Primarily, the pan’s original design created too many costly, time-consuming maintenance stops. While using A514 and A36 steels may have seemed “beefy” in order to deliver a super-strong performance, this style loader with multiple-support ribs requires multiple weld joints that actually contribute to downtime as a result of them cracking under heavy use.
Not only that, but the hefty pan loader exerts added strain on the mobile harbor crane’s hydraulic system, and its overall weight put extra pressure on lift capacity, impacting the entire loading process. The maximum weight per swing allowed by the crane is 70 tons. The weight for the recycling pan was 20 tons, thus limiting the maximum scrap weight to just 50 tons.
“Our old skip loading pan is heavier and thicker with a lot of parts welded together,” explains Moises Figueroa, SA Recycling’s Regional General Manager. “It requires a lot of welding because it cracks, definitely bends, so it gives us a lot of downtime. Therefore, we were looking for options to see how we could keep the size, get more volume and lighten it up.”
Faced with these challenges, SA Recycling’s team wanted to build better and develop a higher performing, longer lasting, efficient, less burdensome scrap pan as light as possible to increase payload. But how?