The biggest expense was installing the mantle ducts to keep the carbonate-silicate cycle operating.
There’s no way that’s going to hold, right?
Submitted 5 days ago by schnurrito@discuss.tchncs.de to xkcd@lemmy.world
The biggest expense was installing the mantle ducts to keep the carbonate-silicate cycle operating.
There’s no way that’s going to hold, right?
If that picture is to scale, those bolts are ~5km thick. Put enough of them and it should hold
After a certain point, the material around the bolt is more brittle than the bolt itself.
the crust … starts crumbling somewhere else creating new mountains or islands
Exactly. The oceanic crust will (in geologic time) crack in front of the bolts and be dragged down parallel to the bit that was bolted, stacking the oceanic crust with the newer bit under the older one.
The cracking and stacking happens naturally and this creates stacks of many oceanic crust sections moving to the left of the picture.
At geological timescales everything is a liquid
I took an atmospheric science class in college and the professor described the field as “fast geology”, I like your description though that geology is the study of slow fluids!
Something like a Tapcon would seem more suitable for the job
Problem. Plates are still moving apart. Earth is increasing in volume, but no mass.
Floats away
Does anti-subduction = abduction?
No domduction
Someone else remembers that episode of the Ghostbusters cartoon.
Peppycito@sh.itjust.works 4 days ago
Who’s going inside to hold the bolt? Should have used a T-nut.
SkyezOpen@lemmy.world 4 days ago
Just ask the mole people.
redsand@lemmy.dbzer0.com 4 days ago
Someone make use of AI and show us some coastal scenery.
Maybe with a nuclear rocket drill to fasten it.