Intel’s 916,000-pound shipment is a “cold box,” a self-standing air-processor structure that facilitates the cryogenic technology needed to fabricate semiconductors. The box is 23 feet tall, 20 feet wide, and 280 feet long, nearly the length of a football field. The immense scale of the cold box necessitates a transit process that moves at a “parade pace” of 5-10 miles per hour. Intel is taking over southern Ohio’s roads for the next several weeks and months as it builds its new Ohio One Campus, a $28 billion project to create a 1,000-acre campus with two chip factories and room for more. Calling it the new “Silicon Heartland,” the project will be the first leading-edge semiconductor fab in the American Midwest, and once operational, will get to work on the “Angstrom era” of Intel processes, 20A and beyond.
I don’t know why, but I’ve never thought of the transport logistics involved in building a semiconductor fabrication plant.
This is why ultrasized cargo airships need to be a thing. Just sling that bad boy underneath a kilometre long hydrogen dirigible and fly it to its destination.
Or, historically, when you’re building a new factory, the first thing you do is build a rail connection right next to it
This is also good, but, on the other hand, airships are awesome
A rail line that can handle a 280 foot piece of cargo would be heaven for high speed adoption with how straight it would have to be.
Oh the humanity
if you look at the history of what happened to each Zeppelin airship you get a really good idea why it’s a bad idea.
LZ1: damaged during initial flight, repaired and flown two more times before investors backed out causing the ship to be sold for scrap.
LZ2: suffered double engine failure and crashed into a mountain. While anchored to the mountain awaiting repairs a storm destroyed it beyond repair.
LZ3: built from salvaged parts of LZ2. Severally damaged in storm. After LZ4’s destruction LZ3 was repaired and was accepted by the German military who eventually scrapped it.
LZ4: suffered from chronic engine failure. While repairing the engines a gust of wind blew the ship free of its mooring and struck a tree causing the ship to ignite and burn to the ground.
LZ5: destroyed in a storm.
LZ6: destroyed in its hanger by fire.
LZ7: destroyed after crashing in a thunderstorm.
LZ8: destroyed by wind.
LZ9: this one actually worked and survived for three years before being decommissioned.
LZ10: caught on fire and destroyed after a gust of wind blew its mooring line into itself.
LZ11: destroyed while attempting to move the ship into it’s hanger
LZ12 & LZ13: both flew successful careers before being decommissioned a few years later.
LZ14: destroyed in a thunderstorm.
LZ15: destroyed during an emergency landing.
LZ16: was stolen by the French. ***
LZ17: decommissioned after the war.
LZ18: exploded during its test flight.
LZ19: damaged beyond repair during an emergency landing.
LZ129: the Hindenburg.
LZ127: retired and scrapped after flying over a million miles.
LZ130: flew 30 flights before being dismantled for parts to aid in the war effort
The problem is with airships and aerostats in general is you need a massive balloon just to lift a small amount of weight but the larger you make it the more susceptible to weather it ends up being. With the amount of surface area a balloon that’s a 1km long has you would have to spend a considerable amount of energy just to stop it from blowing away in the wind, as inefficient as it is the truck may actually use less fuel because of this.
Yes because the 1920s-1940s are famously indicative of reliable hydrogen based airship transport
Sure, throw out a perfectly good idea because technology hasn’t advanced at all in the last 100 years.
They aren’t very good, and they probably can’t be. You’re limited by the laws of physics on what they can carry for their enormous size. The Hindenberg was the largest of them, but including passengers and crew together, it carried less than 100 people. They scale really, really poorly.
We can improve on old dirigibles somewhat with lighter weight materials and engines. We’re ultimately limited by the volume of the lifting gas, and we’re just not going to add that much more capacity. Even if someone figured out a vacuum dirigible (which would be very vulnerable to a puncture), it’d only improve things marginally. It’s an interesting engineering challenge, though.
One thing where dirigibles might be useful is windmill blades. Blades aren’t that heavy, but they can’t get much bigger while being transported on highways. Constructing the blades on site is another option, so we’ll see which one wins.
Science and engineering aren’t magic that makes everything better over time always, and people need to stop acting like it does. There are physical limits that we can’t breach. As another example, we haven’t significantly improved on the drag coefficient of designs by Porsche or the Chrysler Airflow back in the 1930s. There was a design Mercedes came up with a while back that’s based on the boxfish that did reduce it further, but its frontal cross section is so high that it doesn’t matter, anyway. (It’s also ugly as fuck, but that’s a different matter.)
Isn’t the more recent direction airships?
Lifting volume and flammability (is that a word?). It’s just a very volatile gas and we’re not going to magic that away with fancy tech. There are more reliable ways to move freight through the air.