Star cells simplified.

chapter twenty eight informed learnt existence as there are several theories about permeability and probabilities as some remain in lock. About star energy travel scientists have long-predicted the sun contains giant cell structures, 15 times the diameter of Earth. 
The research team now hopes to observe how magnetic fields respond to flows within the giant cells. Finding the connection between flow and magnetism could allow scientists to better predict the behaviour of solar storms and how they'll affect the solar system. These solar cells, some large enough to span half the distance between the Earth, transport heat from the sun’s depths to its surface. 
But despite their huge size, the massive structures have, up until now, eluded researchers. The secret structure of the sun as Nasa maps enormous, swirling plasma flows to reveal inner workings of the star Plasma flows drive cells that transport heat from sun’s depths to surface Up until now, they have eluded scientists as they only move at 10 metres/s. The finding may explain why the sun rotates about 30 per cent faster near its equator and could help better predict solar storms. Ancient meteorite reveals the solar system is 4.5682 billion years old, 1.9 million years older than we thought. The difference seems insignificant, but it could mean our solar system was actually born in the blast furnace of a supernova.

Mr Hathaway and fellow researchers used Nasa’s Solar Dynamics Observatory to monitor the sun every 45 seconds over a couple of months. 
They were able to determine that large groups of super granules were being moved by an underlying presence - the long-sought giant cells. The cells are important to understanding the sun's weather and could scientists better understand where sunspots form. Giant, long-lived convective structures (left) move plasma on the sun's surface. Earlier observations found only much smaller plasma flows covering the sun (right). In these illustrations, blue indicates plasma flowing east to west; red indicates west to east. In the convective zone, which is the outermost 30 per cent of the sun, rising plasma carries heat generated by nuclear fusion in the sun’s centre. 
Once at the surface, most of the plasma’s energy radiates into space. The denser plasma, which is also cooler, then sinks, driving further convection and creating circulating loops. These are called convection cells and some are 15 times the diameter of Earth. Now, David Hathaway, a Nasa researcher who 30 years ago worked on the problem as an intern, claims to have discovered the cells. His finding supports a decades-old explanation as to why the sun rotates about 30 per cent faster near its equator than it does near its poles.

In the convective zone, which is the outermost 30 percent of the sun, rising plasma carries heat generated by nuclear fusion in the sun’s centre its hopper..
 Once at the surface, most of the plasma’s energy radiates into space. The denser plasma, which is also cooler, then sinks, driving further convection and creating circulating loops. These are called convection cells and some are 15 times the diameter of Earth. In 1801, astronomer William Herschel noticed smaller versions of these cells, about 1,000 km across, which became known as ‘granules’. By the 1960s scientists had discovered ‘super granules,’ which were around 30,000 km across. However, researchers have since predicted the existence of even bigger ‘giant cells,’ roughly 200,000 km across. Finding the connection between flow and magnetism could allow scientists to better predict the behaviour of solar storms and how they'll affect the solar system It has taken so long to prove these giant cells exist because they move slowly relative to other solar features. The material within the granules move at around 3,000 metres per second and super granules flow at 500 metres per second, however, giant cells have flow velocities of just 10 metres per second.