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Basalt rebar, BFRP reinforcement products for concrete construction. Basalt Fiber Reinforced Composite Superior, cost-effective products and engineering services for concrete structures. FREE CONSULTATION Providing innovative concrete reinforcement solutions throughout the US and globally We provide non-corrosive, lightweight basalt composite concrete reinforcing products engineered as a sustainable alternative to conventional steel reinforcement. Our products significantly extend the life of concrete structures helping property owners reduce overall costs and increase their bottom line. Basalt vs Steel Basalt vs Steel The many advantages of basalt fiber products over steel seen in concrete construction in every level. 100% NON-CORROSIVE 2.5x AS STRONG 1/4 THE WEIGHT 100+ YEARS LIFE SPAN Steel Rebar Structure Issues Deteriorating concrete infrastructure results from the corrosion of steel, which decays from rain, wind, salt, and anti-icing chemicals. Explore Basalt Fiber Composite Rebar Corrosion free, strong and light weight, developed to improve the quality of concrete construction. Explore The Future of Concrete Construction Innovative, corrosion proof composite reinforcement is used for residential, commercial, and industrial slabs on grade, hydraulic structures, and pre-cast concrete elements Basalt Fiber Reinforced Polymer Rebar (BFRP) Composite rebar is corrosion free and light weight, developed to improve quality and strength in concrete construction. Learn more View More Roads reinforced with basalt composite rebar A new alternative to steel rebar that dramatically reduces cracking and spalling in concrete structures. Learn more View More High-rises built with basalt composite rebar Buildings of all sizes may utilize the advantages of basalt rebar for reinforcing slabs and structural elements. Learn more View More Benefits-advantages-savings Benefits Easier logistics & handling Faster concrete cure Faster project delivery Less labor Safer work environment Negligible repair Advantages Green product Corrosion resistance Thermal insulation and lightness Concrete compatible thermal expansion Electrical and magnetic neutrality Superior tensile strength Simplified management on site Savings Logistics & handling cost Overall build cost Labor cost Insurance cost Repair cost Life cycle cost Applications Residential Reduced use of material, quicker build, and lower maintenance cost. Consultation Book a free consultation Our engineering team provides local assistance to infrastructure owners, engineers, contractors and fabricators. Please fill out the form below and our team will be in touch with you shortly. The widest range of locations Bluefiber Group is opening locations worldwide through local partnerships to provide regional service to construction companies interested in basalt fiber rebar and other products for reinforced concrete construction Find a dealer near you Investment opportunity

Do you have questions? We have answers. BFRP Basalt Fiber Reinforced Polymer 1. What is Basalt? 2. What's the difference between Basalt Rebar and fiberglass rebar? 3. Is Basalt Rebar a green product? 4. How does Basalt Fiber Reinforced Polymer (BFRP) Rebar compare to steel rebar? 5. How does one directly compare the performance between basalt rebar and steel? 6. How does Basalt Rebar pricing compare to steel pricing? 7. Can you bend Basalt Rebar at the jobsite? 8. Does Basalt FRP have its own governing bod like steel? 9. What testing of signifigance has been performed on Basalt REbar? 10. What are typical applications for BFRP? 11. What are the main advantages of BFRP Rebar? 12. Does salt water affect BFRP? 13. Are there back applications for BFRP's? 14. Is Basalt Rebar manufactured in the USA? 15. What size of Basalt Rebar are available? 16. What other types of reinforcing products does Blue Fiber use? 17. What is Modulus strength? 18. What is Tensile strength? 19. Why is Tensile strength so important? 20. What is pultrusion and how is it compared to extrustion? Q1 Q2 Q3 Q4 Q5 Q6 Q7 Q8 Q9 Q10 Q11 Q12 Q13 Q14 Q15 Q16 Q17 Q18 Q19 Q20 1. What is Basalt? Basalt is the most common rock on the planet and defined as an extrusive igneous (volcanic) rock that is low in silica content, dark in color, and comparatively rich in iron and magnesium. By way of comparison, basalt fiber is similar to carbon fiber or fiberglass, but basalt has superior mechanical properties than fiberglass, and has a significantly lower cost than carbon fiber (10 – 15X lower). 2. What’s the difference between Basalt Rebar and fiberglass rebar? Basalt and Glass are both FRP’s and similar in price, but with some major exceptions: ● Basalt has twice the working temperature of fiberglass (400°C vs 200°C) ● Basalt has 20 – 40% better mechanical properties and puncture resistance ● Basalt has a much greater resistance to chemicals, alkali and UV ● Basalt is very Eco-Friendly; with a dramatically lower environmental impact (10 : 1) 3. Is Basalt Rebar a green product? Bluefiber Group is a proud member of the US Green Building Council, and its BFRP Rebar is Eco-Friendly. According to the ACMA, the American Composite Manufacturing Association, it has demonstrated that the production of BFRP Rebar has less than 1/10th the carbon footprint of steel, and basalt has the lowest environmental impact in a Life-Cycle Assessment compared with other FRP (Fiber Reinforced Polymer) rebars. Basalt fiber is all natural and produced from stone; having no additives that are typically found in other materials such as glass fiber. Additional LEEDs contributions are found in the transportation and handling. Steel requires 4 truckloads vs. 1 for Basalt Rebar. Steel requires special equipment to unload vs. none for Basalt Rebar , and 50% more time & labor is expended to receive and unload the exact same number of steel rebar compared with Basalt Rebar ! 4. How does Basalt Fiber Reinforced Polymer (BFRP) Rebar compare with steel rebar? BFRP is a sustainable, rust proof alternative to traditional steel reinforcement, with 25% of the weight of steel and a specific tensile strength that is 2.5 times greater (bar for bar). It’s also Impervious to attacks from alkali, chemicals or water, which causes steel to corrode (iron oxide hydrate, or rust). 5. How does one directly compare the performance between Basalt Rebar and steel? Calculations for Steel’s performance are based on long existing standard (or stipulated) data, and therefore selected according to its guaranteed tensile strength (Example: Grade 60 = 60,000 psi). Calculations for Basalt Rebar are dependent upon data generated and Certified from a 3rd Party accredited laboratory. Although the engineering for FRP’s is different than steel, the mechanical data for either product is used similarly to determine the proper amount of reinforcement in a cross section of concrete. Basanite provides proprietary software that allows the design professional to directly compare the standards and calculations for BFRP use in ACI 440, with the standards and calculations outlined in ACI 318 for steel. This “Code Normalization” demonstrates the selection of Basalt Rebar can be an excellent alternative to steel, thus making it easier for a designer to select BFRP and capture all the benefits not available when selecting steel rebar. 6. How does Basalt Rebar pricing compare with steel pricing? This varies depending on the cost of steel this week. One of the values of selecting Basalt Rebar , is that its pricing is stable compared with steel. Typically, steel pricing is good for a week at a time, forcing larger buy-ups to secure best pricing. Normally, “off the shelf” pricing of steel from large wholesalers, is cheaper than FRP’s. However, steel rebar and BFRP rebar are clearly not “apples to apples” as reinforcing products – and shouldn’t be compared that way. More often than not, you will save money using Basalt Rebar on a sizeable project based on the final “in-place cost” - everything considered. Additionally, the Total Cost of Ownership is greatly reduced by choosing Basalt Rebar over steel rebar. 7. Can you bend Basalt Rebar at the jobsite? Hard bends at the jobsite are not possible. All hard bends (90’s, stirrups, angles, etc.) are fabricated during production; according to your design and delivered to the job site along with the straight bars. This practice saves the installer significant time and eliminates waste for a quicker and easy installation. 8. Does Basalt FRP have its own governing body like Steel? Yes. ACI (American Concrete Institute) 440.1R-15 offers general information on the history and use of all FRP reinforcement, a description of the unique material properties of FRP, and guidelines for the design and construction of structural concrete members reinforced with FRP bars. You will also find specific information about the selection and use of FRP’s in AC454, Fiber-reinforced Polymer (FRP) Bars for Internal Reinforcement of Concrete Members Acceptance as part of the ICC-ES, and FDOT’s Spec 932-3. 9. What testing of significance has been performed on Basalt Rebar? Outside of multiple ASTM testing criterion, Basalt Rebar has passed the equivalent of AC 454 testing protocol (Fiber-reinforced Polymer (FRP) Bars for Internal Reinforcement of Concrete Members Acceptance), as specified within the Basalt Rebar Certificate of Compliance, most recently published in January of 2021. 10. What are typical applications for BFRP? Although Basalt Rebar can be used in any cubic yard (or meter) of concrete, the most attractive applications are usually those harshest applications where steel rebar is not really part of the solution… for example: ● Hydraulic Structures & Precast ● Freeze Thaw Environments ● Thin Wall & Panel Systems ● Harsh Chemical Environments ● Architectural Precast ● Bridge Decking ● Sea Walls & Marine Applications ● High Heat Applications ● Shielding Concrete 11. What are the main advantages of BFRP Rebar? A. 100% Corrosion and Rust Proof – This eliminates spalling and cracking experienced by selecting traditional steel reinforcement and further eliminates the costs and need for special coatings or treatments on your concrete. You can even consider a reduction in the overall concrete depth or wall thickness – also saving money and time on the project. All in all, by using Basalt Rebar . Rebar you are reducing the Total Cost of Ownership and creating a 100+ year useful lifecycle! B. 75% Lighter than Steel – The lighter weight makes Basalt Rebar safer and easier to unload, handle and place, saving time on the jobsite. Also, it requires no special equipment to unload the truck. Trucking is also a huge advantage with less trips (4 x 1) for the same linear footage of bar. C. Stronger than Steel – Basalt Rebar has a specific tensile strength of 2.5 X greater than steel rebar. This attribute allows you to go down a bar size in secondary reinforcement applications! D. Non-Conductive – Bluefiber’s entire family of reinforcing products are all non-conductive, and do not interfere with RF signals – unlike carbon and steel reinforcement. E. Natural Resistance – Basalt Rebar is naturally resistant to heat, chemicals, UV, alkali and moisture. Basalt Rebar can be considered for even the harshest environments and applications. 12. Does salt water affect BFRP? Test results show that the static strength of the BFRP shows negligible degradation after prolonged aging in the salt solution, making Basalt Rebar an excellent choice for salt water concrete applications. 13. Are there bad applications for BFRP’s? Pretty much anywhere you have selected up to a #8 (25 mm or 1.0” diameter) rebar, you can consider Basalt Rebar as an alternative. At this time, FRP’s are not recommended as the main structural members for primary vertical reinforcement in high rises of more than 4 stories – although, neither is #8 steel in most cases. This is due to a lower modulus vs steel. It is however, approved for use in the internal walls and flooring to reduce the weight of the structure. 14. Is Basalt Rebar manufactured in the USA? Yes. Bluefiber’s family of reinforcing products are produced right here in the USA. Our current production facility is located in Pompano Beach, FL; with future plans to grow into several manufacturing plants throughout the US. 15. What sizes of Basalt Rebar are available? Bluefiber provides Basalt Rebar in #2 - #8 Bar sizes, which is equal to ¼” – 1.0” in diameter. Standard stocked bar lengths are 10’, 20’ and 40’ (3M, 6M and 12M). Longer length coils are available up through #4 (1/2”) diameter size bar, with custom cut sizes available upon request. Watch for announcements in the second half of 2021 as Basanite will then be commercializing #9 & #10 (1.128” & 1.270”) Basalt Rebar . Special stirrups, bends and shapes are engineered and can be produced from any size of bar (#2 - #8). 16. What other types of reinforcing products does Bluefiber produce? Other than Bluefiber’s “patent pending” BFRP Rebar, the company proudly produces a line of Basalt Fiber (Micro and Macro), as well as a line of GeoGrid Mesh. Basalt Rebar is a blend of chopped basalt fibers that provide, 3-dimensional, secondary isotropic reinforcement. Basalt Rebar (Microfiber) and BasaMix-M (Macro Fiber) are engineered to impart toughness to any concrete element at a range of 0.1% – 0.3% by volume respectively. BasaMix™ delivers 100’s of millions of individual, high tenacity fibers that control the formation of plastic shrinkage cracking by absorbing the stresses associated with volumetric changes in fresh and hardened concrete, leaving you with a fiber-free finish. BasaMix™ greatly improves the surface performance and durability of your concrete through impact and fatigue resistance, and through freeze / thaw cycles. BasaMesh™ is a Geo Grid Mesh made from Basalt Fiber Reinforced Polymers and is used as an alternative to traditional welded wire mesh in walls, flatwork, and precast – especially in reinforcing applications where coverage and depth of application or shadowing are of concern. 17. What is Modulus strength? Often known as Young’s Modulus, or Tensile Modulus, is a mechanical property of linear elastic materials, or its stiffness. It evaluates the elasticity of rigid or solid material, which is the relation between the deformation of a material and the power needed to deform it, or the stress in a material just before it yields in a flexure test. Modulus is typically measured in GPa’s (Gigapascals). 18. What is Tensile strength? Tensile strength is the maximum load that a material can support without rupture when being overextended (in short, an ability to withstand a pulling force), divided by the original cross-sectional area of the material. Tensile strengths are typically measured in pounds per square inch, or psi. 19. Why is Tensile strength so important? Often a reduction in ductility and an increase in brittleness are related to an enhanced corrosion rate, which subsequently can change the failure of a material from a ductile failure (beyond the limits of tensile strength) to a perilous brittle failure. As noted in the paragraph above, and as a point of common sense, steel rusts and corrodes. 20. What is pultrusion, and how is it compared to extrusion? Pultrusion is a process where fibers, in this instance basalt fibers, are pulled through a resin matrix and a precise die; then heated at specific temperatures where the resin is cured in and around the fibers. Extrusion melts resin pellets and pushes them through a die to create fibers and profiles Up

CERTIFICATIONS MAKE AN EDUCATED DECISION Basalt Rebar ACI Codes To be allowed by your local building inspector department to use basalt rebar reference the various ACI codes that apply. Here is the statement that applies to Basalt rebar… Basalt FRP Rebar is used as per ACI 440.1R-06. The construction use is dictated by code 440.6-08. It is specified by 440.5-08 and tested according to ASTM D7205 and several other test methods. ASTM testing of Basalt FRP rebar shows that Basalt FRP rebar easily meets the performance requirements of ACI 440.6-08. Also applicable to Basalt rebar is ACI 440R-07 Report on Fiber-Reinforced Polymer (FRP) Reinforcement for Concrete Structures. The use of Basalt rebar came along after ACI 440.6-08 was published so the Basalt version of FRP was not specifically called out in that document. However, ACI 440R-07 (a later document) does specifically call out Basalt rebar as an FRP rebar. It says “Fibers commonly used to make FRP bars are glass, carbon, and aramid. Recently, continuous Basalt fibers have become commercially available as an alternative to glass fibers.” It talks about Basalt FRP rebar all through the document and includes it in its various tables, but the key point is that it is classed as FRP. Basalt FRP rebar is approved as natural fiberglass, meeting the certification specifications of ACI 440.6-08 and signed off as fiberglass FRP rebar. In doing so, the job will simply be overbuilt because the physicals of Basalt rebar are higher than fiberglass, falling between fiberglass and carbon fiber. Basalt rebar can be placed to meet code requirements by using the calculations and installation guidelines for fiberglass reinforcement of concrete as defined in ACI 440.6-08. Recommendations for maximum deflection and shear of concrete elements reinforced with fiber reinforced polymer (FRP) rebar’s are presented in ACI 440.1R-06 (2006) “Guide for the Design and Construction of Structural Concrete Reinforced with FRP Bars”. Basalt rebar has been tested at various universities and approved by the American Concrete Institute under ACI 440-10. Basalt rebar is used according to ACI 440. 1R-06. The construction use is dictated by code 440.6-08. It is specified by 440.5-08 and tested according to ASTM D7205 and several other testing methods. ISO 9001: Basalt rebar has been tested by several methods and approved by ISO 9001. In the ACI documentation, the term FRP (Fiber Reinforced Polymer ) includes Basalt based FRP. The term BFRP is often used instead of saying Basalt Rebar. Existing Basalt Rebar specifications and testing requirements USA ACI 440.3R-4: Guide for the test methods for fiber reinforced polymers for reinforcing or strengthening concrete structures. Published by the American Concrete Institute. ACI 440.1R-06: Guide for the design and construction of concrete reinforced with FRP Bars. Published by the American Concrete Institute. ASTM Standards D8505/D8505M-23: Standard Specification for Basalt and Glass Fiber Reinforced Polymer (FRP) Bars for Concrete Reinforcement D8448/D8448M-22: Standard Specification for Basalt Fiber Strands Design Manuals Isis Design Manual No 3: Reinforcing concrete structures with fiber reinforced polymers Committees American Concrete Institute (ACI): 440 Composites for Concrete American Concrete Institute (ACI): 400H Reinforced Concrete (rebar) American Concrete Institute (ACI): 440I Pre-stressed concrete (tendons) American Society of Civil Engineers (ASCE): Structural Composites and Plastics American Society of Testing and Materials (ASTM) : ASTM D20.18.01 FRP Materials for concrete. American Society of Testing and Materials (ASTM) : ASTM D20.18.02 Pultruded Profiles. American Society of Testing and Materials (ASTM) : ASTM D30.30.01 Composites for Civil Engineering. AASHTO Bridge Subcommittee: T-21 FRP Composites

STEEL REBAR CORROSION IN REINFORCED CONCRETE CORROSION MAY CAUSE CATASTROPHIC DAMAGE Expensive and difficult to repair, corrosion is the most damaging and dangerous event occurring in concrete. STEEL REBAR DEGRADATION IN BUILDINGS Any building will eventually show signs of rust in its concrete structure. It's just a matter of time and location that will determine the speed in which corrosion will form. DAMAGE TO RESIDENTIAL BUILDINGS Damage may start with foundations exposed to high concentrations of moisture which will accelerate the steel rebar corrosion process and decay of the concrete. HIDDEN DETERIORATION Usually, the most exposed elements deteriorate first – but the underlying corrosion is unseen. Active corrosion in the steel beneath the surface may take 5 to 15 years to initiate cracks in the concrete, but much of the corroded reinforcement is not visible. SPALLED CONCRETE EXPOSES CORROSION Degradation of reinforcing steel and the subsequent weakening of the concrete occurs from the inside and may be unseen for many years. It is often referred to as “concrete cancer.” MARINE EXPOSED CONCRETE Constant contact with water accelerates the process of corrosion within and makes concrete peal and spall from the expansion of corroded steel rebar. COMMON CAUSES OF CONCRETE CORROSION Carbonation When carbonation, chlorides and other aggressive agents penetrate concrete, they initiate corrosion that produces cracking, spalling and weakening of the concrete infrastructure Carbonation is the result of carbon dioxide (CO2) dissolving in the concrete pore fluid and reacting with calcium from calcium hydroxide and calcium silicate hydrate to form calcite (CaCO3). Within a relatively short space of time the surface of fresh concrete will have reacted with CO2 from the air. Gradually, the process penetrates deeper into the concrete and after a year it may reach a depth of 1 mm for dense concrete of low permeability, or up to 5 mm for more porous and permeable concrete, depending on the water-to-cement ratio Chloride (salt attack) Chlorides, usually from seaside splash or wind, migrate into the porous concrete over time, causing corrosion when the concentration of chlorides reaches critical levels at the reinforcement. In addition, older structures may have used calcium chloride as a concrete “set accelerator” at the time of construction, resulting in serious corrosion issues Rust As reinforcing rods rust, the volume of rust product can increase up to six times that of the original steel, thus increasing pressure on the surrounding material, and slowly cracking the concrete. Over the course of years, the cracks eventually appear on the surface and concrete starts to flake off or spall CORROSION MECHANISMS OF REINFORCING STEEL In new concrete, alkaline (high pH) conditions form a passive film on the surface of the steel rebar rods, thus preventing or minimizing corrosion initially. But eventually, a pH reduction caused by carbonation or by ingress of chlorides (salt) causes the passive film to degrade, allowing the reinforcement to corrode in the presence of oxygen and moisture. When this occurs, a voltage differential of approximately 0.5 V is set up between the corroding (anodic) sites and the passive (cathodic) sites, resulting in a corrosion cell where electrons move through the steel from anode to cathode. The rate of the reaction is largely determined by the resistance or resistivity of the concrete. Acid forms at the anodic (corroding) site, which reduces the pH and promotes corrosion of the steel.

SPECIFICATIONS DATA ON BASALT COMPOSITE REBAR The alternative to steel rebar BFRP Rebar is a sustainable, rust proof alternative to traditional steel reinforcement. Comparatively, it’s only 25% of the weight of steel, and has a Specific Tensile Strength that is 2.5 times greater! This equates to enhanced jobsite safety, with significant savings in transportation and handling costs. Basalt Rebar is made from volcanic rock and has a coefficient of thermal expansion similar to concrete. This homogeneous behavior reduces the cracking mechanism during extreme temperature fluctuations and or concurrent disparity. Basalt Rebar is engineered to last for over 100 years and is an excellent choice when considering continuous reinforcement that will never rust or require long-term maintenance costs. Unlike steel or other FRP’s. Basalt Rebar is completely impervious to attacks from alkali, chemicals or water. Allowing thinner, lighter panels and decks, Basalt Rebar reduces the thickness and spacing between the rods, concrete and surface. Smaller rods allow for more critical spacing and designs. Basalt Rebar does not conduct electricity or induce fields when exposed to RF energy thus making it great for MRI or data buildings. Basalt Rebar reinforcement is perfect for marine environments and chemical plants where corrosion is a continuous concern. WHITE PAPERS Properties and Applications of Basalt Fiber Composites Download 2. The Influence of Fiber on the Resistance to Chloride-Ion Penetration of Concrete Download White papers

OUR TEAM Christopher Piedmonte President & CEO Matthew Gilfillan EVP & COO Jeff Duwell CFO David Anderson CTO Nony Mbaezue EVP & CRO Marcus Heller EVP | Americas

BENEFITS CONCIOUS CHOICE Basalt Fiber Composite Rebar | BFR Sustainable 100+ year product 100% non-corrosive Rust Proof Superior strength Reduces waste and harmful impact to the environment Reduces installation costs (eliminates costly maintenance) Similar thermal expansion coefficient as concrete; excellent performance in freeze/thaw environments Chemical, alkali and UV resistant Optimal for use in harsh applications Non-conductive, non-magnetic, no RF interference Basalt Rebar Product Comparison Basalt is impervious to attacks from alkali, chemicals or water, which causes steel to corrode or rust Basalt has 25% of the weight of steel and is 2.5 times greater specific tensile strength Basalt has stable pricing, no buy-ups required to secure best pricing compared to steel, which fluctuates Basalt has 2 times the working temperature (400°C vs. 200°C) of Glass FRPs Basalt has 20 – 40% better mechanical properties and puncture resistance than Fiberglass Basalt is very Eco-Friendly, with dramatically lower environmental impact (10 : 1) vs. fiberglass products Basalt fiber has significantly lower cost than carbon fiber (10 – 15X lower) Green building materials for concrete construction Basalt Reinforced Rebar has less than 1/10th the carbon footprint of steel, and basalt has the lowest environmental impact in a Life-Cycle Assessment compared with other FRP (Fiber Reinforced Polymer) rebar for concrete reinforcement construction applications. Basalt fiber is all natural and produced from stone; without additives typically found in other materials such as glass fiber reinforcements.

PROCESS LOWER ENVIRONMENTAL FOOTPRINT MANUFACTURING CYCLE Volcanic Eruption Basalt comes from the formation of volcanic lava and can be found abundantly in many parts of the globe where such seismic events occurred. Basalt Formation Basalt underlies more of the Earth's surface than any other rock type. It is also an abundant rock on the Moon and Mars. Mining Basalt Rock Extracting the rock from the ground in many locations where basalt is found. Gravel Rock Basalt rock at the gravel stage ready to be ground into powder. Basalt Fiber Composite Processed fiber composite ready to be used for extrusion of rebars. Production Line Processing basalt fiber to fabricate composite products. Basalt Composite Rebar Straight Basalt Composite Rebar ready for use in concrete reinforcing structures. Composite Rebar Bed Rebar reinforcement mounted for the pouring of concrete. Concrete Slab-On-Grade Concrete slabs built with basalt composite rebar last a life-time. The Florida Department of Transportation believes in Basalt Composite Rebar.

OVERVIEW CHANGING THE WAY WE BUILD PRODUCTS Basalt Rebar Basalt Mesh Basalt Aditive Basalt Fiber Basalt vs Steel BASALT vs STEEL Remarkable advantages using basalt fiber composite CORROSION-FREE When corrosion is nonexistent the level of construction improves in all areas. HIGHER STRENGTH The strength of fiber composite allows for less use of concrete, thus reducing construction costs. REDUCED CRACKING Less damage to the concrete and longer life to the entire structure. REDUCED CARBON Produces 1/10 of CO2 in the production process and increases transportaion volume by 4 times. REDUCED WEIGTH Being lighter translates into saving in logistics, job-site handling, and a safer product overall. LONGER LIFE SPAN The liability of structural failure and cost of maintenance and repair is significantly reduced as life span increases exponentially. WHAT IS BETTER Strength and Durability: Basalt composite is exceptionally strong and durable, making it suitable for a wide range of applications, including infrastructure, construction, and aerospace. Lightweight: Despite its strength, basalt composite is relatively lightweight compared to traditional concrete, which can facilitate easier handling and transportation during construction. Corrosion Resistance: Unlike steel, basalt composite is resistant to corrosion, making it ideal for use in environments where exposure to moisture or chemicals is a concern, such as marine structures or industrial settings. Fire Resistance: Basalt composite exhibits excellent fire resistance properties, making it a safer option for buildings and structures where fire protection is a priority. Insulating Properties: Basalt composite has good thermal insulation properties, which can contribute to energy efficiency in buildings and reduce heating and cooling costs. Eco-Friendly: Basalt composite is made from natural materials and can be produced with lower energy consumption compared to traditional concrete. Additionally, its longevity and recyclability make it a more sustainable choice. Design Flexibility: Basalt composite can be molded into various shapes and sizes, offering architects and designers greater flexibility in creating innovative and aesthetically pleasing structures. Longevity: Due to its resistance to environmental factors and wear, basalt composite structures have a longer lifespan compared to traditional concrete, reducing the need for frequent maintenance and replacement.

OUR PRODUCTS Rebar Manufacturing Basalt rock at the gravel stage ready to be ground into powder. Rebar inventory Processing Basalt Fiber to fabricate composite products. Rebars ready to ship Straight Basalt Composite Rebar ready for shipping and use in concrete. Pre-bent Shapes Pre-bent formats can be ordered in any shapes or sizes for your projects. Basalt Mesh Mesh for easy installation and the pouring of concrete. Mesh ready for use Concrete slabs built with basalt composite rebar last a life-time.

DEALERS IN YOUR AREA Location Location Location Location Location Location Close AFRICA Company: XFE Africa Contact: Nony Mbaezue Phone: +1 978 444 0043 Email: nony.mbaezue@bluefibergroup.com AMERICAS NORTH AMERICA Company: Blue Fiber Group, Inc. Contact: Chris Piedmonte Phone: +1 978 444 0041 Email: chris.piedmonte@bluefibergroup.com CENTRAL AMERICA & CARIBBEAN Company: XFE Contact: Marcus Heller Phone: +1 978 444 0048 Email: marcus.heller@bluefibergroup.com SOUTH AMERICA Company: XFE Brazil Contact: Marcus Heller Phone: +1 978 444 0048 WA : +1 310 760 1278 Email: marcus.heller@bluefibergroup.com ASIA PACIFIC Company: Blue Fiber Group, Inc. Contact: Chris Piedmonte Phone: +1 978 444 0041 Email: chris.piedmonte@bluefibergroup.com EUROPE Company: Blue Fiber Group, Inc. Contact: Chris Piedmonte Phone: +1 978 444 0041 Email: chris.piedmonte@bluefibergroup.com MIDDLE EAST Company: Blue Fiber Group, Inc. Contact: Nony Mbaezue Phone: +1 978 444 0043 Email: nony.mbaezue@bluefibergroup.com Africa Amercas Asia Pacific Europe Middle East

COMPANY HOW WE'RE DOING IT OUR MISSION Bringing basalt composite products to worldwide markets through local representation to enhance concrete construction efforts by reducing maintenance, logistics, replacement costs, and improving overall product quality. Experienced and Reliable Our experienced team of application and product experts are here to help you design your project and select the perfect products to get the job done. Quality Products We are experts in the field of basalt fiber construction products and leading the way in basalt fiber enhanced construction, including reinforced concrete and other applications. Global Reach, Local Service We are a global company with affiliated manufacturers and licensees in development throughout the world. Interested in joining us by operating one of our facilities? Get in touch!