The sun's rays are strongest at the equator where the sun is most directly overhead and where UV rays must travel the shortest distance through the atmosphere. The ocean receives most of its heat along the equator, where incoming solar radiation is about double that received at the poles. Hence, sea surfaces are much warmer along the equator than at the poles. Due to the spherical shape of the Earth, sunlight falls on different parts at different angles. Direct and focused sun rays falls on the equator and hence, the regions here are hotter and warmer. The Polar Regions receive diffused sun rays, which is why the areas there are colder.
Because the equator is closer to the sun the sun's rays travel through more atmosphere at the equator. The sun's energy is more spread out at the equator. The ocean receives most of its heat along the equator, where incoming solar radiation is about double that received at the poles. Hence, sea surfaces are much warmer along the equator than at the poles. Sunlight hits a smaller surface area at the Equator so heats up quickly compared to the poles. There are fewer atmospheres to pass through at the Equator compared to the poles. This means more heat from the sun makes it to the surface of the Earth. Because the sun's rays hit the earth's surface at a higher angle at the equator. Areas near the equator receive more direct solar radiation than areas near the poles. However, these areas do not constantly get warmer and warmer, because the ocean currents and winds transport the heat from the lower latitudes near the equator to higher latitudes near the poles. The sun's rays are strongest at the equator where the sun is most directly overhead and where UV rays must travel the shortest distance through the atmosphere.Because Earth is a sphere, not all part of the Earth receives the same amount of solar radiation. More solar radiation is received and absorbed near the equator than at the poles. Near the equator, the Sun's rays strike the Earth most directly, while at the poles the rays strike at a steep angle. So the equator area is getting more than twice as much light. We can easily see from this why the sun might appear very much brighter or dimmer depending on the angle, and therefore depending on the latitude. This also explains the temperature difference: the equator is receiving a lot more energy, so it gets hotter.
When the sun's rays strike Earth's surface near the equator, the incoming solar radiation is more direct. Therefore, the solar radiation is concentrated over a smaller surface area, causing warmer temperatures. Areas near the equator receive more direct solar radiation than areas near the poles. However, these areas do not constantly get warmer and warmer, because the ocean currents and winds transport the heat from the lower latitudes near the equator to higher latitudes near the poles. Due to the spherical shape of the Earth; sunlight falls on different parts at different angles. Direct and focused sun rays falls on the equator and hence, the regions here are hotter and warmer. Sunlight hits the Earth most directly at the Equator. The curve of the Earth means that sunlight is spread over a wider area the further you move from the Equator. Sunlight hits a smaller surface area at the Equator so heats up quickly compared to the poles. The Sun does not heat all parts of the Earth to the same extent; the Equator receives more energy than the poles. This is because the Earth is round and spins leaning over in relation to the Sun. Much more heat is absorbed at low than at high latitudes. This is because the Earth's surface gradually tilts away from the sun as you move away from the equator. Earth's curved surface causes sunlight to strike Earth at an angle above and below the equator. This means that sunlight is less intense or concentrated farther away from the equator, and Earth's surface doesn't warm up as much. Earth's axis always tilts toward the North Star.