Interview Questions for Safety Harness and Lanyard Use

Safety harnesses come in various types, each designed for specific applications. The choice depends heavily on the work environment and the potential fall hazards.

• Full-Body Harnesses: These are the most common type, offering protection to the entire body. They’re used in a wide range of applications, from construction to tree climbing, wherever a significant fall risk exists.
• Chest Harnesses: These harnesses primarily protect the chest and upper body. They’re less common than full-body harnesses and are often used in specific situations, such as confined space entry where a full harness might be too bulky or restrictive.
• Sit Harnesses: These provide support for sitting while working at heights and are typically used for tasks like window cleaning or working on suspended platforms. They are not appropriate for arresting falls.
• Specialized Harnesses: Some harnesses are designed for specific tasks, such as those used in rescue operations or for working with specialized equipment. These may incorporate extra features like attachment points for tools or lifeline systems.

For example, a worker on a skyscraper would use a full-body harness for maximum protection, while a window washer might utilize a sit harness in conjunction with a suitable fall arrest system. The selection always prioritizes safety and suitability to the specific job requirements.

A full-body harness typically consists of several key components, all crucial for safety and proper function:

• Shoulder Straps: These encircle the shoulders, providing support and distributing the impact force in a fall.
• Leg Straps: These secure the legs, preventing the harness from riding up during a fall and ensuring a secure fit.
• Waist Belt (or Dorsal D-ring): This provides a central connection point for the lanyard or lifeline. It’s vital for distributing fall forces.
• Chest Strap: This strap crosses the chest and helps to prevent the worker from swinging or rotating during a fall, reducing the risk of injury.
• D-Rings and Attachment Points: These are strong metal rings or loops where the lanyard or lifeline connects to the harness. Their placement is critical for distributing forces during a fall.
• Padding and Adjustments: Harnesses typically include padding at key points for comfort and to reduce chafing. Adjustable straps are vital for a proper fit, as an ill-fitting harness compromises safety.

Imagine each component as a part of a complex safety net. If one part fails, the entire system’s effectiveness is compromised.

Regular and thorough inspection of your safety harness and lanyard is paramount. Before each use, carefully examine the following:

• Harness: Check all straps, buckles, stitching, and D-rings for any signs of damage, wear, cuts, fraying, burns, or corrosion. Pay close attention to areas subject to significant wear and tear.
• Lanyard: Examine the lanyard for cuts, abrasions, fraying, burns, and excessive wear. Check the stitching, buckles (if present), and any connecting hardware. Look for signs of deformation or damage to the shock absorber (if applicable).
• Connectors: Carefully inspect all carabiners and other connecting hardware. Ensure they are free from damage, corrosion, and proper function. Check for gate opening and closing functionality.

Example: If you find a small cut on a strap, immediately remove the harness from service and replace it. Even minor damage can significantly compromise its effectiveness.

If any damage is found, the equipment must be immediately taken out of service and replaced. A damaged harness is a compromised safety net and should never be used.

While safety harnesses are vital for fall protection, they do have limitations and potential hazards:

• Improper Use: Incorrect usage, such as improper fit, incorrect attachment points, or failing to properly inspect the equipment, significantly reduces the effectiveness of the harness and increases the risk of injury.
• Equipment Failure: Although rare, equipment failure can occur due to wear, tear, or manufacturing defects. Regular inspections mitigate this risk.
• Swing Falls: Falls that result in a pendulum-like swing can cause significant injuries even with a properly functioning harness. This is particularly relevant with longer lanyards.
• Harness Entanglement: Getting entangled in equipment or surroundings during a fall can increase the severity of injuries. Proper planning and awareness of surroundings can minimize this risk.
• Unprotected impact after the fall: The harness stops the fall, but there is no protection against impact with the ground or any objects once the fall is arrested.

Example: A worker using a harness with an incorrectly connected lanyard may experience a more severe fall than if it were properly attached. This highlights the importance of proper training and awareness.

Selecting the right safety harness involves considering various factors:

• Work Environment: The type of work, height, potential hazards, and surrounding environment all influence harness selection. Working on a skyscraper requires different equipment than working on a rooftop.
• Fall Protection System: The chosen harness must be compatible with the entire fall protection system, including the anchor point and the lanyard type.
• User Comfort and Fit: A poorly fitting harness can be uncomfortable and even dangerous. Proper adjustments and a comfortable fit are crucial for preventing fatigue and distraction.
• Regulations and Standards: Adherence to relevant safety regulations and standards is paramount. Always ensure the harness meets the required specifications.

Example: A construction worker working at a high altitude would need a full-body harness with proper attachment points for a self-retracting lifeline, whereas a worker in a confined space might need a specialized harness with reduced bulk for maneuverability.

The key difference between shock-absorbing and non-shock-absorbing lanyards lies in their ability to reduce the impact force during a fall.

• Shock-Absorbing Lanyards: These incorporate a built-in shock absorber that stretches to significantly reduce the deceleration force on the worker’s body during a fall. This reduces the risk of serious injury.
• Non-Shock-Absorbing Lanyards: These do not have a built-in shock absorber. The full force of the fall is transferred directly to the worker’s body, potentially resulting in severe injuries. They are often shorter in length and used in confined spaces.

Think of it like this: a shock-absorbing lanyard acts like a bungee cord, extending to lessen the impact, while a non-shock-absorbing lanyard is more like a stiff rope, transmitting the full force of the fall.

Maximum fall distances are not solely determined by lanyard length, but also by the type of lanyard (shock-absorbing or not) and the fall arrest system used. The following information is a general guideline and should not replace proper training and adherence to specific regulations.

With a shock-absorbing lanyard: The maximum fall distance will be significantly greater than the lanyard’s length due to the elongation of the shock absorber. It is crucial to consult the manufacturer’s specifications and relevant safety standards for the exact fall distance allowed for a given system.

With a non-shock-absorbing lanyard: The maximum fall distance is significantly shorter than with a shock-absorbing lanyard. A fall from the full length of the lanyard could result in serious injury. These lanyards are typically used in very controlled environments, and the working height is adjusted to minimise this risk.

It’s crucial to remember that exceeding the maximum fall distance can lead to severe injury or fatality, regardless of lanyard type. Always consult manufacturer instructions and relevant safety standards for accurate and safe fall-distance information.

Selecting the right anchor point for a safety harness is crucial for effective fall protection. It’s the strongest point above you capable of withstanding significant forces in a fall. Think of it as the ‘life line’ of your system. The anchor point must be structurally sound and rated to support at least 5,000 pounds, which is far beyond the anticipated forces in most falls.

• Structural Considerations: The anchor point should be integrated into the building’s structure – a structural beam or a specifically designed anchor point rather than a pipe or flimsy attachment.
• Inspection: Always visually inspect the anchor point for any signs of damage, corrosion, or wear before use. Look for cracks, bends, or any signs of weakening.
• Type of Work: The anchor point’s location depends on the type of work being performed. For roofing, it might be a structural beam; for working at heights on a scaffold, it might be a dedicated scaffold anchor point.
• Clearance: Ensure sufficient clearance to prevent swinging or contact with obstacles during a fall.

Example: Imagine working on a roof. A correctly chosen anchor point would be a strong, securely fastened structural beam, not a loose rafter or a chimney.

Safety harness and lanyard use are governed by stringent regulations and standards, which vary depending on your location but often align with international best practices. Key organizations and standards include OSHA (Occupational Safety and Health Administration) in the US, and similar bodies in other countries. These regulations emphasize the importance of proper equipment selection, inspection, training, and use.

• Standards: ANSI/ASSE Z359 (American National Standards Institute/American Society of Safety Engineers) provides comprehensive standards for fall protection systems, including harnesses and lanyards.
• Compliance: Companies must comply with relevant regulations and ensure workers receive adequate training on proper harness and lanyard use. This training often includes practical demonstrations and hands-on experience.
• Documentation: Thorough documentation of inspections, training records, and any incidents is vital for compliance and to demonstrate responsible safety practices.

Ignoring these regulations can lead to serious injury or fatality and significant legal repercussions for employers.

Regular inspection of lanyards is non-negotiable. A damaged lanyard is a critical failure point in the fall protection system. The inspection process should be methodical and thorough, looking for any sign of wear or damage that could compromise its strength.

• Visual Inspection: Carefully examine the entire length of the lanyard, checking for cuts, abrasions, burns, excessive wear, fraying, or any distortion of the webbing or stitching.
• Hardware Inspection: Inspect all metal components, such as carabiners, snap hooks, and swivels. Look for cracks, deformation, corrosion, or any signs of excessive wear. Ensure that the gate of the carabiner opens and closes smoothly without any binding or sticking.
• Stress Testing (Not for the average user): While professionals can perform stress tests, most users rely on visual inspection. Stress testing can only be done with calibrated testing equipment and by trained personnel.
• Documentation: If damage is found, immediately remove the lanyard from service and label it accordingly. Document the damage and the disposal process.

Example: A small cut in the lanyard webbing might seem insignificant, but it dramatically weakens the lanyard and renders it unsafe for use.

Damaged or worn safety harnesses and lanyards must be immediately removed from service. They are not to be repaired by untrained personnel. Their integrity has been compromised, and continued use risks catastrophic consequences.

• Identification of Damage: Look for cuts, burns, excessive wear and tear on straps or webbing. Check for stitching failure, hardware damage (bent or broken carabiners, snap hooks), or any signs of chemical degradation or corrosion.
• Disposal: Damaged harnesses and lanyards should be disposed of according to company policy and local regulations. This prevents accidental reuse.
• Replacement: Always replace damaged harnesses and lanyards with new, properly certified equipment from reputable manufacturers.
• Training: Ensure workers are trained to identify damage and know the correct procedures for reporting, removal, and replacement.

Example: A harness with significant abrasion on a leg strap, is a clear indication of damage and should be immediately taken out of service and replaced.

Proper donning and doffing of a safety harness are essential steps in ensuring its effectiveness and worker safety. It’s vital that the harness is worn correctly to ensure proper function in the event of a fall.

• Donning: Adjust the leg straps, chest strap, and shoulder straps to ensure a snug, comfortable fit. The harness should fit securely without being too tight. All buckles and straps should be correctly fastened. Double-check all connections.
• Doffing: Carefully unbuckle all straps and remove the harness systematically, ensuring that no components become entangled.
• Inspection before use: Before donning, always inspect the harness for any signs of damage, like we discussed before.

Example: A common mistake is having the leg straps too loose, which would allow significant movement during a fall, potentially leading to injury.

Rescuing someone who has experienced a fall requires specialized training and equipment. Attempting a rescue without proper training is extremely dangerous.

• Emergency Services: The first step is to immediately call emergency services. Describe the situation accurately and provide your location.
• Assess the situation: Ensure the scene is safe for rescuers before attempting any rescue.
• Specialized Equipment: Professional rescuers utilize specialized equipment such as rescue harnesses, ropes, and other tools to safely lower the victim.
• Training: Only trained and qualified personnel should perform rescues.

Example: Attempting to lift a heavy worker after a fall without proper equipment and training could result in a secondary incident.

Regular inspections are fundamental to ensuring the safety and efficacy of your safety harness. A seemingly minor defect, unnoticed during an inspection, could become a catastrophic failure during a fall.

• Frequency: Inspections should be performed before each use, after every fall, and at regular intervals as defined by company policy and regulatory standards.
• Thoroughness: Pay close attention to all parts of the harness, including straps, buckles, and stitching. Check for any signs of wear, damage, or deterioration.
• Documentation: Maintain detailed records of all inspections. This documentation provides a verifiable history of the harness’s condition and ensures compliance.

Example: A small fray in the webbing might go unnoticed, but over time, that fray can worsen, leading to a potential harness failure.

Falls from height are a serious hazard, and understanding their causes is crucial for prevention. Common causes can be broadly categorized into human factors and environmental factors.

• Human Factors: These encompass worker errors, such as rushing, complacency, inadequate training, or failure to use appropriate safety equipment. For example, a worker might skip tying off their lanyard because they’re in a hurry, or mistakenly believe a seemingly short distance poses no risk.
• Environmental Factors: These involve unsafe work conditions. Poorly maintained equipment (like damaged scaffolding), inadequate or missing fall protection systems (no guardrails or safety nets), slippery surfaces, and obstructed walkways all contribute to increased fall risks. For instance, a worker might slip on wet decking if proper anti-slip measures aren’t in place.
• Equipment Failure: Although less common, equipment failure can also lead to falls. This could involve a faulty lanyard, a damaged harness, or a weak anchorage point. Regular inspections are vital to mitigate this risk.

Addressing these root causes through comprehensive safety training, regular inspections, and robust risk assessments is paramount to preventing falls from height.

Effective communication and coordination are the bedrock of any safe working-at-height operation. My approach involves a multi-faceted strategy:

• Pre-Task Planning: Before any work begins, a thorough toolbox talk outlines the specific risks, the chosen fall protection system, the designated roles and responsibilities of each team member, and emergency procedures. Visual aids, such as diagrams of the work area and fall protection setup, are invaluable.
• Clear Communication Channels: Throughout the task, maintaining open communication is key. Hand signals are often used to communicate while working at height, especially in noisy environments. Regular check-ins ensure everyone is aware of potential hazards and any changes in the work environment.
• Non-Verbal Communication: Observing team members for signs of distress, fatigue, or unsafe practices is crucial. Addressing concerns promptly and providing necessary support or adjustments to the work process is critical.
• Post-Task Debrief: After completing the task, we conduct a debrief to discuss what went well, what could be improved, and identify any near misses. This process helps in continuous learning and refinement of safety procedures.

Imagine working on a high-rise building; clear communication regarding the positioning of the crane, the placement of materials, and the movements of team members is essential to avoid collisions and falls.

Emergency procedures for a fall must be swift and efficient. The primary goal is to minimize secondary injuries and ensure the fallen worker receives prompt medical attention.

• Immediate Response: The first responders should immediately assess the situation and ensure the safety of all personnel involved. This may involve securing the area to prevent further falls or secondary accidents.
• Rescue Procedure: Depending on the circumstances, a rescue plan should be activated immediately. This might involve using a rescue system, calling emergency services, or employing other appropriate rescue techniques. The rescue operation should be conducted safely and with appropriate personal protective equipment.
• First Aid and Medical Assistance: Once the fallen worker is safely rescued, first aid should be administered as needed, and emergency medical services (EMS) should be contacted. A comprehensive medical evaluation is necessary.
• Incident Investigation: A thorough investigation must be conducted to determine the cause of the fall and implement preventative measures to avoid similar incidents in the future. Documentation of the accident and all related facts is crucial.

A well-rehearsed emergency response plan, coupled with readily available and properly functioning rescue equipment, is essential for minimizing the severity of consequences in a fall-related incident.

Fall arrest systems provide a safety net to prevent serious injuries from falls from height. Several types exist, each suited for different applications:

• Full Body Harnesses: These are worn by the worker and distribute the impact forces of a fall across the body, minimizing injuries. They come in various designs, including those with front and dorsal D-rings.
• Lanyards: These connect the harness to an anchorage point, typically using shock-absorbing components to reduce the impact forces of a fall.
• Self-Retracting Lifelines (SRLs): SRLs automatically retract the lifeline as the worker moves, reducing the risk of entanglement and providing a constant connection to the anchorage point.
• Vertical Lifelines: These systems are typically used in vertical situations and provide a continuous lifeline along a vertical structure. Workers attach to the lifeline with a suitable connector.
• Horizontal Lifelines: Used where workers move along a horizontal plane, typically providing a safety line strung along a beam or structure.
• Safety Nets: These provide a safety net below the working area. They’re useful but require significant space and careful installation.

The choice of fall arrest system depends heavily on the specific work environment, the type of task, and the potential fall distances. A competent person should assess these factors to select the most appropriate system.

Anchorage strength refers to the capacity of a structural member to withstand the forces exerted during a fall arrest. It’s absolutely critical for ensuring the safety of workers. A weak anchorage point could fail during a fall, resulting in catastrophic consequences.

The anchorage point must be capable of withstanding a minimum force, often significantly greater than the worker’s weight, considering factors like the fall distance and the dynamic forces involved during a fall arrest. These forces are calculated according to relevant standards and regulations (such as OSHA or similar national regulations).

For example, a worker might be secured to a structural steel beam. The anchorage point on that beam must be designed and inspected to ensure it can safely withstand the forces of a fall without failure. This requires engineering calculations and potentially specialized testing to verify the strength.

Ignoring anchorage strength can lead to catastrophic equipment failure, resulting in worker injury or death. Regular inspection and verification of anchorage points are therefore vital for maintaining a safe working environment.

Harness connectors, such as snap hooks, carabiners, or shackles, are crucial components that link the harness to the lanyard or lifeline. They act as the pivotal connection in the fall protection system. Their proper function is paramount to the system’s effectiveness.

Regular inspection of these connectors is non-negotiable. Inspections should check for:

• Damage: Look for any signs of wear, deformation, corrosion, cracks, or other damage that could compromise the connector’s strength.
• Gate Function: For snap hooks and carabiners, ensure the gate opens and closes smoothly and securely, locking in place without difficulty.
• Corrosion: Check for rust or corrosion, which can weaken the metal and affect its structural integrity.
• Proper Closure: Ensure the connector is fully closed and securely fastened to both the harness and the lanyard/lifeline.

A damaged or malfunctioning connector can lead to a failure of the entire fall protection system during a fall, resulting in serious injury or death. If any defects are found, the connector must be immediately removed from service and replaced.

Self-retracting lifelines (SRLs), while incredibly useful, possess certain limitations that need careful consideration:

• Swing Falls: SRLs are generally not suitable for protecting against swing falls, where the worker falls horizontally. The arresting force could cause the worker to impact an object, creating further injuries beyond what the SRL itself could absorb.
• Restricted Movement: The lifeline’s length limits the worker’s range of movement. Overextension can lead to a fall, or the worker might become tangled.
Environmental Conditions: SRLs can be affected by environmental conditions such as extreme temperatures, which could affect the internal mechanism. Moisture and dust can also interfere with its operation.
• Weight Limitations: SRLs have weight limits, and exceeding these limits can lead to failure. The worker’s weight, along with any equipment carried, must be within the SRL’s stated capacity.
• Regular Inspection and Maintenance: Like all safety equipment, SRLs must be regularly inspected and maintained to ensure proper functionality and prevent malfunctions. Any signs of wear or damage should result in immediate replacement.

Understanding these limitations is critical for selecting and using SRLs safely and effectively, always considering worker safety the highest priority.

Environmental factors significantly impact the safety and effectiveness of fall protection equipment. Extreme temperatures, for instance, can affect the material properties of harnesses and lanyards, potentially reducing their strength or causing them to become brittle. Rain, snow, or ice can create slippery surfaces, increasing the risk of falls, and can also compromise the effectiveness of certain equipment, such as those relying on friction.

To account for these factors, we need a multi-pronged approach. First, we must always check the weather forecast before commencing work at heights and select appropriate equipment and clothing accordingly. For example, in freezing conditions, we might use synthetic ropes, which are less susceptible to freezing than natural fibers. In heavy rain, we need to ensure the harness remains dry to avoid its degradation. Second, regular inspection of equipment for any signs of wear or damage, exacerbated by environmental exposure, is crucial. Third, we must implement appropriate safety measures to mitigate hazards caused by environmental conditions like using anti-slip boots and establishing secure anchor points resistant to environmental impacts.

Imagine working on a roof during a blizzard. The snow and ice increase the risk of slipping, and the cold might make the harness stiffer and less comfortable. In this situation, using a harness rated for cold weather, wearing appropriate insulated clothing, and having a solid anchor point are essential for maintaining safety.

Proper training is paramount for safe work at heights. It’s not simply about knowing how to use equipment; it’s about developing a safety mindset and understanding the potential hazards involved. Training equips workers with the necessary knowledge and practical skills to identify, assess, and control risks associated with working at heights.

A comprehensive training program should cover the following aspects:

• Hazard identification and risk assessment: Learning to recognize potential fall hazards and implement appropriate control measures.
• Equipment selection and use: Understanding the different types of fall protection equipment and their limitations, ensuring correct selection and use of equipment.
• Anchor point selection and installation: Establishing secure and reliable anchor points is critical. Training helps workers understand different types of anchor points and proper installation techniques.
• Rescue procedures: Learning how to conduct self-rescue and assist colleagues in case of a fall.
• Emergency response: Understanding emergency procedures, including contacting emergency services and providing first aid.

Without adequate training, workers might use equipment incorrectly, fail to identify hazards, or react inappropriately in an emergency, significantly increasing the risk of accidents. Think of it like driving a car – you can’t operate a vehicle safely without learning the rules of the road and how to handle it correctly.

Several types of fall protection equipment exist, each serving a specific purpose. They are often used in combination to create a complete fall protection system:

• Safety Harness: A body-worn device with straps and attachment points to connect to other fall protection components. Different designs cater to specific tasks and comfort levels.
• Lanyard: A flexible connector that attaches the harness to an anchor point. Lanyards can be shock-absorbing to reduce the forces on the worker during a fall.
• Self-Retracting Lifeline (SRL): A device that automatically retracts the lifeline, keeping the worker close to the anchor point and limiting the distance of a fall. SRLs are excellent for confined spaces or areas with limited fall clearance.
• Full Body Harness: Provides the most comprehensive protection by distributing fall forces across the entire body, minimizing injury risks compared to a chest or waist harness alone.
• Anchor Point: A structural element strong enough to support the weight of a falling worker. This can be a built-in feature of a structure or a specifically installed attachment.
• Fall Arrest Block: A device that helps to arrest a fall by utilizing friction or other mechanisms to slow the descent.

The choice of equipment depends on the specific job, the working environment, and the potential fall distance. It’s crucial to select the right equipment for the task to ensure maximum protection.

My experience encompasses working with various fall arrest systems, including those utilizing SRLs, traditional lanyards, and horizontal lifelines. I’ve worked with systems in diverse settings—from construction sites to industrial plants and confined-space operations. I’m proficient in inspecting and testing these systems to ensure they are compliant with all relevant safety standards.

For instance, I’ve utilized SRLs extensively in situations where fall clearance was limited. The automatic retraction feature of the SRL provides a substantial safety benefit by minimizing the fall distance. In other instances, I’ve designed and implemented systems using horizontal lifelines, ideal when multiple workers are operating along a common line. My experience also covers the use of different types of lanyards, understanding when shock-absorbing lanyards are needed and when a non-shock-absorbing lanyard is suitable.

Through this experience, I’ve learned the critical importance of choosing the right system for the specific work environment. A poorly chosen system can easily lead to accidents, even with correctly used equipment. Rigorous inspection, testing, and regular maintenance are always prioritized to ensure the utmost level of safety.

Compliance with safety regulations and standards is non-negotiable. I meticulously ensure compliance by staying updated on relevant legislation, such as OSHA standards in the US or equivalent regulations in other jurisdictions. I regularly review and follow manufacturers’ instructions for all equipment. This includes understanding the limitations of each piece of equipment and ensuring it’s used within those parameters.

My approach involves several key steps:

• Regular inspections: Conducting thorough inspections of all fall protection equipment before each use to identify any signs of wear, damage, or defects.
• Documentation: Maintaining accurate records of inspections, training, and any maintenance performed on equipment. These records are crucial for demonstrating compliance.
• Training: Ensuring all team members receive proper training on safe work practices and the correct usage of equipment.
• Continuous improvement: Staying abreast of the latest safety standards and best practices to enhance our safety protocols.

Non-compliance can lead to severe penalties, injuries, or fatalities. Proactive compliance is not just about avoiding legal repercussions; it’s about safeguarding lives.

Contributing to a safe work environment is a continuous process that requires proactive engagement and a commitment to safety. My contribution involves several key areas:

• Leading by example: Always adhering to safety protocols and demonstrating safe work practices. This sets the tone for the entire team.
• Hazard identification and mitigation: Proactively identifying potential hazards in the workplace and suggesting appropriate control measures. This includes regular site inspections and reporting of any safety concerns.
• Promoting safety awareness: Encouraging open communication and fostering a culture where team members feel comfortable reporting safety concerns without fear of reprisal.
• Training and mentoring: Providing ongoing training and mentorship to ensure all team members understand and follow safety procedures.
• Enforcing safety rules: Consistently enforcing safety rules and regulations to ensure that everyone works safely.

A safe work environment isn’t just the absence of accidents; it’s a proactive culture where safety is a top priority and everyone feels empowered to contribute to a safe working environment. It’s a shared responsibility that fosters trust and reduces risk.

During a recent project, a worker reported a problem with their harness’s dorsal D-ring – it felt loose. Immediately, I stopped work to investigate. Upon inspection, I found that the stitching around the D-ring had become slightly frayed due to repeated use and minor abrasion from contact with the worker’s equipment. This was a potential safety hazard, as a damaged D-ring could fail under load.

My troubleshooting steps included:

1. Removal from service: The harness was immediately removed from service and tagged as “Do Not Use.”
2. Documentation: I documented the defect, including photographs and a detailed description, for future reference and analysis.
3. Replacement: I provided the worker with a replacement harness that had passed a thorough inspection.
4. Reporting: I reported the incident to the safety manager and initiated a review of our equipment inspection procedures to see if we could improve detection of minor harness wear and tear.
5. Follow-up: The damaged harness was sent for repair or disposal according to our safety policy. We followed up to ensure all harnesses were properly inspected before the next use.

This incident highlighted the importance of regular equipment inspections, thorough documentation, and the immediate action required when a safety issue is identified. It’s always better to be overly cautious when working at heights.