Fueling a forklift—whether charging batteries or refueling with gas, diesel, or propane—is a high-risk task that must be done with safety top-of-mind. OSHA enforces strict standards for these operations, and understanding the specific requirements for each fuel type is essential. In addition to regulatory compliance, ergonomic practices and the right PPE are vital for protecting workers from chemical exposure, fire hazards, and musculoskeletal injuries.

Transporting loads with a forklift isn’t just about picking them up and driving away—it’s about control, visibility, and stability. OSHA (1910.178(o)(1)) and ANSI standards emphasize the importance of ensuring that all loads are secure, balanced, and safe to move before transport begins. Failure to do so can result in tip-overs, dropped loads, or injury to workers. Let's take a closer look at some common load types and best practices to keep things stable and safe.

Forklifts are essential tools in warehouses, construction sites, and manufacturing facilities—but they're also heavy, powerful machines that can pose serious risks when not properly maintained. That’s why OSHA (Occupational Safety and Health Administration) mandates daily pre-operation inspections of powered industrial trucks (including forklifts) before they are put into service. But how often is “daily,” and how does this requirement apply in different real-world situations?

Welding is one of the most common tasks performed in confined spaces—yet it’s also one of the most misunderstood when it comes to permit requirements. A space that normally doesn’t require a permit under OSHA’s Confined Space standard (29 CFR 1910.146) can quickly change classification when hot work like welding enters the picture.

While both OSHA and NIOSH aim to protect workers, they take very different approaches when it comes to safety thresholds, methodologies, and scope. Below is a deep dive into how their requirements contrast.

Personal protective equipment (PPE) is often the last line of defense on the jobsite. It’s issued, required, and in many cases, checked off on a safety form. But here’s the uncomfortable truth: PPE doesn’t always get worn the way we think it does—and the real reasons why are rarely written in any incident report.

In confined space operations, it's standard practice to deploy four-gas monitors measuring Oxygen (O₂), Carbon Monoxide (CO), Hydrogen Sulfide (H₂S), and Lower Explosive Limit (LEL). While this approach provides a baseline safety measure, it may not address all potential atmospheric hazards specific to each confined space. Over-reliance on this standard configuration can lead to undetected dangers, as evidenced by various incident reports and studies.​

Safety is a critical consideration when designing robot cells, especially as the integration of robotics into industrial processes continues to increase. Ensuring that robot cells are equipped with the right safety devices is essential not only for the protection of human workers but also for compliance with international safety standards. Safety devices such as safety sensors, emergency stop systems, light curtains, and guarding systems work together to ensure that the robot cell operates safely and minimizes the risk of accidents.

Calculating Performance Level (PL) for safety systems in robot cells is a critical part of ensuring the safety and reliability of automated systems. Performance Level (PL) determines the risk reduction capability of a safety system, ensuring that the likelihood of a dangerous failure is minimized. Accurate PL calculations are necessary to ensure that robot cells are compliant with safety standards such as ISO 13849-1 and IEC 62061 while also protecting workers from potential hazards.

Let’s get one thing straight: safety isn’t about filling out forms. It’s not about signing a clipboard at the start of a shift or checking a box that says “Yep, we’re good.” If that’s the extent of your safety program, you don’t have a safety culture—you have a compliance illusion.

Picture this: You're at work, moving through your daily routine, when suddenly, your smartwatch buzzes with a friendly reminder: "Check your harness before climbing." You didn't even have to think about it. But you’re glad it caught you before you made a potentially dangerous mistake. Or how about this: You're working near a high-powered machine, and your wearable vibrates, alerting you to adjust your posture—just in time to avoid an injury. It’s like having a safety coach that’s always watching your back, right in the moment when you need it most.

Imagine the technology that makes a Disney park so seamless—where a wristband unlocks your hotel room, tracks your location, and customizes your experience—being used not for thrills, but to keep people safe at work. That "magic" can be adapted to serious business, especially in high-risk industries like construction, logistics, and manufacturing.

In the context of industrial automation, safety is paramount, particularly in environments that involve robots, automated machines, and other high-risk machinery. As automation continues to advance, the risks associated with these technologies are becoming more complex, and so are the safety standards designed to mitigate them. One of the most critical safety concepts is Performance Level (PL), a crucial element in determining the effectiveness of safety devices and systems

Confined space work is one of the most hazardous tasks in many industries, with the potential for deadly accidents lurking in every step. One of the most critical steps in ensuring worker safety when entering a permit-required confined space is proper isolation. This requirement is clearly outlined in OSHA's 29 CFR 1910.146(d)(3)(iii), which mandates that employers must isolate the confined space from all hazardous energy, materials, and conditions before any worker enters.

In 2016, a construction worker in New York was working on an extension ladder placed in front of an active doorway. A colleague unknowingly opened the door, knocking the ladder over and sending the worker tumbling 15 feet to the ground. The worker suffered fatal head injuries from the fall. This tragedy could have been prevented with proper ladder placement and regulatory enforcement.

Workplace safety is a top priority in high-risk industries like construction and manufacturing. Traditional safety training and hazard detection methods have long been the standard, but Augmented Reality (AR) is revolutionizing the way workers prepare for and respond to workplace dangers. By overlaying digital information onto the real world, AR enhances hazard awareness, improves training, and increases overall job site safety.

Effective safety communication is essential for maintaining a strong safety culture and preventing workplace incidents. When employees feel comfortable reporting hazards, sharing concerns, and discussing safety openly, organizations can proactively address risks before they lead to accidents.

Imagine walking up to a piece of heavy machinery at your workplace and receiving an instant notification on your phone with a two-minute video explaining its safety features. No searching through manuals, no waiting for a supervisor—just immediate, relevant information when and where you need it.

In any workplace, safety is a fundamental concern that affects employees’ well-being, productivity, and overall job satisfaction. However, beyond the physical measures like personal protective equipment (PPE) and hazard controls, there is a less tangible but equally important factor—safety climate. Understanding what safety climate is and how employers can shape it can have a profound impact on reducing workplace incidents and fostering a culture of safety.