Tree Size Comparison | 3D🌴 @REDSIDEofficial

Uploaded July 2019 | Updated September 2026, 2 hours ago

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#tree #treesize #comparison

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Video Details:
This video was made with CINEMA 4D
Work: 35 Days
Render Time: 74 Days (Physical Render)

Music:
1-Tristan Lohengrin - The End Of The World (youtube.com/c/tristanlohengrin)
2-Birds Sound Effects
3-Wind Sound Effects

Source: Wikipedia
keshitsubo
grass, wheat
sunflower, Apple tree
Rocky Mountain Juniper, Socotra Dragon tree
olive, Salix Babylonica
Common Hawthorn, Southern Live oak
Mediterranean cypress, Stone Pine
Limber Pine, Palm tree
Baldcypress, Sycamore
Araucaria Araucana, Common Oak
Brazil Nut, Kauri
Eucalyptus, Patagonian cypress
Noble fir, Giant Sequoia
Coast Douglas fir, Yellow Meranti
Sequoia sempervirens

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$STRUCTURE of the EARTH 3D 🏔 RED SIDE STORE is here : https://bit.ly/38JfIYv MUSIC: 1-Digging in the dark - Documentary Music (By CO.AG music) 2-Eureka WIKIPEDIA: STRUCTURE OF THE EARTH The internal structure of the Earth is layered in spherical shells: an outer silicate solid crust, a highly viscous asthenosphere and mantle, a liquid outer core that is much less viscous than the mantle, and a solid inner core. Scientific understanding of the internal structure of the Earth is based on observations of topography and bathymetry, observations of rock in outcrop, samples brought to the surface from greater depths by volcanoes or volcanic activity, analysis of the seismic waves that pass through the Earth, measurements of the gravitational and magnetic fields of the Earth, and experiments with crystalline solids at pressures and temperatures characteristic of the Earths deep interior. STRUCTURE The structure of Earth can be defined in two ways: by mechanical properties such as rheology, or chemically. Mechanically, it can be divided into lithosphere, asthenosphere, mesospheric mantle, outer core, and the inner core. Chemically, Earth can be divided into the crust, upper mantle, lower mantle, outer core, and inner core. The geologic component layers of Earth [not in citation given] are at the following depths below the surface: The layering of Earth has been inferred indirectly using the time of travel of refracted and reflected seismic waves created by earthquakes. The core does not allow shear waves to pass through it, while the speed of travel (seismic velocity) is different in other layers. The changes in seismic velocity between different layers causes refraction owing to Snells law, like light bending as it passes through a prism. Likewise, reflections are caused by a large increase in seismic velocity and are similar to light reflecting from a mirror. CRUST The Earths crust ranges from 5–70 kilometres (3.1–43.5 mi) in depth and is the outermost layer. The thin parts are the oceanic crust, which underlie the ocean basins (5–10 km) and are composed of dense (mafic) iron magnesium silicate igneous rocks, like basalt. The thicker crust is continental crust, which is less dense and composed of (felsic) sodium potassium aluminium silicate rocks, like granite. The rocks of the crust fall into two major categories – sial and sima (Suess, 1831–1914). It is estimated that sima starts about 11 km below the Conrad discontinuity (a second order discontinuity). The uppermost mantle together with the crust constitutes the lithosphere. The crust-mantle boundary occurs as two physically different events. First, there is a discontinuity in the seismic velocity, which is most commonly known as the Mohorovičić discontinuity or Moho. The cause of the Moho is thought to be a change in rock composition from rocks containing plagioclase feldspar (above) to rocks that contain no feldspars (below). Second, in oceanic crust, there is a chemical discontinuity between ultramafic cumulates and tectonized harzburgites, which has been observed from deep parts of the oceanic crust that have been obducted onto the continental crust and preserved as ophiolite sequences. Many rocks now making up Earths crust formed less than 100 million (1×108) years ago; however, the oldest known mineral grains are about 4.4 billion (4.4×109) years old, indicating that Earth has had a solid crust for at least 4.4 billion years. MANTLE World map showing the position of the Moho. Earths mantle extends to a depth of 2,890 km, making it the thickest layer of Earth. The mantle is divided into upper and lower mantle. The upper and lower mantle are separated by the transition zone. The lowest part of the mantle next to the core-mantle boundary is known as the D″ (pronounced dee-double-prime) layer. The pressure at the bottom of the mantle is ≈140 GPa (1.4 Matm). The mantle is composed of silicate rocks that are rich in iron and magnesium relative to the overlying crust. Although solid, the high temperatures within the mantle cause the silicate material to be sufficiently ductile that it can flow on very long timescales. CORE Main articles: Earths inner core and Earths outer core The average density of Earth is 5.515 g/cm3.[8] Because the average density of surface material is only around 3.0 g/cm3, we must conclude that denser materials exist within Earths core. This result has been known since the Schiehallion experiment, performed in the 1770s. Charles Hutton in his 1778 report concluded that the mean density of the Earth must be about that of surface rock, concluding that the interior of the Earth must be metallic. Hutton estimated this metallic portion to occupy some 65% of the diameter of the Earth. Follow! FB : https://www.facebook.com/redsidefanpage Insta: https://www.instagram.com/redside_channel/$

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Tree Size Comparison | 3D🌴