Mycelium Brick Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Product Type (Pure mycelium bricks, Mycelium agricultural waste composites, Mycelium wood waste composites, Others), By Form (Bricks & Blocks, Panels & Boards, Insulation Materials, 3D printed or custom forms, Others), By Application (Residential, Commercial, Institutional & Public Buildings, Others), By Region, and By Competition, 2020-2030F

Market Overview

Global Mycelium Brick Market was valued at USD 1.18 Billion in 2024 and is expected to reach USD 1.85 Billion by 2030 with a CAGR of 7.59% during the forecast period.

The global Mycelium Brick Market is gaining rapid traction as sustainable construction practices continue to reshape the building materials industry. Mycelium, the root-like structure of fungi, is being increasingly explored for its ability to produce biodegradable, lightweight, and insulating bricks that offer a compelling alternative to conventional materials such as concrete, plastic, and foam. As environmental concerns and carbon reduction commitments rise, developers, architects, and governments are turning to eco-innovative materials like mycelium composites to reduce construction-related emissions and promote circular economies. The market is driven by key advantages of mycelium bricks, including their fire resistance, thermal insulation properties, lightweight composition, and ability to be grown from agricultural and organic waste, thus significantly lowering raw material costs and carbon footprint.

Technological advancements and growing research and development investments are accelerating product innovation in this space. Leading companies such as Ecovative Design, Mogu S.r.l., MycoWorks, and Biohm are pioneering the development of durable, mold-resistant, and structurally stable mycelium bricks suited for a range of applications in residential and commercial construction. These materials are also being used in interior architecture, modular structures, acoustic panels, and even temporary art installations. A growing number of startups and research labs are entering the market, attracted by the scalability potential of low-energy, low-cost biofabrication techniques. Moreover, government support in the form of green building certifications, carbon offset incentives, and sustainability mandates is creating a favorable regulatory landscape, particularly in North America and Europe.

Key Market Drivers

Reduced Environmental Impact

Mycelium bricks offer a significantly lower environmental footprint compared to conventional building materials, making them attractive for sustainable construction practices. The production of mycelium-based materials requires only about 7.7 MJ of energy per kilogram, compared to approximately 83.5 MJ/kg for synthetic insulation products—reflecting a more than 90% reduction in energy consumption. The carbon emissions associated with their production are also considerably lower, emitting just 0.37 kg CO₂ per kg, which is about 45% less than petroleum-based alternatives. When used as insulation in walls, these materials can reduce a building’s operational greenhouse gas emissions by 72–73% annually. In construction envelopes, mycelium bricks contribute up to 89% of total thermal resistance in masonry systems and 91% in timber-frame systems, underscoring their efficiency. Additionally, scaling production from laboratory to industry level can reduce overall environmental impact by another 68%, strengthening the market's drive toward decarbonization and eco-certification alignment.

High Thermal and Acoustic Insulation Performance

Mycelium bricks provide strong thermal and acoustic insulation, which is essential for energy-efficient buildings. When applied at an 8 cm thickness, they can reduce heating energy use by 87.4% in winter and cooling loads by 55.9% in summer. By optimizing thickness, total HVAC-related energy savings can reach up to 93%, depending on the climate zone. In walls, they can reduce yearly CO₂ emissions by as much as 72%. Thermal conductivity is significantly lower than many traditional materials; adding 15% mycelium to composites reduces conductivity from 0.77 W/m·K to 0.29 W/m·K, achieving a 62% reduction. On the acoustic side, these materials can absorb 70–75% of frequencies under 1500 Hz, making them well-suited for commercial and residential applications requiring sound control. Their dual-function as a thermal and acoustic insulator makes mycelium bricks especially valuable in urban green building designs.

Cost-Efficiency and Lightweight Benefits

Mycelium bricks utilize low-cost inputs, primarily agricultural residues like straw, coir, or sawdust, which can reduce raw material costs by up to 90% compared to conventional construction materials. Energy demand during production is extremely low—just 7.7 MJ/kg, compared to synthetic materials requiring tenfold energy input. Mycelium bricks are lightweight, often 50–60% lighter than concrete or fired-clay bricks, lowering transport and labor costs. Their production process consumes 40% less electricity and 90% less water than conventional materials such as polystyrene, contributing to long-term operational cost savings. Production cycles are also shorter, with full brick growth and curing possible in 5–7 days, accelerating project timelines. These economic advantages make mycelium bricks especially attractive for affordable housing, modular buildings, and prefabricated architecture where material efficiency and speed are critical.

Regulatory Support and Green Building Policies

Global policy shifts are increasingly supporting bio-based construction materials such as mycelium bricks. Green building codes now emphasize energy efficiency and low-embodied carbon, where mycelium excels. In building walls, insulation typically contributes to 89–91% of thermal resistance, making it a primary focus of energy regulations. Policy-driven goals to reduce embodied carbon are pushing for 20–25% substitution of conventional materials with renewable alternatives. Mycelium-based products can also meet fire safety standards and sound insulation requirements, with performance ratings showing up to 75% sound absorption at 1000 Hz and achieving moderate fire resistance classifications. In regions with active green certification programs, such as LEED or BREEAM, builders are increasingly adopting mycelium products to earn sustainability credits. As governments commit to net-zero targets and mandate carbon reductions in construction, the role of fungal-based composites in meeting compliance goals is expanding rapidly.

Design Flexibility and Modular Innovation

The versatility of mycelium bricks is a strong driver for architects and builders aiming for custom, modular, or artistic structures. Mycelium can be grown into any moldable shape, eliminating the need for post-processing and enabling seamless integration into customized designs. Brick formation takes just 5 to 7 days, significantly faster than traditional materials that require energy-intensive firing or curing. Mycelium was successfully used in a large-scale architectural project featuring 10,000 biodegradable blocks in a 40-foot tall tower, showcasing its potential in structural applications. The material’s lightweight nature—often 30–50% lighter than conventional bricks—facilitates easy handling, stacking, and transport. Its acoustic absorption rate of 70–75% for mid-range frequencies supports its use in interior design and sound-sensitive environments. Additionally, its fire-resistance and anti-fungal properties allow it to meet safety standards for indoor use. These benefits are propelling its use in prefab architecture, exhibition pavilions, green office designs, and even luxury eco-resorts.

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Key Market Challenges

Limited Structural Strength for Load-Bearing Applications

One of the most critical challenges faced by the global Mycelium Brick Market is its limited structural strength, which restricts its use to non-load-bearing applications. Mycelium bricks are lightweight and eco-friendly but lack the compressive strength typically required for load-bearing walls or foundations. While traditional fired clay bricks or concrete blocks can withstand pressures exceeding 10–20 MPa, mycelium bricks usually exhibit compressive strength in the range of 0.2–1 MPa depending on composition and fabrication. This limitation makes them unsuitable for structural elements in high-rise or seismic-prone constructions.

This challenge significantly narrows the customer base to niche segments such as interior walls, decorative panels, acoustic insulation, and temporary architecture. Builders and contractors tend to be cautious with new materials, and the absence of well-established building codes that accept mycelium bricks as structural components exacerbates the problem. Additionally, insurance companies and regulators often require proven mechanical properties for approval in residential and commercial construction.

While R&D is ongoing to reinforce mycelium with natural fibers or bio-binders to improve its strength, current solutions remain costly or lack scalability. As a result, widespread adoption of mycelium bricks for structural purposes remains constrained, which limits revenue growth and investment appeal in mainstream construction. Unless major breakthroughs are achieved, this challenge will continue to impede full integration of mycelium materials into the broader construction materials market.

Short Shelf Life and Storage Sensitivity

Mycelium bricks, being biological and biodegradable, are naturally prone to decomposition if not properly dried, sealed, and stored. This characteristic, while beneficial for eco-friendly disposal, creates challenges related to shelf life and storage, particularly in humid or tropical climates. Exposure to moisture or poor ventilation can lead to premature fungal regrowth, mold formation, or weakening of the brick’s internal structure.

Manufacturers often need to subject mycelium bricks to heat treatment or dehydration to prevent microbial activity. However, these additional steps raise production costs and energy usage, partially offsetting the material’s sustainability advantage. Moreover, the lack of standardized post-treatment techniques across manufacturers creates quality inconsistency in the final product.

In distribution and warehousing, special care must be taken to maintain dry, cool conditions, adding to logistical expenses. Extended shelf life is critical for global shipping, especially for export-focused companies. In the absence of well-established cold chain logistics for construction materials, retailers may hesitate to stock mycelium bricks, fearing product degradation or return complaints.

This fragility also affects large-scale procurement for infrastructure or institutional projects, where material delivery must align with phased construction schedules. The fear of spoilage or brittleness over time often leads to lower adoption in public tenders. Until significant improvements are made in preservation technologies or on-site growing techniques, the issue of limited shelf life will continue to be a major hurdle for market scalability and reliability.

Lack of Regulatory Standardization

The global Mycelium Brick Market faces a significant challenge due to the absence of comprehensive and universally accepted regulatory standards. Most countries lack specific building codes or safety certifications tailored to bio-fabricated construction materials like mycelium. As a result, approval for construction projects using these materials often becomes complex, time-consuming, and expensive.

Without clear testing protocols for fire resistance, structural integrity, and long-term durability, many government bodies hesitate to include mycelium bricks in public infrastructure projects. The same uncertainty affects architects and contractors, who prefer working with code-compliant, pre-certified materials. The inconsistent or nonexistent regulatory framework makes it difficult for startups and manufacturers to scale operations across borders.

In addition, insurance companies are reluctant to underwrite properties made with materials not backed by proven performance data. This lack of confidence further slows adoption. While some countries have begun promoting green materials, most certifications—like LEED or BREEAM—offer only indirect support and don’t specifically include mycelium-based products under recognized categories.

To address this, industry coalitions or standard-setting bodies must collaborate to develop technical specifications, quality benchmarks, and durability indices. Until such protocols are implemented, the absence of regulation will continue to create uncertainty, limit procurement opportunities, and dampen investor interest in mycelium brick enterprises—especially in more risk-averse markets such as North America and the Middle East.

High Production Costs and Limited Economies of Scale

Despite their environmental benefits, mycelium bricks remain more expensive than conventional construction materials due to high production costs and limited industrial-scale manufacturing. Currently, most mycelium bricks are produced in small batches or pilot facilities, which drives up labor and energy costs per unit. Additionally, the time-intensive growing process (typically 5–10 days per brick) reduces throughput compared to conventional kilning or extrusion methods used in clay and concrete manufacturing.

The lack of automated bio-fabrication infrastructure further limits production efficiency. Processes like sterilization of substrates, growth environment control, and post-processing treatments require manual handling or specialized equipment. While such precision is necessary to maintain quality and consistency, it adds to capital and operational expenditure, making the end product less competitive in price-sensitive markets.

Furthermore, the supply chain for key components—such as high-quality fungal strains, sterilized agricultural residues, or custom molds—is still in its infancy. This increases input costs and makes it difficult to achieve volume discounts. As a result, the final price of a mycelium brick can be 30–100% higher than that of traditional bricks, depending on geography and application.

Unless scalable bio-manufacturing technologies or decentralized production hubs are developed, it will remain difficult for producers to reduce cost per unit. This pricing disadvantage hinders adoption, especially in regions where affordability is a primary concern, such as affordable housing or rural construction markets.

Limited Awareness and Skilled Workforce

Awareness of mycelium bricks and their applications remains low outside of academic circles and eco-conscious design firms. The broader construction industry—especially in developing countries—has limited exposure to bio-based materials. Most civil engineers, architects, and contractors are trained to work with concrete, steel, or wood, and lack familiarity with mycelium’s unique handling, curing, and design characteristics.

The knowledge gap is compounded by a shortage of skilled workers who understand how to grow, mold, and preserve mycelium composites. Unlike traditional materials that rely on mechanical mixing and shaping, mycelium requires biological nurturing in controlled environments. Mistakes during cultivation can lead to incomplete colonization, weak structures, or contamination.

This shortage of skilled talent increases labor costs and reduces the likelihood of consistent product quality. Construction firms also hesitate to train workers for a niche product that hasn’t yet achieved mainstream status. As a result, deployment is limited to experimental projects or custom installations, rather than standardized workflows.

The challenge is further amplified in emerging markets, where vocational training and R&D support for green construction materials are lacking. Without institutional support for curriculum development or awareness campaigns, the industry may struggle to build a talent pipeline capable of supporting large-scale mycelium brick deployment.

Key Market Trends

Integration into Green Building Certifications and ESG Goals

As global investors and developers increasingly align with Environmental, Social, and Governance (ESG) frameworks, there is a growing demand for materials that actively reduce environmental impact. Mycelium bricks, being compostable, low-emission, and produced from agricultural waste, are gaining traction among companies seeking green building certifications such as LEED, BREEAM, WELL, and Living Building Challenge.

These certifications often reward the use of renewable, low-carbon, and non-toxic materials in construction projects. While mycelium bricks are still emerging, their potential to replace chemically intensive insulation panels or synthetic acoustic tiles makes them attractive in projects aiming for higher sustainability scores. Architects and designers are beginning to specify mycelium-based panels and bricks in projects targeting platinum or gold ratings, even if only for interior cladding, ceiling panels, or decorative partitions.

Moreover, ESG-conscious investors are actively seeking supply chains that demonstrate biodiversity preservation, waste valorization, and minimal carbon output. Mycelium brick manufacturing—if scaled responsibly—checks all these boxes, making it attractive for venture capital firms, green infrastructure funds, and public procurement agencies.

Many companies are also including material traceability and life cycle analysis (LCA) as part of their procurement mandates. Mycelium bricks, grown with full transparency and minimal emissions, enable easier compliance with such corporate standards. This is accelerating experimentation in corporate campuses, educational institutions, and municipal buildings.

In summary, the rise of ESG and sustainability-led investment strategies is pushing companies to adopt biogenic materials like mycelium bricks—not just for environmental compliance but as a branding and market positioning tool. This trend is expected to fuel demand in sectors where sustainability is becoming non-negotiable.

Growing Demand in Interior and Temporary Architecture Segments

Due to their lightweight nature, customizability, and biodegradability, mycelium bricks are finding strong demand in niche architectural segments such as interior applications, temporary structures, pop-up installations, and event-based constructions. Designers are drawn to their natural aesthetic, organic textures, and insulation properties, which make them highly suitable for creative interior designs and wellness-oriented spaces.

In museums, exhibition halls, and corporate events, where temporary installations need to be visually engaging yet sustainable, mycelium bricks offer a compelling alternative to foam, plastics, or MDF panels. They can be grown into specific shapes or combined with bio-resins for added strength, allowing for stunning, biodegradable displays that leave no waste footprint post-event.

In residential construction, mycelium bricks are being used for feature walls, acoustic ceiling panels, decorative room dividers, and indoor planters. These applications require lower structural strength but high visual impact—areas where mycelium thrives. Their ability to be molded into intricate forms enables architects to push the boundaries of traditional materials and deliver unique, earthy interiors aligned with biophilic design trends.

Additionally, educational institutions and experimental housing projects are using mycelium for modular classrooms, disaster shelters, or emergency housing units that can be deployed quickly and decomposed safely. Their low weight also makes transportation cost-effective, especially in off-grid or remote locations.

This shift from structural to aesthetic or short-duration applications is helping mycelium bricks carve out a viable market niche, offering proof-of-concept that could later expand into more permanent building uses. As more designers and clients prioritize sustainability and flexibility, demand in these segments is expected to rise steadily.

Technological Innovations in Mycelium Growth and Composite Engineering

Rapid advancements in biotechnology and materials engineering are transforming the mycelium brick market. Startups and research labs are developing enhanced mycelium composites by combining fungal growth with fibers like hemp, flax, jute, or biochar, thereby improving mechanical strength, water resistance, and insulation performance. These innovations are addressing some of the historical limitations of the material.

Controlled environment agriculture (CEA) techniques are also being applied to optimize fungal growth conditions—automating temperature, humidity, and light exposure to ensure faster colonization and consistency. AI-driven monitoring systems are being tested to reduce human intervention and enable precision growth cycles, which can lead to scale efficiencies.

On the materials side, hybrid mycelium formulations—where mycelium is fused with natural polymers or reinforced with nanocellulose—are emerging. These composites not only boost physical performance but also expand the range of applications, from structural panels to waterproof cladding. The possibility of tuning mycelium’s properties based on end use is opening doors to customizable building components.

3D-printing with mycelium paste or pre-formed mycelium molds is another breakthrough being explored. These techniques allow designers to achieve intricate forms and reduce waste, with implications for modular construction and prefabricated eco-homes.

These innovations are also making it easier for manufacturers to secure funding and partnerships with universities, venture capital firms, and green building companies. As R&D matures, the cost-performance ratio of mycelium bricks is expected to improve, accelerating their commercialization across both developed and developing markets.

Increased Use in Carbon-Neutral and Off-Grid Housing Projects

The global push toward carbon-neutral housing and off-grid living is boosting interest in alternative construction materials like mycelium bricks. These projects often prioritize low-energy manufacturing, locally sourced inputs, and minimal environmental footprint—criteria that mycelium bricks naturally fulfill.

Builders focused on net-zero energy buildings are seeking alternatives to carbon-intensive materials like concrete, steel, and glass. Mycelium bricks, grown using agricultural waste and minimal energy, offer a practical solution. They not only store carbon during growth but also require no mining, kilning, or chemical treatment, making them ideal for carbon-neutral architecture.

Off-grid housing developers—particularly in eco-resorts, sustainable tourism, or rural revitalization initiatives—are increasingly experimenting with biodegradable and renewable construction modules. Mycelium bricks can be locally cultivated using farming residues, making them suitable for regions with limited access to industrial infrastructure.

In some cases, communities are even using on-site mycelium growth systems, where bricks are cultivated at the building site using locally available substrates and spore cultures. This decentralization reduces logistics costs and fosters community ownership of the construction process.

Moreover, the bricks’ thermal and acoustic insulation capabilities are ideal for structures in both temperate and hot climates. Their breathability and low toxicity align with wellness design standards, enhancing indoor air quality.

This trend is particularly strong in Europe, Southeast Asia, and parts of Latin America where eco-tourism, green housing policies, and sustainable community development are on the rise. As awareness and cost-efficiency improve, mycelium bricks could become a cornerstone material for the next generation of regenerative, circular, and resilient housing models.

Segmental Insights

Product Type Insights

Pure mycelium bricks segment dominates in the Global Mycelium Brick market in 2024 primarily driven by its sustainability profile, lightweight nature, and increasing demand for biodegradable construction materials. Unlike composite versions that mix mycelium with other fibers or substrates, pure mycelium bricks are composed almost entirely of fungal mycelium grown on organic waste, ensuring they are 100% biodegradable and free of synthetic binders. This characteristic has positioned them as the material of choice for green-certified buildings, temporary structures, and low-impact housing models.

One of the primary factors boosting demand is the growing adoption of circular construction and bio-fabrication models, particularly in Europe and North America, where government policies strongly support eco-friendly building materials. Pure mycelium bricks typically have a density of around 200–300 kg/m³, making them five to seven times lighter than traditional clay or concrete bricks, easing transportation and installation. Moreover, their excellent thermal and acoustic insulation properties make them attractive in energy-efficient architecture.

Architectural applications such as modular pavilions, art installations, and temporary housing are increasingly choosing pure mycelium due to its 5–7 day rapid growth cycle, low embodied energy, and post-use compostability. In comparison to composites, which often require additional processing or chemical treatments, pure mycelium bricks maintain their structural and ecological integrity with minimal external intervention.

Furthermore, technological improvements in controlled-environment cultivation have enhanced the mechanical stability and uniformity of pure bricks, allowing them to meet performance benchmarks for non-load-bearing walls, insulation panels, and green facades. In 2024, increased awareness and pilot projects—particularly in university-led sustainability initiatives and architecture expos—helped elevate this segment’s visibility and scalability, cementing its leadership position in the market.

Form Insights

Bricks & Blocks segment dominated the Global Mycelium Brick market in 2024 due to its adaptability to conventional construction formats. Builders and designers are increasingly using standardized mycelium bricks and blocks for partition walls, cladding, acoustic barriers, and thermal insulation layers. Their modularity and compatibility with traditional masonry techniques accelerated adoption across residential, commercial, and institutional projects. Additionally, their lightweight structure, fast growth time, and ease of transport made them ideal for prefabrication and sustainable architecture prototypes. The segment benefited from significant use in green-certified buildings and temporary structures, pushing demand higher than panels and custom forms.

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Regional Insights

Largest Region

North America dominates the Global Mycelium Brick market in 2024 propelled by strong environmental regulations, rising sustainable construction demand, and a flourishing biodesign ecosystem. The United States and Canada have witnessed a surge in pilot projects integrating mycelium-based building materials, particularly in sectors like modular housing, disaster-relief shelters, and public installations. Government initiatives such as LEED (Leadership in Energy and Environmental Design) and California’s low-carbon construction mandates have accelerated the adoption of low-impact materials like mycelium bricks.

A robust R&D infrastructure—anchored by institutions such as MIT, Stanford, and the University of British Columbia—has played a pivotal role in optimizing mycelium growth conditions, developing novel formulations, and scaling production systems. In 2024, many North American startups commercialized pure mycelium and hybrid bricks, with consistent funding from sustainability-focused venture capital firms. The average production time per mycelium unit has decreased to under 10 days in well-optimized U.S. facilities, increasing output volumes significantly.

The region also benefits from high public awareness of eco-conscious living and circular economies. Green building certifications, which are mandatory for several public projects, emphasize VOC-free, biodegradable, and low-embodied-energy materials—all strengths of mycelium bricks. Furthermore, local governments across California, Oregon, and New York have funded trials to integrate mycelium-based construction materials into municipal housing and civic infrastructure.

In terms of applications, North America saw a rise in mycelium bricks being used for sound-insulating office partitions, temporary disaster shelters, mobile construction units, and artistic installations. A growing network of myco-material manufacturers and waste biomass suppliers also supports a well-integrated local value chain, keeping production sustainable and cost-competitive. Overall, North America’s mix of policy support, innovation leadership, and early consumer acceptance has solidified its dominance in the global mycelium brick market.

Emerging Region

Europe is the emerging region in the Global Mycelium Brick market in the coming period due to its aggressive climate policies, focus on circular economy principles, and public-private support for bio-based construction. EU regulations now encourage carbon-neutral materials, with countries like the Netherlands, Germany, and Denmark hosting major mycelium R&D pilots and live architecture installations. Academic institutions and green architecture firms collaborate to build low-emission homes and modular structures using mycelium bricks. Additionally, Europe’s rising urban sustainability goals and EU Bioeconomy Strategy are pushing the adoption of alternatives to cement and traditional bricks, positioning the region for substantial market expansion in the coming years.

Recent Developments

• In July 2024, the Haryana government's decision to permit construction up to stilt plus four floors in residential sectors is expected to stimulate housing demand in Gurgaon and mitigate rising property prices, according to experts. This reversal, following last year's prohibition on constructing fourth floors, is anticipated to open avenues for both homebuyers and developers. It will bolster supply in sought-after locations such as Gurgaon, thereby fostering a favorable environment for the real estate market and prospective homeowners alike.
• In November 2024, Emaar India had invested approximately USD 116 million to construct a new luxury housing project in Gurugram, driven by strong demand for premium residential properties. The company had launched the 'Amaris' project in Sector 62 along the Golf Course Extension Road in Gurugram. The project aimed to develop 522 apartments across a 6.2-acre site, with a total development potential of 15 lakh square feet. The estimated total revenue potential from the project was around USD 291 million.
• In October 2024, KBC Global Ltd, a key player in construction and real estate, had announced the commencement of a new project in Deolali, Nashik. Located at Survey No. 87/2/2B, Plot No. 4, on Jai Bhavani Road, the project spanned over a 31,998 sq. ft. area and included both residential and commercial spaces. With six commercial units and twenty-two residential units, this project reinforced KBC Global's commitment to supporting the local community through thoughtfully planned infrastructure.
• In November 2024, NBCC (India) Ltd, the government of India’s construction company, had sought to take on the role of a developer and expand its presence in the real estate sector. The company aimed to undertake the redevelopment of state projects and distressed assets with the goal of more than doubling its revenue to USD 2911 million over the next five years.

Key Market Players

• Ecovative Design
• Mogu S.r.l.
• MycoWorks
• Biohm
• GROWN bio
• Mycotech
• Biomyc Ltd
• Mushroom Material LLC
• Mycelia NV / BVBA
• Mushlabs GmbH

Report Scope:

In this report, the Global Mycelium Brick Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

•  Mycelium Brick Market, By Product Type:

o   Pure mycelium bricks

o   Mycelium agricultural waste composites

o   Mycelium wood waste composites

o   Others

• Mycelium Brick Market, By Form:

o   Bricks & Blocks

o   Panels & Boards

o   Insulation Materials

o   3D printed or custom forms

o   Others

• Mycelium Brick Market, By Application:

o   Residential

o   Commercial

o   Institutional & Public Buildings

o   Others

• Mycelium Brick Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Mycelium Brick Market.

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Company Information

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