Another Ball Earth conundrum...
If it is true that the northern hemisphere is hotter than the southern hemisphere when the north pole is pointed toward the sun (northern summer; north gets more sun than south) - and, the southern hemisphere is hotter than the northern hemisphere when the south pole is pointed toward the sun (southern summer; south gets more sun than north) - then, it really should be equally as hot at the two half-way-in-between points of 'spring' and 'fall' - and, even more hot than the other two positions - because, the light of the sun is constantly and consistantly hitting the globe from-north-pole-to-south-pole.
During the 'spring' and 'fall' seasons, it should be the hottest everywhere - and, evenly - all at the same time.
"Think about it..."
If it is true that the northern hemisphere is hotter than the southern hemisphere when the north pole is pointed toward the sun (northern summer; north gets more sun than south) - and, the southern hemisphere is hotter than the northern hemisphere when the south pole is pointed toward the sun (southern summer; south gets more sun than north) - then, it really should be equally as hot at the two half-way-in-between points of 'spring' and 'fall' - and, even more hot than the other two positions - because, the light of the sun is constantly and consistantly hitting the globe from-north-pole-to-south-pole.
During the 'spring' and 'fall' seasons, it should be the hottest everywhere - and, evenly - all at the same time.
"Think about it..."
The light (and, by extension, heat) impacting the surface of a sphere from a single source are dependent upon the angle at which that light impacts the surface. At the equator, the light hits at roughly 90 degrees, which means the maximum possible heat is imparted to that area of the globe. Nearer the poles, the same amount of light (and heat) is distributed over a much larger surface area, resulting in less rise in temperature.
Here is a very simple diagram (source light rays hitting sphere - Bing images ). Note the difference in size of the two "impact zones":
Larger "impact zones" mean the same amount of energy is spread over a larger area, resulting in a smaller effect at any point within that area. This is perfectly consistent with the warm equator and cool polar regions, and perfectly consistent with a globe Earth.
"Think about it..."
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