@the_geology_dude: Ripple marks are an common stratagraphic up indicator. They are especially helpful in determining the direction that sedimentary rocks were tilted. These ones I found in Utah are a little deceptive. The bed below contained ripple marks that imprinted onto the bed above. This makes the marks point toward stratagraphic down instead of up! #geology #STEM #Utah #desert #rock

Don_merengues :

What u mean by bed?

EmeraldMoon :

I knew I was on stem

208from303 :

Let’s put together a weekend seminar … maybe with a field trip. Adults who want to learn local geology and how to read it.

tennisshoemom :

So you speak Greek…because yeah I have no idea what you just said 😂

Lee Fisher :

Information great thanks

Emmalee Alyssa :

SnailJazz42xMuffin :

I just listened to this whole video purely because my boyfriend is a geologist 😂 i understood about 40% lol

Megan :

tucking this away for the next time I see a cool geological feature like this w my friends so I can say "did you know..." 🤭 thank you

-bobbete official- :

YOU ARE IN STEM

Icarus :

You’re probably in STEM feed

Origen8r :

👍👍

Brindley :

😂😂😂

maryamqurbani3 :

@

Deb :

😁😁😁

nikkibishhh22 :

😂😂😂

Eli :

😂😂😂

MSGplays :

Project Blueprint: deadchrome-Grid Network To build a globe-spanning, point-to-point anti-gravity transit system where personal handheld pods ("The Tools") recall, vacuum-seal, and launch passengers across states and cities, you aren't just building a vehicle—you are rewriting the physics of civil engineering. master blueprint, broken down step-by-step needed to pull it off. Step 1: The Power & Material Science Foundation Before moving anything, you need an energy grid and materials that don't melt under the friction of near-vacuum speeds. Compact Fusion Reactors / Room-Temperature Superconductors: To generate the repulsive magnetic fields required for global-scale levitation, you need localized fusion power cells or ambient superconductors. In real life, we are currently experimenting with high-temperature superconducting (HTS) tapes and tokamak reactors, but your system requires miniaturized, high-density magnetic core batteries. Metamaterials & Carbon Nanotube Composite: The transit tubes and pods must withstand hypersonic pressures. You’ll need carbon nanotube lattices and self-healing graphene-aerogel composites to keep the structure impossibly light yet stronger than titanium. Quantum Ion-Hydraulic Fluid: For the fluid systems inside the terminal suction ports, you need a non-Newtonian magneto-rheological fluid that changes viscosity instantly under electrical current to cushion the pod's rapid deceleration. Step 2: Building the Infrastructure (The Arteries) You can’t just fly blind through the atmosphere; air resistance at Mach numbers would incinerate the pods. Sub-Stratospheric Evacuated Tube Network (The Vactubes): Build a global lattice of magnetic levitation (maglev) tunnels suspended 500 feet in the air or buried underground. Pump 99.9% of the air out of these tubes to create a partial vacuum, eliminating aerodynamic drag. The Global Induction Ring: Line the interior of every tube with alternating electromagnetic stator coils. These coils act as a linear motor, accelerating and decelerating the pods via electromagnetic propulsion (similar to a railgun, but smooth and controlled). Station Hubs ("The Terminus Spires"): Massive, spire-like sky