The Importance of Scaffolding Safety in Construction Projects

Scaffolding Safety in Construction Projects is not merely a compliance issue; it is a fundamental engineering and operational requirement that dictates the successful, timely, and ethical completion of any significant build. In the complex world of modern civil and structural engineering, scaffolds serve as indispensable temporary structures, providing stable, elevated working platforms for personnel, materials, and equipment. However, the very nature of elevated work introduces inherent risks that, if unmanaged, can lead to catastrophic failure, loss of life, and severe financial penalties. This comprehensive guide, presented by BFS Industries, a global leader in formwork and scaffolding solutions, delves into the technical, regulatory, and innovative aspects of maintaining supreme scaffold safety on every job site.

1. What Is Scaffolding?

Scaffolding, often referred to as staging, is a temporary, elevated work structure used to support a work crew and materials to aid in the construction, inspection, maintenance, or repair of buildings, bridges, and other man-made structures. It is typically a modular system composed of tubing, couplers, and planks, designed to be erected and dismantled quickly and safely. The primary function is to provide a safe access point and working area at various heights for tasks that cannot be safely accomplished from the ground or finished floor levels. While often confused with related support systems, it is vital to understand the fundamental Difference Between Shoring and Scaffolding to ensure the correct temporary structure is deployed for the intended load and purpose. Shoring is designed purely to support vertical loads, whereas scaffolding is primarily a temporary access and work platform.

Modern construction utilizes several types of scaffolding, each suited to specific site requirements and structural load demands. System scaffolds, such as the widely respected [ringlock scaffolding system] and the robust [cuplock scaffolding system], have largely replaced traditional tube and coupler systems due to their enhanced speed of erection, precision in alignment, and inherent stability. These engineered systems are critical for high-rise projects and infrastructure development, ensuring a safe perimeter and stable foundation for workers carrying out various phases of construction. Regardless of the system used—whether for supporting simple facade work or complex concrete structures—the principles governing its design, erection, inspection, and use must adhere to strict engineering standards. The complexity involved in integrating these temporary systems with permanent structures, such as planning the sequence of formwork construction steps, underscores the need for expert planning and installation.

2. Why Scaffolding Safety Is Critical in Modern Construction

The construction industry operates within thin margins where time, material cost, and labor efficiency are constantly optimized. However, safety is the single non-negotiable metric. Scaffolding Safety in Construction Projects is critical because the consequences of failure extend far beyond minor inconvenience, directly impacting project viability, regulatory standing, and corporate reputation. For every construction manager, engineer, and site supervisor, adhering to stringent scaffold safety protocols is a direct investment in project continuity. A single major accident can trigger site-wide stoppages, subject the contractor to detailed regulatory investigations, and incur devastating litigation costs. These interruptions frequently erase any perceived savings gained from compromising safety standards, highlighting the fundamental truth that cutting corners on safety is ultimately the most expensive choice.

Furthermore, construction site scaffolding safety is inextricably linked to workforce morale and retention. When workers perceive a commitment to their wellbeing—evidenced by rigorous inspection regimes, the provision of high-quality equipment, and zero-tolerance policies for safety breaches—they are more engaged, productive, and less likely to take risks. A safe scaffold is a stable, efficient worksite. High-quality system scaffolds, like those used for constructing complex residential buildings utilizing the Best Formwork Systems for Residential Construction, are designed for rapid and repeatable safe assembly, contributing directly to project timelines. The efficiency gained from workers operating in a safe, unencumbered environment often outweighs the time spent on thorough safety checks, proving that safety and productivity are complementary, not competing, objectives.

From an engineering perspective, the temporary nature of scaffolding means it is subject to continuously changing load conditions, environmental factors (wind, rain, snow), and dynamic forces. The structural integrity of the scaffold must be continuously verified to support the combined dead load (the structure itself) and live load (personnel, tools, and materials). Modern construction sites are highly dynamic environments, where the simultaneous operation of multiple trades introduces variables that must be accounted for in the initial scaffold safety design and subsequent risk assessments. Therefore, rigorous maintenance of a high standard of safety scaffolding protects the assets of the construction company, ensures regulatory compliance, and most importantly, safeguards the most valuable asset: the people working at height.

3. Global Statistics on Scaffolding Accidents

Scaffolding accidents remain a distressingly frequent and significant contributor to fatalities and serious injuries in the global construction sector. According to global data, falls from height—the primary category of scaffold-related incidents—are consistently ranked as one of the “Fatal Four” hazard types that account for the vast majority of construction-related deaths. While national reporting standards vary, most industrialized economies classify falls from scaffolds as a top occupational risk. For example, in the United States, statistics compiled by regulatory bodies frequently highlight scaffolds as a major source of critical workplace accidents, often resulting from improper planking, lack of guardrails, or failure to secure the scaffold structure to the building.

The underlying causes of these accidents are almost always preventable and can be traced back to non-compliance with established scaffolding safety standards during three critical phases: erection, use, and dismantling. Globally, data indicates that structural collapses are also a significant, albeit less frequent, cause of multiple fatalities, typically stemming from inadequate base plating, missing bracing members, or exceeding the maximum permissible load capacity. These statistics underscore a vital necessity for the industry to focus not only on personal protective equipment but, more fundamentally, on improving scaffold safety through structural integrity checks, advanced inspection protocols, and mandatory competency training for all personnel involved in every stage of a scaffold’s lifecycle. A deep commitment to safety scaffolding protocols is the only effective defense against these pervasive and severe occupational risks.

4. Understanding Scaffolding Safety

Understanding scaffolding safety requires more than simply knowing how to assemble or use temporary structures. It involves recognizing the complex interaction between human behavior, structural design, environmental conditions, and compliance with international safety standards. Scaffolding failures rarely stem from a single mistake; rather, they result from a chain of overlooked details — from improper load calculations and inadequate inspections to poor training or unexpected site hazards. By developing a clear understanding of how scaffolding systems are engineered, installed, and maintained, construction teams can significantly reduce the likelihood of accidents and create a safer, more predictable work environment. This foundational knowledge is essential not only for safety officers and supervisors but for every worker who relies on scaffolding as part of their daily operations.

4.1 The Purpose of Scaffolding Safety

The core purpose of scaffolding safety is risk mitigation, specifically targeting the highly hazardous environment of working at elevation. This involves creating a control system that systematically eliminates or minimizes the potential for incidents, particularly falls, structural failure, and object strikes. Safety is intrinsically linked to productivity; a well-designed and inspected scaffold allows workers to perform tasks efficiently without the distraction of perceived or actual danger. This control system encompasses every component, from the base plates and bracing—ensuring structural stability against lateral and overturning forces—to the decking and toe boards, which prevent slips and falling objects. The application of robust scaffold safety practices transforms a temporary structure from a necessary risk into a reliable, efficient workspace.

4.2 Common Scaffolding Hazards

Construction site scaffolding safety must address a range of hazards, which often occur in combination. The most prevalent hazards include inadequate fall protection, the lack of sufficient scaffolding safety barriers, improper access (e.g., climbing cross-braces instead of designated ladders), and the use of defective components, such as compromised planks or rusted couplers. Beyond structural failures, environmental hazards play a major role; high winds can induce unexpected lateral forces, while heavy rain or ice can make working platforms dangerously slick. Furthermore, the presence of overhead power lines is a severe electrical hazard that demands careful planning and maintaining mandatory clearance distances, underscoring why proactive risk assessment is paramount to improving scaffold safety on every unique construction site.

4.3 Falls From Height

Falls from height remain the single greatest threat associated with scaffolding work. These incidents are overwhelmingly caused by the absence, removal, or failure of designated fall protection systems. Regulations mandate the use of guardrail systems, personal fall arrest systems (PFAS), or a combination of both when working above a certain height threshold. Guardrail systems, which are a critical type of scaffolding safety barriers, must consist of a top rail (capable of withstanding 200 pounds of downward force), a midrail, and toe boards. When guardrails are infeasible, workers must be secured by a PFAS anchored to a stable component of the structure, ensuring minimal free fall distance. Strict adherence to these passive and active fall protection measures is non-negotiable for effective scaffold safety.

4.4 Structural Collapse

A scaffold structure collapses when its load-bearing capacity is exceeded or when key stabilizing components are missing or improperly installed. Causes typically include: inadequate foundation or base plates (e.g., setting the scaffold directly on uneven or uncompacted soil), failure to securely tie the scaffold to the permanent structure at mandatory intervals, and the omission of necessary diagonal bracing. Overloading the scaffold platform with excess materials or personnel that exceeds the safe working load (SWL) specified by the design is another common cause. To prevent structural collapse, regular inspection of ties, bracing, and the supporting foundation must be conducted by a qualified and competent person, particularly after periods of non-use or high wind, forming the backbone of practical scaffolding safety.

4.5 Falling Objects

The hazard of falling objects, sometimes called “struck-by” hazards, is a critical component of construction site scaffolding safety that protects workers both on the scaffold and on the ground below. Objects falling from height—whether tools, materials, or debris—can be lethal. The primary protection mechanisms include the mandatory use of toe boards along the edges of platforms, which are the lowest of the scaffolding safety barriers designed to prevent small items from rolling off. Furthermore, catch platforms, netting, and specialized debris chutes are often required. All materials stored on the scaffold must be minimized, securely stacked, and kept well away from the edge. Additionally, workers below the scaffold must always wear hard hats, and, where possible, restricted zones (exclusion zones) must be established at ground level.

4.6 Electrical Hazards

Electrical hazards on scaffolds are typically related to proximity to overhead power lines. This is a severe, often instantly fatal, hazard. Regulatory bodies mandate specific minimum clearance distances that must be maintained between the scaffold and power lines, which can vary depending on the voltage of the line and whether it is insulated. Before scaffold erection even begins, a detailed site survey must identify all overhead and underground utility hazards. If the clearance distance cannot be maintained, the power line must be de-energized and visibly grounded by the utility company, or protective sleeving must be installed. This critical pre-planning step is essential for improving scaffold safety and preventing electrocution incidents during both erection and use.

4.7 Consequences of Poor Safety

The consequences of poor safety scaffolding are extensive, costly, and multidimensional. On the human level, the result is death, severe injury, and psychological trauma to the workforce and their families. Financially, contractors face escalating insurance premiums, costly regulatory fines (e.g., from OSHA), work stoppages that lead to liquidated damages, and significant legal fees stemming from liability claims. Operationally, project delays can harm client relations and damage the brand’s reputation. Furthermore, any incident requires extensive internal investigation and corrective action, diverting valuable engineering and management resources. The economic argument overwhelmingly favors preventative investment in scaffolding safety over reactive cost management following an accident.

5. Legal and Regulatory Requirements

Legal and regulatory requirements play a critical role in ensuring that scaffolding operations meet the minimum safety standards established by national and international authorities. These regulations are designed to protect workers, standardize construction practices, and minimize the risk of structural failures on job sites. From load-bearing limits and material specifications to inspection intervals and worker training obligations, each guideline provides a framework that contractors must follow to remain compliant. Understanding these regulatory expectations is essential not only for avoiding legal penalties, but also for building a culture of accountability and safety across construction teams. By aligning project practices with recognized standards, companies can enhance operational reliability and significantly reduce scaffold-related incidents.

5.1 OSHA Scaffolding Standards (U.S.)

In the United States, scaffolding safety in construction projects is rigorously governed by the Occupational Safety and Health Administration (OSHA) standards, particularly Subpart L (Scaffolds) of the Construction Industry Regulations ($$$1926.450 et seq.). These standards cover all aspects of scaffold work, from capacity requirements—mandating that scaffolds be capable of supporting their own weight plus at least four times the maximum intended load—to mandatory fall protection at specified heights. OSHA dictates requirements for training (competent person status), access (ladders, stairs, or ramps), and platform construction (planking must be fully decked). Compliance with these specific technical parameters is legally required and is the baseline for all construction site scaffolding safety programs in the U.S.

5.2 International Regulations (UK, EU, Middle East, Asia)

While the specifics vary, the intent of international scaffolding regulations remains consistent: to establish a safe framework for elevated work. In the UK, the Work at Height Regulations 2005 impose duties on employers and employees to plan, supervise, and carry out all work at height safely, requiring all scaffolds to be designed, erected, and dismantled by trained personnel. European Union (EU) member states adhere to directives that mandate comprehensive risk assessments. In rapidly developing construction markets across the Middle East and Asia, regulations often align with or draw heavily upon European or North American best practices, frequently requiring certification schemes for scaffold builders and inspectors. The global trend is toward harmonization, focusing on competence, structural integrity, and the mandatory use of scaffolding safety barriers like guardrails.

5.3 Contractor Responsibilities

The general contractor bears ultimate responsibility for ensuring construction site scaffolding safety. This responsibility includes designating a “Competent Person” who is capable of identifying existing and predictable hazards and who has the authority to take prompt corrective measures to eliminate them. The contractor must ensure that the scaffold is erected according to the designer’s specifications, inspected before each shift and after any weather event, and properly tagged (e.g., Green Tag for safe use, Red Tag for unsafe/under construction). Furthermore, the contractor must provide specific and adequate training to every employee who works on or near the scaffold, ensuring that the entire workforce is invested in improving scaffold safety as a collective goal.

6. Key Principles of Scaffolding Safety

The practice of scaffolding safety rests on three foundational engineering and operational principles: Design, Competency, and Inspection. The initial principle, Design, dictates that every scaffold must be engineered to withstand the calculated loads with an adequate factor of safety. This requires precise calculations based on the scaffold type (e.g., modular, suspended), the intended load capacity, and environmental factors, ensuring that the safety scaffolding system will never be inadvertently overloaded. Proper design ensures components, from the base jacks to the ties, are correctly specified and used only for their intended purpose.

The second core principle is Competency. Only individuals who have received specialized training and are officially designated as “Competent Persons” or “Qualified Persons” are authorized to manage the critical phases of scaffold erection, modification, or dismantling. A competent person possesses the necessary knowledge to identify hazards in scaffold construction and use, and the authority to immediately correct them. This prevents untrained personnel from making arbitrary, structurally compromising modifications to the scaffold that could jeopardize construction site scaffolding safety.

Finally, Inspection is the continuous verification process that confirms the scaffold remains compliant with the initial design and current regulatory standards throughout its service life. Scaffolds must be inspected before being put into service, before the start of work on every shift, and immediately following events that could affect integrity (e.g., severe weather). Effective scaffold safety requires that these inspections are documented, deficiencies are corrected immediately, and the status of the scaffold is clearly communicated via the tagging system.

7. Training and Competency Requirements

Effective scaffolding safety in construction projects is directly proportional to the quality of training provided to the personnel involved. Regulatory bodies mandate specific training for two categories of workers: those who work on the scaffold, and those who build or inspect it. All employees who work on a scaffold must receive user-level training that covers hazard recognition, proper use of the platform, procedures for handling materials, and the correct donning and use of fall protection equipment. This training ensures that general workers can identify common safety scaffolding hazards, such as missing guardrails or excessive deflection in planking.

However, a much more rigorous level of training is required for the “Competent Person” and “Scaffold Erector.” These individuals must possess in-depth technical knowledge of scaffold design principles, load calculations, regulatory compliance, and safe assembly/disassembly procedures for the specific type of system being used, whether it is a proprietary system like the ringlock scaffolding system or a standard modular frame. This advanced training is vital for improving scaffold safety as it equips supervisors and lead workers with the ability to manage complex erection plans, implement corrective actions, and train the rest of the workforce effectively, thereby reducing scaffold related injuries with comprehensive knowledge.

8. Best Practices for Scaffolding Safety

Implementing construction site scaffolding safety requires an active, preventative culture supported by precise procedures. The following best practices are essential for minimizing risk:

• Pre-Erection Planning and Design: Always secure a detailed scaffold design drawing prepared by a Qualified Person (P.E. or equivalent) prior to commencing erection, particularly for complex or high-rise structures.
• Foundation Integrity: Ensure the scaffold base is set on firm, level, non-yielding ground. Use adequate base plates and mud sills (sole boards) to distribute the load, preventing differential settlement.
• Component Inspection: Inspect every component, including frames, braces, couplers, and planks, before assembly. Discard any item showing signs of damage, corrosion, or deformation.
• Tying and Anchoring: Scaffolds must be tied to the permanent structure at minimum horizontal and vertical intervals as specified by the engineer or regulatory body to prevent outward tipping.
• Full Planking: Ensure that all platforms are fully planked or decked between the front uprights and the guardrail supports to prevent falls through gaps.
• Guardrail Systems: Always install a complete guardrail system—top rail, mid-rail, and toe board—on all open sides and ends of the scaffold platform as mandatory scaffolding safety barriers.
• Safe Access: Provide safe access via fixed ladders, stair towers, or ramps. Climbing the cross-braces must be strictly prohibited and enforced.
• Daily and Post-Incident Inspection: Conduct and document a formal inspection by a Competent Person before every shift and immediately after high winds, storms, or any structural modification.
• Load Management: Clearly post the safe working load (SWL) on the scaffold structure. Implement strict controls to prevent overloading with materials, personnel, or equipment.
• Overhead Hazard Control: Identify and maintain required clearance distances from overhead power lines. Use debris nets and catch screens to prevent falling objects.
• Tool Tethering: Mandate the use of tool lanyards and tethering systems for all hand tools and equipment used on the scaffold platform to mitigate falling object hazards.
• Clear Communication: Implement a clear, simple tagging system (Green Tag/Yellow Tag/Red Tag) to instantly communicate the safe operational status of the scaffold to all workers.

9. Modern Innovations in Scaffolding Safety

The construction industry is rapidly adopting Industry 4.0 technologies to drive improving scaffold safety beyond traditional, manual inspection methods.

Smart Sensors for Fall Detection

Wearable technologies and proximity sensors integrated into personal fall arrest systems (PFAS) are revolutionizing fall protection. These reduce scaffold related injuries with sensors by detecting a rapid descent or a worker breaching an electronic safety perimeter (geo-fencing). Upon detection, the systems can instantly trigger an alert to the site safety manager, emergency services, and the worker’s location, significantly reducing response time in a fall scenario. This proactive monitoring adds a critical layer of automated surveillance to active fall protection, supplementing the traditional reliance on visual checks and human reporting.

IoT Load Monitoring

Structural integrity is now monitored in real-time using Internet of Things (IoT) sensors embedded within or attached to key load-bearing components. These sophisticated systems continuously measure axial and sheer forces, wind load, and structural deflection. By constantly comparing the live load data against the engineered maximum permissible load, the system can provide automated warnings if the scaffold approaches its safety scaffolding limits. This preemptive capability allows site managers to redistribute loads or halt work before a critical failure occurs, preventing collapses caused by inadvertent overloading.

Digital Scaffolding Tags

The traditional physical tag system is being digitized using RFID, NFC, or QR codes. Digital tags are affixed to the scaffold and, when scanned by a worker’s mobile device, provide instant, verified access to the scaffold’s complete history: the initial design specification, the last inspection report, the name of the Competent Person, and the current operational status. This technology dramatically improving scaffold safety by ensuring that workers always access the most current, verifiable safety data, eliminating reliance on faded, incomplete, or fraudulently signed paper tags.

Real-Time Structural Monitoring

Advanced structural monitoring involves deploying networked accelerometers and tilt sensors across the scaffold’s structure. These sensors are designed to detect minute shifts in alignment or unexpected vibrations, such as those caused by strong, sudden wind gusts or impact from heavy machinery. By establishing a baseline of normal vibration and deflection, the system can instantly flag anomalies that suggest a loss of structural rigidity or an issue with the anchoring ties. This technology is particularly valuable in high-wind zones or on extremely tall scaffolds, proactively ensuring construction site scaffolding safety by monitoring environmental stress.

10. Case Studies and Real-World Examples

Real-world case studies provide valuable insight into how scaffolding safety principles perform outside theoretical guidelines and controlled environments. By examining actual construction projects—both successful implementations and incidents resulting from failures—teams can better understand the practical challenges, human factors, and decision-making processes that influence safety outcomes on site. These examples highlight what can go right when proper planning, training, and regulatory compliance are in place, and what can go wrong when even a single step is overlooked. Learning from real cases allows construction professionals to translate lessons into actionable improvements, refine their safety protocols, and reinforce a culture of prevention rather than reaction.

10.1 Major Accident Lessons

Analysis of major scaffold collapse incidents globally consistently reveals two common denominators: insufficient foundation/anchoring and procedural failures during modification. One highly publicized case involved a multi-story, framed scaffold collapse that killed multiple workers, which was traced back to the failure of the contractor to install the required wall ties at the specified vertical and horizontal intervals. The investigation concluded that the structural failure was precipitated by high winds acting on the untied structure. The key lesson drawn from this and similar disasters is that strict adherence to the manufacturer’s and designer’s instructions regarding ties is non-negotiable. Furthermore, any modification to a scaffold must be treated as a structural alteration and signed off by a Competent Person, reinforcing the fundamental need for unwavering scaffolding safety protocols.

10.2 Successful Safety Implementations

Forward-thinking firms have demonstrated significant success in improving scaffold safety through process innovation and technology adoption. One large-scale infrastructure project implemented mandatory digital scaffold tags paired with integrated IoT load sensors for all construction activities involving the cuplock scaffolding system. The system automatically logged every inspection and recorded component stress levels in real-time. This provided site safety officers with an immediate, data-driven overview of the entire scaffold network’s health, allowing them to proactively address five instances of near-overload identified by the sensors. This commitment to modern, data-driven safety scaffolding not only reduced safety incidents but also enhanced operational transparency, demonstrating the tangible benefits of technology in a high-risk environment and directly contributing to a reduction in scaffold related injuries with sensors.

11. Economic Benefits of Scaffolding Safety

Investing proactively in scaffolding safety in construction projects yields significant, quantifiable economic returns that often outweigh the initial expenditure. The most immediate benefit is the reduction of direct costs associated with accidents, including medical expenses, worker’s compensation claims, and the cost of replacing damaged equipment. However, the true economic advantage lies in the mitigation of indirect costs. Work stoppages and project delays resulting from serious safety incidents can carry daily penalties (liquidated damages) that can quickly amount to hundreds of thousands of dollars. By maintaining impeccable scaffold safety standards, contractors minimize the risk of these expensive operational interruptions.

Furthermore, a proven commitment to improving scaffold safety results in lower Experience Modification Rates (EMR) for insurance purposes. EMRs directly influence the cost of liability insurance, meaning safer companies pay substantially lower premiums. High-quality scaffolding systems, maintained through stringent safety scaffolding practices, also have a longer service life, reducing capital expenditure on replacements. This comprehensive reduction in direct, indirect, and future insurance costs positions safety not as a cost center, but as a long-term economic driver and a critical factor in competitive bidding.

12. The Future of Scaffolding Safety

The future of scaffolding safety in construction projects is converging with advanced construction technology and predictive analytics. The industry is moving toward fully digital environments where Building Information Modeling (BIM) software automatically generates scaffold designs that account for live-site constraints, material scheduling, and dynamic load changes. This integration will make proactive risk assessment systemic rather than reactive.

Another key development is the widespread adoption of AI-powered video surveillance and drone inspections. These systems can automatically scan a scaffold for missing ties, damaged components, or a lack of scaffolding safety barriers, flagging anomalies faster and more accurately than a human inspector can. This leap in automated compliance checking promises a significant reduction in scaffold related injuries with sensors and AI, ultimately aiming for a zero-accident standard in elevated work. The focus will shift entirely from responding to hazards to predicting and preventing them using data from smart, connected systems.

13. BFS Industries: Trusted Supplier of Safe Scaffolding Systems

BFS Industries understands that superior structural integrity is the first line of defense in scaffolding safety in construction projects. As a leading global manufacturer and supplier, [BFS Industries] designs and delivers engineered scaffolding solutions that exceed international safety and quality standards, forming the bedrock of construction site scaffolding safety. Our product range, including the certified [ringlock scaffolding system] and the robust cuplock scaffolding system, is manufactured under rigorous quality control processes to ensure every component contributes to the ultimate stability and load-bearing capacity of the final structure.

We go beyond simply supplying materials; we partner with our clients to embed best practices. BFS Industries provides comprehensive technical support, training, and design consultation to ensure that our safety scaffolding systems are not only used correctly but are optimized for your project’s specific load and height requirements. By choosing BFS Industries, you are investing in a system designed for longevity, rapid assembly, and unparalleled scaffold safety, thereby significantly contributing to a reduction in scaffold related injuries with sensors and high-quality equipment, protecting your workforce and your bottom line.

Conclusion

Scaffolding Safety in Construction Projects is a holistic discipline that demands engineering excellence, regulatory adherence, and a culture of continuous vigilance. From understanding the core hazards of falls and structural collapse to adopting modern solutions that leverage IoT sensors and digital monitoring to reduce scaffold related injuries with sensors, the commitment to safety must be absolute. The investment in high-quality, engineered systems and comprehensive training is the most effective strategy for mitigating risk, protecting personnel, and ensuring successful project delivery. BFS Industries remains dedicated to advancing the state of improving scaffold safety by providing the industry’s most reliable and compliant scaffolding solutions.