Which convection model suggests that cold oceanic lithosphere sinks to great depths? Which convection model suggests that cold oceanic lithosphere sinks to great depths? slab pull ridge push whole mantle layer cake

slab pull

Explanation:

Slab pull convection model suggest that cold oceanic lithosphere sinkd to great depths (the asthenosphere) and that as they sink, they pull trialing plates along.

Slab pull suggests that cold oceanic lithosphere sink to great depths.

Explanation:

Slab pull is one of the two primary driving forces of plate motion.

When lithospheric plates cool and become denser as they move away from midocean ridges, they eventually become denser than the underlying hot mantle, and the dense lithosphere "sinks like a rock" into the mantle under its own weight. This motion pulls the rest of the plate with it down into the mantle by gravity.

really old

explanation:

i mean it is google has no answer

explanation:

high and low pressure systems produce opposing weather conditions. high pressure systems are generally associated with fair weather, while low pressure systems bring clouds, precipitation and sometimes stormy conditions.

fair vs. stormy conditions

high and low pressure systems produce opposing weather conditions. high pressure systems are generally associated with fair weather, while low pressure systems bring clouds, precipitation and sometimes stormy conditions. while just sunshine and fair-weather clouds typically accompany high pressure systems, a range of conditions, ranging from mild drizzle to heavy snow to intense lightening, occur under areas of low pressure. additionally, high pressure systems usually produce only light winds, while the storminess associated with low pressure systems can produce strong, sometimes even damaging winds.

sinking vs. rising air

high pressure systems entail sinking air, while lows entail rising air. high pressure systems form where air converges in the higher levels of the atmosphere. the converging air has nowhere to go and is forced to sink toward the ground. this sinking effect inhibits cloud formation and therefore precipitation. in contrast, low pressure systems form where air near the ground converges. with no place else to go, it rises. in doing so, water vapor cools and condenses into tiny water droplets or ice crystals, producing clouds and precipitation.

clockwise vs. counterclockwise wind flow

due to the rotation of the earth -- precisely, the coriolis effect -- winds spiral around high and low pressure systems in a circular pattern. but they do so in opposite directions, and these directions are reversed in the earth’s two hemispheres. in high pressure systems, the air flows clockwise in the northern hemisphere and counterclockwise in the southern hemisphere. with low pressure systems, winds blow counterclockwise in the northern hemisphere and clockwise in the southern hemisphere.