If you're in the tropics (the area between 23.5N and 23.5S latitude) then you'd need to know what date it is, and your precise latitude, to know whether the Sun was closer to the northern horizon or the southern one. In the tropics, the difference won't be very large.
You can calculate this, of course. You'll need to look up the declination of the Sun for the date, and compare this to your own latitude.
If someone is at the horizon, they would see Polaris, also known as the North Star, located at a specific angle above the horizon depending on their latitude. In the Northern Hemisphere, Polaris is positioned nearly directly above the North Pole, so it appears higher in the sky the further north one travels. At the equator, Polaris would be right at the horizon, while in the Southern Hemisphere, it would not be visible at all.
The northern horizon refers to the line where the sky meets the earth in the northern direction. It is the boundary between the sky and the terrestrial landscape when looking towards the north. Observing the northern horizon can be useful for navigation and astronomy purposes.
The angle of Polaris above the northern horizon increases.
Polaris (or the North Star) is almost directly above the North pole. This means that when you stand on the north pole and look directly up, you will see Polaris. This also means that when you stand at the equator and look directly north, you will see Polaris on the horizon. You can not see Polaris from the Southern Hemisphere. The angle Polaris is above the horizon is equal to the degree latitude that you are standing on. Therefore at the equator, Polaris is 0 degrees above the horizon and at the north pole, Polaris is 90 degrees above the horizon.
At the summer solstice, the Sun is 23.5 degrees north of the celestial equator. Love Field, Dallas, TX is at 32.8 degrees north.A "noon fix" is achieved by observing the altitude of the Sun at "local apparent noon", when the Sun is at its highest point in the sky. You can calculate your latitude by taking 90 degrees minus the observed angle above the horizon, or "altitude", and subtracting the declination, or Sun's angle north (or south) of the equator.In this case, we need to work the problem backwards. So take 90 - (latitude) + declination, or 90 - 32.8 + 23.5 = 80.7 degrees.Oh, one other thing; this is the altitude of the Sun above the SOUTHERN horizon. The Sun will never appear north of Dallas at noon. The question asks about the northern horizon. We could calculate the angle above the northern horizon as 180-80.7 or 99.3 degrees above the northern horizon.
The sun is below the northern horizon at midnight in the Northern Hemisphere.
Northern.
The terms "northern horizon" and "southern horizon" refer to the points on the horizon that are directly aligned with the north and south cardinal directions, respectively. This concept is often used in navigation, astronomy, and geography to describe the view of the sky or landscape from a specific location. The northern horizon is where celestial objects rise and set in the northern part of the sky, while the southern horizon corresponds to the southern part. These horizons play a crucial role in determining the position of stars, planets, and other celestial phenomena as observed from Earth.
At 5 degrees latitude, either north or south, the sun sets on every night of the year. So it seems to me that at midnight, it must be below the horizon in EVERY direction.
Orion is visible during the early night during the winter. you look to the south and it should be there. by spring, it will be around the horizon(SSW-SW) at the same time(about 9-11 pm). in the summer, it's visible in the eastern sky just before sunrise. But you should see it again in Autumn, around NEN-E. All of this is from the perspective of North America.
Always above the horizon at your latitude. In the northern hemisphere this will be the northern horizon and the reverse for the southern hemisphere.
Polaris, also known as the North Star, is located almost directly above the North Pole, making it not visible from the Southern Hemisphere. Its altitude, or angular height above the horizon, corresponds to the observer's latitude in the Northern Hemisphere. Therefore, in the Southern Hemisphere, Polaris has an altitude of 0 degrees, meaning it is always below the horizon.
The Perseid meteor shower peaks from about midnight August 12 in the northern hemisphere. One of best of the year. Look towards the northeast. These cannot really be seen in the Southern hemisphere though some will pop up above the northern horizon.
The angular altitude of the North Star, or Polaris, corresponds to your latitude in the Northern Hemisphere. For example, if you are at a latitude of 40 degrees north, Polaris will be approximately 40 degrees above the northern horizon. Conversely, at the equator, Polaris would be at the horizon (0 degrees altitude), and it is not visible in the Southern Hemisphere. Thus, the angular altitude varies directly with your geographic location.
If someone is at the horizon, they would see Polaris, also known as the North Star, located at a specific angle above the horizon depending on their latitude. In the Northern Hemisphere, Polaris is positioned nearly directly above the North Pole, so it appears higher in the sky the further north one travels. At the equator, Polaris would be right at the horizon, while in the Southern Hemisphere, it would not be visible at all.
The northern horizon refers to the line where the sky meets the earth in the northern direction. It is the boundary between the sky and the terrestrial landscape when looking towards the north. Observing the northern horizon can be useful for navigation and astronomy purposes.
Midnight sun is the same ol' sun, only that it never dips below the horizon, and through that remains visible even at midnight. Since there is a tilt to the Earth's axis, we get the arctic and the antarctic circle. Midnight sun can be seen North of the arctic circle when the northern hemisphere has summer, and South of the antarctic circle when the Southern hemisphere has summer.