Platform safety is not a one-size-fits-all problem. Different railway systems around the world have developed their own answers to the same fundamental challenge: how to prevent passengers from falling onto the tracks while keeping platforms accessible for trains with varying door positions and stop...
Not every railway station was built with platform screen doors in mind. Many existing stations across Asia, Europe, and the Middle East were designed decades ago, with platform geometries, concrete specifications, and train stopping systems that cannot easily accommodate full-height PSDs. Retrofitti...
China’s high-speed rail network now stretches over 40,000 kilometers, connecting more than 1,000 stations across the country. With that scale comes a practical question: how do you secure every platform against falls and intrusions when no two stations are quite the same? Full-height platform screen...
Light rail systems have a safety problem that full-height platform screen doors can't solve. The issue comes down to stopping precision. Metro and heavy rail trains stop within ±5 centimeters of their target position every time. Light rail vehicles? Their stopping accuracy ranges from ±20 to ±30 cen...
36V vs 120V/240V Bollards: Why Low Voltage is Safer When choosing automatic bollards, voltage is rarely the first spec buyers consider. But it should be. The difference between a 36V system and a 120V or 240V system affects installation cost, operator safety, and long-term reliability—and not in the...
36V vs 120V/240V Bollards: Complete Safety and Cost Comparison Most buyers select automatic bollards based on crash rating, diameter, or rise height. Voltage rarely enters the conversation until the electrician hands over the first bill. By then, it's too late. The voltage your bollard system runs o...
ipv6 network supported 