Structural Truss Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented, By Type (Simple Truss, Complex Truss), By Material (Steel, Aluminum), By Application (Residential Construction, Commercial Construction), By Load Type (Dead Load, Live Load), By Region, By Competition, 2020-2030F

Market Overview

The Structural Truss Market was valued at USD 5.98 Billion in 2024 and is expected to reach USD 8.91 Billion by 2030 with a CAGR of 6.71%. The structural truss market refers to the global industry involved in the design, manufacturing, and installation of truss systems used to support and stabilize structures in residential, commercial, industrial, and infrastructure construction. A structural truss is a framework composed of triangular units constructed with straight members, typically made from wood, steel, or aluminum, and connected at joints to form a stable and load-bearing structure. Trusses are widely used for their ability to span large distances while distributing loads efficiently, reducing material usage, and ensuring structural integrity.

Key Market Drivers

Growing Demand for Sustainable and Prefabricated Construction Solutions

The global structural truss market is experiencing robust growth driven by the increasing demand for sustainable and prefabricated construction methods. Structural trusses, particularly those made of wood or light-gauge steel, are integral to modular and green building systems due to their efficiency, strength-to-weight ratio, and minimal material waste. As governments and private sectors place greater emphasis on eco-friendly construction practices and carbon footprint reduction, the use of pre-engineered trusses becomes more favorable. These trusses are fabricated offsite in controlled environments, resulting in higher precision, less onsite labor, and reduced construction timelines—all of which align with sustainability goals.

The adoption of prefabricated trusses also minimizes errors, reduces material overuse, and allows for the efficient recycling of construction waste. Moreover, sustainable forestry initiatives and certified lumber production are enhancing the environmental appeal of timber trusses, attracting green developers and LEED-certified projects. Additionally, regulatory frameworks promoting green buildings and energy efficiency are pushing construction stakeholders toward structural solutions that support quick assembly and structural integrity.

The ease of integrating structural trusses with building information modeling (BIM) and computer-aided design (CAD) tools further supports sustainable planning and accurate lifecycle analysis. As urbanization accelerates and cities aim to meet growing housing and infrastructure needs without compromising environmental goals, structural trusses offer a compelling combination of strength, economy, and environmental responsibility, making them a preferred choice for modern construction. Global prefabricated construction output grew by over 7% annually between 2020 and 2024, driven by faster build times and reduced environmental impact. As of 2024, more than 30% of new buildings in developed countries incorporate prefabricated components to improve efficiency and sustainability. Prefabrication can reduce construction waste by up to 60%, making it a key strategy in sustainable building practices worldwide. The global construction sector is responsible for nearly 40% of energy-related CO₂ emissions, pushing the shift toward low-carbon prefabricated solutions. Modular construction methods can cut project timelines by 20–50%, helping meet growing urban housing and infrastructure demands. In 2023, over 12 million square meters of modular housing were installed globally, particularly in urban and disaster-prone areas.

Rapid Infrastructure Development and Urbanization in Emerging Economies

Structural trusses are becoming increasingly vital in the rapid urbanization and infrastructure expansion occurring across emerging economies in Asia, Latin America, and Africa. These regions are witnessing significant investments in public infrastructure projects such as bridges, airports, railways, educational institutions, and healthcare facilities, all of which require efficient and reliable load-bearing frameworks.

Structural trusses provide high load-bearing capacity while being lightweight and cost-effective, making them an ideal solution for large-span structures and complex architectural designs. Governments in countries like India, Indonesia, Brazil, and Nigeria are launching infrastructure initiatives to support growing populations and economic development, thereby fueling the demand for innovative construction solutions such as trussed roofing and long-span framing systems. In addition to public works, the rapid expansion of residential and commercial real estate in urban centers is contributing to the market’s growth, as developers look for structural systems that offer speed, flexibility, and compliance with modern design standards.

The increasing adoption of steel trusses in high-rise and industrial buildings due to their durability and resistance to seismic and wind loads also supports this trend. Furthermore, favorable government policies, foreign direct investments, and public-private partnerships in infrastructure development are improving access to construction materials and technologies in these markets. As a result, manufacturers of structural trusses are expanding operations, forming local partnerships, and tailoring product lines to meet the specific needs of regional construction environments. The consistent demand for fast, cost-effective, and structurally sound building methods in growing cities ensures the sustained relevance and expansion of the structural truss market. Over 56% of the global population currently lives in urban areas, and this figure is expected to rise to 68% by 2050, driving massive demand for housing and infrastructure. An estimated 2.5 billion people are projected to be added to urban populations by 2050, with nearly 90% of the increase concentrated in Asia and Africa. Global cities need to build an average of 96,000 new housing units per day until 2030 to meet rising urban housing demand. In developing regions, over 60% of urban dwellers live in informal settlements, highlighting a growing gap between housing supply and demand. The world is adding approximately 150 million urban residents every year, placing significant strain on existing urban housing and public services. By 2030, around 40% of global housing demand will come from urban middle-income groups seeking affordable yet quality living options.

Advancements in Engineering Design and Fabrication Technologies

Technological innovations in engineering design, materials science, and fabrication methods are significantly driving growth in the structural truss market. The adoption of advanced software tools such as finite element analysis (FEA), BIM (Building Information Modeling), and 3D structural modeling has revolutionized the way structural trusses are designed, analyzed, and integrated into modern construction projects. These tools allow engineers to optimize truss configurations for strength, efficiency, and material usage, while also enabling seamless collaboration between architects, structural engineers, and contractors.

Automation in manufacturing processes, including CNC machining, robotic welding, and laser cutting, has further improved the precision and scalability of truss production. These advancements reduce labor costs, minimize material waste, and enhance quality control, making trusses more competitive and reliable for a wide range of applications. Innovations in materials—such as high-tensile steel alloys, engineered wood products (like LVL and glulam), and corrosion-resistant coatings—are expanding the durability and performance of trusses in challenging environments. Moreover, integrated structural systems that combine trusses with other framing components are gaining popularity for their adaptability and ease of installation.

The evolution of connector technologies, fasteners, and truss plates has also contributed to faster assembly times and increased structural safety. In industrial and commercial construction, the ability to fabricate complex truss geometries to accommodate HVAC systems, lighting, and other utilities further enhances their value. As construction becomes more digitalized and projects demand greater efficiency and customization, the structural truss market benefits from these technological strides, positioning itself as a cornerstone in the advancement of modern, high-performance building solutions.

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Key Market Challenges

Fluctuations in Raw Material Prices

One of the major challenges facing the structural truss market is the high volatility in the prices of raw materials, particularly steel and timber. Structural trusses are primarily constructed using steel or engineered wood, and the global prices of these materials are subject to frequent fluctuations due to various factors such as geopolitical tensions, supply chain disruptions, trade policies, and inflationary pressures. These fluctuations directly impact the cost of production for truss manufacturers, creating uncertainty in pricing strategies and profit margins.

When material prices spike, manufacturers are often unable to immediately pass on these costs to consumers due to fixed project budgets or contractual limitations, leading to reduced profitability. Additionally, frequent cost changes can make long-term project planning and forecasting difficult for both producers and end users, particularly in large-scale infrastructure or commercial developments. Procurement challenges also arise, as companies may face shortages or delays in acquiring materials at competitive rates, especially during global supply disruptions like those experienced during the COVID-19 pandemic or due to restrictions on timber exports in some regions.

These constraints force manufacturers to maintain higher inventory levels as a buffer, which increases storage and capital holding costs. Furthermore, price volatility complicates relationships with suppliers and contractors, who may have differing expectations on delivery timelines and costs, potentially leading to contractual disputes or project delays. The impact is also felt by small and mid-sized players who lack the financial resilience to absorb sudden cost increases, placing them at a disadvantage compared to larger companies that can leverage bulk purchasing or vertical integration.

To mitigate this, businesses are compelled to invest in hedging strategies or long-term supplier contracts, which may not always be feasible or effective in rapidly changing markets. The unpredictability in raw material prices thus not only affects the cost structure and profitability of manufacturers but also adds risk to the entire supply chain and deters investment in long-term projects. This market challenge underscores the need for improved supply chain resilience, diversified sourcing strategies, and innovative material alternatives that can help reduce dependency on traditional raw materials and cushion the impact of market instability.

Skilled Labor Shortages and Technological Gaps

Another significant challenge in the structural truss market is the persistent shortage of skilled labor combined with the slow adoption of advanced manufacturing technologies. The construction and structural engineering sectors rely heavily on skilled workers such as welders, carpenters, truss designers, and assemblers to ensure high-quality fabrication and installation of truss systems. However, many regions are experiencing a declining labor pool due to an aging workforce, lack of vocational training, and low interest among younger generations in trades-based careers.

This shortage impacts production timelines, increases labor costs, and raises the risk of construction errors or quality issues, particularly in complex projects requiring precise assembly and alignment. At the same time, while automation and digital fabrication technologies like computer-aided design (CAD), CNC machines, and BIM (Building Information Modeling) offer significant efficiency gains, many small and medium-sized enterprises (SMEs) in the structural truss market have been slow to adopt these innovations due to high upfront investment costs, lack of technical expertise, and limited digital infrastructure.

This technology lag leads to inefficiencies in design, longer lead times, and increased material waste. Moreover, the integration of new technologies requires workforce upskilling, which presents a further hurdle in regions with limited training facilities or government support for technical education. As a result, the combination of labor shortages and insufficient technological adoption hampers the scalability, productivity, and competitiveness of truss manufacturers, particularly in fast-growing markets where demand for prefabricated and customized solutions is rising. This issue is compounded by growing client expectations for faster project delivery and higher design precision, which puts pressure on manufacturers to modernize their operations despite internal resource constraints.

The lack of skilled labor also affects on-site installation, leading to delays or structural issues that can damage reputations and lead to legal or financial repercussions. To address this challenge, industry stakeholders must invest in workforce development programs, encourage greater collaboration between educational institutions and manufacturers, and explore public-private partnerships to promote digital transformation. Without such coordinated efforts, the structural truss market may struggle to meet future demand and maintain consistent quality, especially in large infrastructure and urban development projects where precision and efficiency are paramount.

Key Market Trends

Increasing Adoption of Prefabricated and Modular Construction Techniques

One of the most significant trends shaping the structural truss market is the rising adoption of prefabricated and modular construction methods across residential, commercial, and industrial sectors. As construction companies face mounting pressure to improve project timelines, reduce waste, and address labor shortages, off-site manufacturing of structural elements such as trusses is gaining traction.

Prefabricated trusses, produced in controlled factory settings, offer superior quality, consistency, and precision compared to those fabricated on-site. These systems allow builders to reduce construction time by minimizing on-site assembly and enabling faster structural framing. The use of modular construction further amplifies this efficiency by allowing entire sections of buildings—including walls, roofs, and floors—to be assembled in parallel with site preparation. As a result, developers and contractors are increasingly specifying engineered trusses in their building designs to take full advantage of speed, cost, and sustainability benefits. Additionally, advancements in Building Information Modeling (BIM) are supporting this trend by facilitating more precise truss engineering and coordination across disciplines.

This integration ensures fewer errors and modifications during construction, enhancing the attractiveness of prefabricated trusses. Governments and urban planners are also recognizing the benefits of modular techniques for housing development and disaster recovery efforts, further reinforcing demand. As cities grow and space becomes limited, the ability to build vertically and efficiently using pre-engineered truss systems becomes a competitive advantage. These trends are driving sustained investment and innovation in truss manufacturing technologies, particularly for wood, steel, and hybrid composite trusses, which are increasingly being adapted for modular building platforms.

Growing Emphasis on Sustainable and Energy-Efficient Building Materials

The structural truss market is also being shaped by the global push toward sustainability and energy-efficient construction practices. With heightened awareness of climate change and increasing regulatory pressure to reduce carbon emissions, builders and developers are seeking materials and systems that support green building certifications and long-term environmental goals. Structural trusses, particularly those made from sustainably sourced engineered wood products, are emerging as eco-friendly alternatives to traditional steel and concrete framing.

Engineered wood trusses such as LVL (Laminated Veneer Lumber) and glulam not only reduce environmental impact through lower embodied energy but also provide thermal advantages that contribute to overall building energy performance. Additionally, lightweight truss systems reduce transportation and on-site handling costs, further lowering the carbon footprint. Manufacturers are innovating with recyclable and low-VOC materials, optimizing truss designs for reduced material usage without compromising structural integrity. The trend is particularly pronounced in regions with stringent green building codes and certification programs like LEED (Leadership in Energy and Environmental Design), BREEAM, and WELL.

Furthermore, advancements in sustainable forestry practices and third-party certifications are bolstering the appeal of wood trusses in both commercial and residential construction. At the same time, the industry is seeing a rise in hybrid truss systems that combine wood and metal to optimize both strength and sustainability. The integration of smart sensors and digital tools is allowing for life-cycle assessments and energy modeling that quantify the environmental benefits of truss-based designs. As the construction industry continues to evolve toward circular economy principles, the structural truss market stands to benefit from the increased demand for resource-efficient and sustainable structural solutions.

Technological Advancements in Truss Design, Manufacturing, and Installation

Technological innovation is revolutionizing the structural truss market by enhancing product quality, design flexibility, and construction efficiency. The integration of advanced design software, automation, and digital fabrication is streamlining the entire lifecycle of truss systems—from conceptual design to on-site installation. Computer-Aided Design (CAD) and Building Information Modeling (BIM) tools are enabling engineers and architects to create highly precise and complex truss configurations that are optimized for specific load requirements, aesthetic goals, and spatial constraints.

These tools support clash detection, structural analysis, and seamless coordination across multidisciplinary teams, reducing errors and rework during construction. On the manufacturing side, the use of CNC (Computer Numerical Control) machines, robotic arms, and laser cutting technologies is significantly improving production accuracy and throughput, while minimizing waste and labor dependence. Manufacturers are also leveraging artificial intelligence (AI) and machine learning algorithms to enhance design optimization, predictive maintenance of equipment, and supply chain planning. On-site, innovations such as pre-drilled anchoring systems, modular installation kits, and augmented reality tools are accelerating the assembly of truss structures and improving safety.

The rise of digital twins and IoT-based monitoring is enabling real-time performance tracking and lifecycle management of installed trusses, particularly in large-scale or high-risk environments like bridges and stadiums. Furthermore, material science advancements are allowing for the development of composite trusses that combine the best properties of wood, steel, and polymers, opening new possibilities for lightweight, corrosion-resistant, and high-load-bearing structures. This wave of innovation is making structural trusses not only more efficient but also more adaptable to evolving architectural trends, regulatory standards, and performance expectations, ensuring their continued relevance in modern construction.

Segmental Insights

Type Insights

The Simple Truss segment held the largest Market share in 2024. The Structural Truss Market in the Simple Truss segment is experiencing robust growth, primarily driven by the rising demand for cost-effective, lightweight, and easy-to-install construction components across residential, commercial, and industrial infrastructure projects.

Simple trusses, due to their geometric efficiency and ease of fabrication, are widely adopted in low to mid-rise building structures, warehouses, agricultural sheds, and temporary structures. One of the key factors fueling this growth is the increasing emphasis on speed and efficiency in construction processes. As construction timelines become more stringent and labor costs rise, builders and contractors are turning to prefabricated simple trusses that can be quickly assembled on-site, significantly reducing time and expenses. Moreover, these trusses offer excellent load-bearing capacity while using less material, making them an environmentally friendly and cost-efficient alternative to conventional framing systems.

The trend toward sustainable construction practices has further strengthened the demand, as simple trusses minimize material waste and support green building certifications. Urbanization and infrastructure development in emerging economies are also creating opportunities for market expansion, particularly in rural and semi-urban areas where simple truss systems are ideal for building schools, clinics, and community halls due to their affordability and ease of construction. Additionally, technological advancements in design software and precision fabrication tools have enhanced the customization and structural performance of simple trusses, allowing for better adaptability to various architectural and engineering requirements.

The availability of high-quality materials such as galvanized steel, treated timber, and engineered wood has improved durability and resistance to environmental stress, making simple trusses suitable for both indoor and outdoor applications. In developed regions, the shift towards renovation and retrofitting of old structures also contributes to the growing adoption of simple truss systems, as they can be integrated into existing frameworks without extensive modification. Furthermore, government initiatives supporting affordable housing, infrastructure upgrades, and rural development have led to increased procurement of structural trusses in standardized and modular formats.

The rise of industrialized and modular construction methods, especially in disaster-prone or remote areas, is another significant growth driver for the simple truss segment. These systems can be pre-engineered and transported with minimal logistical challenges, making them an ideal solution in scenarios requiring rapid deployment. The market is also benefiting from the expansion of retail and logistics centers, where simple trusses are commonly used in roofing systems due to their high span-to-weight ratio. Educational institutions and recreational facilities are increasingly opting for simple trusses to create open, column-free spaces that enhance utility and aesthetics.

The convergence of these factors—ranging from economic and regulatory drivers to technological innovation and sustainability trends—is creating a favorable environment for the growth of the simple truss segment within the structural truss market, and this upward trajectory is expected to continue as more stakeholders recognize the value of these solutions in modern construction.

Material Insights

The Steel segment held the largest Market share in 2024. The steel segment of the structural truss market is experiencing robust growth, driven by a convergence of factors related to durability, design flexibility, sustainability, and increasing demand from infrastructure and commercial construction sectors. Steel trusses offer high strength-to-weight ratios, enabling longer spans and greater architectural freedom, making them ideal for large-scale structures such as airports, stadiums, industrial buildings, and bridges.

The inherent strength and rigidity of steel allow for more efficient load distribution, which significantly reduces the number of required support columns and optimizes usable floor space. Additionally, steel trusses can be prefabricated off-site with high precision, improving construction speed, reducing on-site labor requirements, and enhancing overall project efficiency—attributes that are highly valued in today’s fast-paced construction environment. Moreover, the recyclability and lower lifecycle costs of steel compared to traditional materials like wood or concrete align with the growing emphasis on sustainable building practices and green certifications. Increasing investments in urban development projects, transportation infrastructure, and industrial expansion, particularly in emerging economies across Asia-Pacific and the Middle East, are further accelerating the adoption of steel trusses.

Governments and private developers are increasingly choosing steel structural systems to meet seismic safety regulations, fire resistance standards, and to support heavy-load mechanical installations. The evolution of advanced manufacturing technologies such as automated welding, CNC cutting, and 3D modeling is also contributing to the market growth by enhancing the quality, customization, and scalability of steel truss systems. In addition, the integration of Building Information Modeling (BIM) into the design and fabrication processes allows for better visualization, clash detection, and coordination across disciplines, minimizing rework and construction delays.

The demand is also supported by rising awareness of steel’s resilience against weather extremes, pests, and aging, making it a cost-effective long-term solution for structural frameworks. As labor costs rise and skilled workforce availability becomes a challenge in many developed countries, the efficiency and repeatability of steel truss production become increasingly valuable. Furthermore, renovation and retrofitting of aging infrastructure in North America and Europe are generating demand for high-performance steel trusses that can be easily integrated with existing structures.

The growing trend of modular and prefabricated construction, which heavily relies on steel truss systems for structural stability, further expands market opportunities. Meanwhile, innovations in corrosion-resistant coatings and galvanization techniques have extended the lifecycle and application range of steel trusses in challenging environments such as coastal and industrial zones. Collectively, these drivers are propelling the steel segment of the structural truss market forward, reinforcing its position as a preferred structural solution in modern construction and setting the stage for continued expansion amid global infrastructure transformation initiatives.

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Regional Insights

Largest Region

The North America region held the largest market share in 2024. The Structural Truss Market in the North America region is experiencing significant growth, driven by a combination of strong construction activity, increasing demand for sustainable and efficient building solutions, and favorable regulatory policies promoting the use of engineered structural components. The resurgence of residential construction, particularly in the United States, due to population growth, urbanization, and rising demand for affordable housing, has created a sustained need for high-performance, cost-effective structural systems like wood and metal trusses.

In addition, commercial and industrial construction sectors are witnessing heightened activity as businesses expand their operations, warehouses, and distribution centers to support e-commerce and logistics growth. This has resulted in a growing preference for pre-fabricated and modular building components, with structural trusses being favored for their load-bearing capacity, ease of installation, and time-saving benefits.

Furthermore, infrastructure investment programs, such as those under the U.S. Infrastructure Investment and Jobs Act, are accelerating the development of public buildings, transportation facilities, and utilities, all of which require robust structural frameworks where steel and timber trusses are widely used. The rising emphasis on green building certifications such as LEED has also encouraged the adoption of sustainable materials and construction practices, pushing manufacturers and developers to choose truss systems that offer material efficiency and reduced environmental impact. Advancements in design software, such as Building Information Modeling (BIM), and the integration of automated fabrication processes are enhancing accuracy, reducing waste, and improving productivity in truss manufacturing and installation.

Moreover, the presence of well-established market players and truss manufacturing networks in North America ensures a reliable supply chain and competitive pricing, further supporting market growth. Labor shortages in the construction sector have also indirectly boosted the market, as builders turn to prefabricated truss systems that reduce on-site construction time and complexity. Additionally, natural disaster-prone regions in North America, such as hurricane or earthquake zones, are driving demand for structurally resilient building components, including engineered trusses that meet stringent safety codes.

This demand is reinforced by stringent building regulations and evolving safety standards that favor the use of engineered and certified truss systems over traditional framing methods. The growing trend toward single-family housing developments, particularly in suburban and exurban areas, is contributing to rising truss consumption, especially in roof framing applications. In Canada, similar trends are being observed, with strong housing demand and infrastructure investments encouraging the use of structural trusses in both wood-frame and steel-frame construction.

The competitive landscape in North America is fostering continuous innovation in product design, with manufacturers introducing hybrid truss systems and engineered wood solutions that offer superior strength-to-weight ratios, design flexibility, and environmental benefits. Overall, these factors—ranging from macroeconomic growth and policy support to technological advancements and evolving construction practices—are collectively driving the robust expansion of the structural truss market across North America, positioning it as a key region for ongoing investment and innovation in structural engineering solutions.

Emerging region:

South America is the emerging region in Structural Truss Market. The structural truss market in South America's emerging region is experiencing notable growth, driven by a combination of rapid urbanization, expanding infrastructure projects, and increasing investments in residential and commercial construction. Governments across the region, particularly in countries such as Brazil, Colombia, and Peru, are prioritizing large-scale infrastructure development to support economic growth, including transportation networks, energy facilities, and public housing initiatives. These projects are fueling demand for durable, cost-efficient, and lightweight building materials, making structural trusses an attractive solution due to their high strength-to-weight ratio and ease of installation.

The adoption of prefabricated construction techniques is further driving market expansion, as structural trusses offer reduced construction time, lower labor costs, and improved site safety—benefits that align well with the growing preference for modular and industrialized construction methods in the region. Additionally, the increasing frequency of extreme weather events has heightened awareness around the need for resilient and structurally sound buildings, which is pushing developers and contractors to choose truss systems engineered to withstand seismic and wind loads. The rising availability of locally manufactured steel and timber components is also supporting cost-effective production and wider adoption of structural trusses.

Furthermore, initiatives promoting green construction and energy efficiency are encouraging the use of sustainable building materials, with timber trusses gaining popularity due to their renewable nature and low carbon footprint. The market is also benefiting from a shift in regulatory frameworks that promote safety and quality in building practices, prompting builders to adopt standardized truss systems that comply with modern engineering and safety codes. Meanwhile, the expansion of the retail and logistics sectors is driving construction of warehouses and commercial facilities, many of which rely on long-span roof trusses to maximize interior space without requiring interior supports.

Technological advancements in design and manufacturing, such as the use of CAD software and automated truss fabrication systems, are enabling customized and precise structural solutions, enhancing project efficiency and architectural flexibility. Moreover, partnerships between local governments and private sector players are unlocking new opportunities for infrastructure modernization, especially in underserved and rural areas, further stimulating demand for structural truss systems.

The region’s growing middle-class population is also contributing to increased housing demand, particularly in urban centers, where trusses are increasingly used in both low-rise and high-rise residential developments. In addition, the emergence of international construction firms and building material suppliers entering the South American market is introducing best practices, modern building systems, and innovative truss technologies, which is accelerating market maturity.

With construction activity expected to continue rising and a strong focus on cost-efficiency, durability, and speed, the outlook for the structural truss market in South America’s emerging region remains highly favorable. Companies that can offer adaptable, eco-friendly, and value-driven truss solutions are well-positioned to capitalize on the sustained momentum and long-term growth potential across both public and private sector construction projects.

Recent Developments 

• In May 2025, Britlift announced the launch of its innovative modular lifting beam specifically engineered for handling roof trusses. Named the Britlift Roof Lifting Beam (RLB), this lightweight steel beam features a patent-pending modular design that allows each component to be easily managed and assembled by site crews. The modularity not only enhances on-site adjustability but also simplifies storage, transportation, inspection, and maintenance. The RLB has been developed to ensure the safe lifting of trussed rafters—key structural elements used to support roofs, ceilings, or floors in residential and commercial buildings. By improving lifting safety and efficiency, the RLB also helps minimize material waste, making it especially beneficial for traditional construction sites and off-site housing manufacturers alike. .
• In September 2024, SIXTY82 unveiled its new TPM39 Series truss at the company’s Distributor Day Celebrations. The latest addition to the TPM product line, the TPM39 offers up to 25% greater strength compared to its predecessor, the TPM29 Series. Despite the increased strength, the TPM39 remains fully compatible and interchangeable with M39 box trusses, providing the same reliability, durability, and versatility that the industry has come to expect from SIXTY82 products.
• In May 2025, the Structural Building Components Association (SBCA) released the updated edition of its Building Component Safety Information (BCSI) Guide, now titled BCSI-2025. This comprehensive revision introduces a chapter-based format—replacing the previous B-series layout—to improve readability and reduce redundancy. The guide offers practical, user-friendly information on the safe handling, installation, restraining, and bracing of metal plate connected wood trusses. Designed for jobsite use, the updated edition includes enhanced safety guidelines and best practices, making it a valuable resource for professionals working with structural building components.

Key Market Players

• UFP Industries, Inc.
• Simpson Manufacturing Co., Inc.
• Severfield plc
• Goodwin plc
• Vallourec S.A.
• Weyerhaeuser Company
• Nucor Corporation
• Gerdau S.A.
• ITW Inc.
• MiTek Industries, Inc.

Report Scope:

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

• Structural Truss Market, By Type:

o   Simple Truss

o   Complex Truss  

• Structural Truss Market, By Material:

o   Steel

o   Aluminum

• Structural Truss Market, By Application:

o   Residential Construction

o   Commercial Construction  

•  Structural Truss Market, By Load Type:

o   Dead Load

o   Live Load  

• Structural Truss Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  France

§  United Kingdom

§  Italy

§  Germany

§  Spain

o   Asia-Pacific

§  China

§  India

§  Japan

§  Australia

§  South Korea

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Middle East & Africa

§  South Africa

§  Saudi Arabia

§  UAE

§  Kuwait

§  Turkey

Competitive Landscape

Company Profiles: Detailed analysis of the major companies presents in the Global Structural Truss Market.

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Company Information

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