material expected to last?
- What maintenance does it need?
- Can it be repaired?
- Will it tolerate the local climate?
- What commonly causes it to fail?
- Can damaged parts be replaced individually?
Step 3: Review Raw Materials
Consider:
- Renewable content
- Recycled content
- Responsible sourcing
- Resource availability
- Extraction impacts
- Material efficiency
Step 4: Consider Manufacturing
Evaluate:
- Energy use
- Water use
- Waste
- Emissions
- Hazardous substances
- Manufacturing transparency
Step 5: Consider Transportation
A local material may require less transportation, but local sourcing alone does not guarantee lower total impact.
Consider weight, shipping method, quantity, and manufacturing location.
Step 6: Evaluate Installation
Ask whether installation:
- Creates excessive waste
- Requires hazardous chemicals
- Uses large amounts of energy
- Requires specialized equipment
- Can be completed accurately
- Allows repair or disassembly later
Step 7: Consider Building Performance
A material may contribute to:
- Energy efficiency
- Water resistance
- Airtightness
- Thermal comfort
- Acoustic comfort
- Durability
- Indoor environmental quality
Step 8: Plan for End of Life
Consider whether the material can be:
- Reused
- Repaired
- Recycled
- Composted where appropriate
- Safely disposed of
- Separated from other materials
What Are the Most Sustainable Materials?
There is no universal list of the most sustainable materials.
The answer depends on:
- Project location
- Material source
- Transportation
- Manufacturing process
- Service life
- Maintenance
- Climate
- Building design
- End-of-life options
- Available alternatives
For example, locally reclaimed brick may be an excellent choice for one project. A lightweight renewable panel may be more suitable for another. Durable recycled steel may be the responsible option for a structural building that requires high strength.
The best material is usually one that meets the project's needs with the lowest reasonable life-cycle impact.
Common Sustainable Material Mistakes
Avoid these common errors:
- Assuming natural always means sustainable
- Focusing only on recycled content
- Ignoring durability
- Ignoring transportation
- Choosing materials unsuited to the climate
- Overlooking maintenance
- Using unverified environmental claims
- Ignoring indoor emissions
- Replacing usable materials unnecessarily
- Selecting products that cannot be repaired
- Combining materials in ways that prevent recycling
- Ignoring water protection
- Using new materials without adequate testing
- Focusing on one environmental measure while ignoring others
Sustainable material selection requires balancing multiple factors rather than relying on one label.
An Example of Sustainable Material Use
An example of sustainable material use would be renovating an existing commercial building rather than demolishing it.
The project might:
- Preserve the structural frame
- Repair damaged concrete
- Add waterproofing to extend its service life
- Reuse existing brick
- Install recycled-content insulation
- Use responsibly sourced wood
- Replace only failed windows
- Add efficient mechanical systems
- Design interior partitions for future relocation
This approach preserves the energy and materials already invested in the building while improving its long-term performance.
Another example of sustainable material use would be reclaiming timber from a dismantled building and using it for interior finishes, provided it is safe, sound, and appropriate for the new application.
Sustainability and Waterproofing
Waterproofing may not be the first thing people think about when discussing sustainable materials, but water protection plays an important role in building durability.
Water intrusion can damage:
- Concrete
- Reinforcing steel
- Insulation
- Drywall
- Wood framing
- Flooring
- Paint
- Equipment
- Interior finishes
Repeated water damage may lead to demolition, material replacement, waste, and additional construction.
A well-designed waterproofing system may help preserve existing materials and extend the usable life of the structure.
Waterproofing should still be selected carefully. The system must match the substrate, exposure, water pressure, movement, finish, and project requirements.
Ask Rebotec USA About Durable Concrete Waterproofing
Rebotec USA helps contractors, builders, engineers, distributors, and property owners evaluate mineral-based waterproofing products for concrete and mortar.
Rebotec products may be considered for compatible:
- New concrete
- Foundations
- Basement walls
- Concrete slabs
- Roof decks
- Retaining walls
- Mortar
- Grout
- Cementitious repairs
- Commercial concrete structures
Durable waterproofing can support a building's long-term performance by helping protect compatible concrete and mortar from moisture exposure.
Call Rebotec USA at +1 469-352-3379 for product information and application guidance.
Conclusion
Sustainable materials are materials selected and used with consideration for responsible sourcing, manufacturing, transportation, durability, maintenance, reuse, recycling, and end-of-life impact.
There is no single sustainable materials list that works for every project.
Common examples of sustainable materials include reclaimed wood, responsibly sourced timber, recycled steel, recycled aluminum, cork, bamboo, reclaimed brick, recycled glass, cellulose insulation, earthen materials, and agricultural-fiber products.
In construction and architecture, durability is a major part of sustainability. A material that lasts longer, resists moisture, can be repaired, and avoids repeated replacement may provide long-term value even if it is not marketed as a new green product.
Building reuse can also be one of the most effective sustainability strategies. Repairing concrete, controlling water intrusion, and extending the life of an existing structure may preserve large amounts of material that would otherwise be demolished and replaced.
Sustainable materials should always be selected according to required performance. Structural safety, moisture resistance, fire performance, durability, code compliance, and local climate should not be sacrificed for a single environmental claim.
For help evaluating mineral-based waterproofing products that may support durable concrete and mortar construction, call Rebotec USA at +1 469-352-3379.
FAQs About Sustainable Materials
What are sustainable materials?
Sustainable materials are materials selected, produced, used, and managed in ways that seek to reduce environmental impact while meeting functional and safety requirements.
What is a sustainable material?
A sustainable material is one that supports responsible resource use throughout sourcing, manufacturing, installation, service, maintenance, and end of life.
What is the sustainable material meaning?
The term describes a material evaluated according to its complete life cycle rather than only whether it is natural or recycled.
What are sustainable raw materials?
They are basic resources sourced and processed with attention to renewability, recycled content, responsible extraction, waste, energy, and long-term availability.
What are some sustainable materials?
Examples may include reclaimed wood, responsibly sourced timber, bamboo, cork, recycled steel, recycled aluminum, recycled glass, reclaimed brick, cellulose insulation, and earthen materials.
What are examples of sustainable materials in construction?
Examples include recycled steel framing, reclaimed brick, responsibly sourced wood, cellulose insulation, recycled-glass finishes, reclaimed stone, and durable low-maintenance building systems.
What are sustainable materials in construction?
They are building materials selected to reduce waste, improve durability, support responsible sourcing, lower maintenance, or improve building performance.
What are sustainable materials in architecture?
They are materials selected as part of an architectural strategy that considers durability, climate, energy, water, sourcing, indoor environmental quality, and end-of-life use.
What are sustainable materials for building a house?
Possible options include responsibly sourced lumber, recycled steel, cellulose insulation, cork flooring, reclaimed brick, durable roofing, local stone, and low-emission finishes.
Is wood a sustainable material?
Wood can be sustainable when responsibly sourced, used efficiently, protected from deterioration, and designed for a long service life.
Is bamboo a sustainable material?
Bamboo is rapidly renewable, but the full product should be evaluated for manufacturing, adhesives, transportation, durability, and sourcing.
Is cork sustainable?
Cork can be renewable because the bark may be harvested without cutting down the tree. Product manufacturing and transportation should still be considered.
Is recycled steel a sustainable material?
Recycled steel can reduce demand for newly extracted material and may offer a long service life and future recyclability.
Is concrete a sustainable material?
Concrete has significant manufacturing impacts, but its sustainability may be improved through efficient design, durability, responsible material selection, recycled inputs where approved, and reuse of existing structures.
How can concrete be made more sustainable?
Strategies may include reducing unnecessary material, using suitable recovered inputs, improving durability, preventing water damage, extending service life, and recycling demolished concrete where appropriate.
Why is durability important to sustainable construction?
Durable materials may require fewer repairs and replacements, reducing future material use, waste, labor, and disruption.
How does waterproofing support sustainable construction?
Waterproofing can help protect concrete, insulation, finishes, and structural components, potentially reducing water damage and premature material replacement.
Are natural materials always sustainable?
No. Natural materials may still involve irresponsible harvesting, excessive transportation, short service life, or unsuitable performance.
Are recycled materials always sustainable?
Not automatically. Manufacturing, transportation, durability, contamination, and future recyclability should also be considered.
What are new sustainable materials?
Emerging options may include bio-based insulation, mycelium products, agricultural-fiber panels, advanced timber, low-impact cement alternatives, and reusable modular systems.
What are the most sustainable materials?
There is no universal answer. The most suitable choice depends on location, performance, sourcing, durability, maintenance, transport, and end-of-life options.
What is an example of sustainable material use?
An example would be reusing an existing building's structural frame, repairing its concrete, and upgrading its performance instead of demolishing and rebuilding it.
How do architects select sustainable materials?
Architects may compare performance, durability, source, embodied impact, maintenance, indoor emissions, climate suitability, reuse, and end-of-life recovery.
What should I look for in a sustainable product?
Look for verified information about sourcing, recycled content, emissions, service life, maintenance, repairability, manufacturing, and end-of-life options.
Can local materials be more sustainable?
Local materials may reduce transportation and support regional economies, but their manufacturing, durability, and suitability should still be evaluated.
Are mineral-based materials sustainable?
Their environmental performance depends on raw materials, manufacturing, transportation, application, durability, and end-of-life considerations. Mineral-based does not automatically mean sustainable.
Who can help me choose a durable waterproofing product for concrete?
Rebotec USA can help evaluate mineral-based waterproofing products for compatible concrete and mortar applications. Call +1 469-352-3379 for product information and application guidance.
