If the earth is treated as a sphere, the formula is 6371 km * cos-1(cos(Long1-Long2)cos(Lat1)cos(Lat2)+sin(Lat1)sin(Lat2))Here, Long1 and Lat1 are the coordinates of one point, and Long2 and Lat2 are the coordinates of the other. 6371 km is the radius of the Earth (which you could convert to miles to get an answer in miles for your distance). You'll notice we're taking sines and cosines of latitude and longitude: this is because they're really angles! Longitude measures a point's angle in the equator's plane, and latitude measures its angle away from that horizontal. If you've seen spherical coordinates before, this should be familiar. The formula assumes you're dealing with angles in radians. If you want to use degrees, you'll have to multiply the final answer by pi/180. Here's how to get this formula. First, note that it's very easy to get a distance between two points on a sphere if you know the angle of the arc between them: just multiply it by the radius. So we're going to concentrate on finding this angle. We're going to use the fact that the dot product of two vectors is equal to the product of their lengths, times the cosine of the angle between them. At the same time, we can compute a dot product coordinate by coordinate. Let the vectors a and b be the vectors from the center of the earth to each of our points. Using spherical coordinates, we can write them down explicitly: a = (r cos(Long1)cos(Lat1), r sin(Long1)cos(Lat1), r sin(Lat1)) b = (r cos(Long2)cos(Lat2), r sin(Long2)cos(Lat2), r sin(Lat2)) We take their dot product and get r^2 (cos(Long1)cos(Long2)cos(Lat1)cos(Lat2) + sin(Long1)sin(Long2)cos(Lat1)cos(Lat2) + sin(Lat1)sin(Lat2)) By the other formula for dot product, this is r^2 times the cosine of the angle between them. So cancel the r^2, and take the inverse cosine. You'll get the formula above (if you simplify some terms). In fact the earth is not a sphere. It is generally an "oblate spheroid", meaning that it is somewhat flattened at the poles. But the true shape of the Earth is actually irregular, and it is therefore impossible to determine by formula the exact distance between two points. Various approximations of the shape of the earth, called reference ellipsoids, are used in other, more complex formulas that come closer to the actual distance. The spherical solution given here is pretty close for many purposes though.
yes
Yes, by using the distance formula.
Distance from (0, 0) to (5, 12) using distance formula is 13
By using the distance formula between two coordinated points
Points: (6, -2) and (6, 2)Using the distance formula: 4
The angular distance between two points on a sphere can be calculated using the Haversine formula, which involves the latitude and longitude of the two points. The formula takes into account the Earth's radius and computes the central angle between the points, which can then be converted to angular distance.
The distance between two points on Earth can be calculated using the haversine formula. Given the coordinates, the distance between these two points is approximately 81.42 km.
One way to find the latitude and longitude of Point A based on a known point B and distance between them is to use the Haversine formula, which calculates the distance between two points on Earth using their latitudes and longitudes. However, this formula does not directly provide the coordinates of Point A itself; it's used to determine the distance. To find the coordinates of Point A, you would need to further manipulate the formula and solve the equations to derive the desired latitude and longitude.
The Prime Meridian is defined as zero degrees of longitude. The distance in miles between degrees of longitude depends on the latitude; one degree of longitude equals the cosine of the latitude * 60 nautical miles. Note: If you're using Excel or some other spreadsheet program, be sure to convert degrees into radians before calculating the cosine of the latitude.
Yes, the distance between two points can be found if the longitude and latitude are known for both points. This can be calculated using the haversine formula, which takes into account the curvature of the Earth to determine the shortest distance between the two points.
Places on Earth can be located using a coordinate system, such as latitude and longitude. Latitude measures a location's distance north or south of the equator, while longitude measures its distance east or west of the Prime Meridian. By combining these coordinates, any point on Earth's surface can be pinpointed with accuracy.
1.longitude lines go vertically 2. latitude lines go horizontally 3.latitude is the angular distance o degrees of the equator By "vertically" is meant "north-south". By "horizontally" is meant "east - west".
Through using longitude and latitude.
what using a longitude and latitude is used to create map showing exact location
Lines of latitude and longitude help us locate places on maps and globes. Latitude lines run horizontally and measure the distance north or south of the equator, while longitude lines run vertically and measure the distance east or west of the prime meridian. By using these lines, we can pinpoint the exact coordinates of any location on Earth.
Latitude - is the distance from the equator (either north or south). Longitude - is the distance from the Prime Meridian in Greenwich, England (either east or west). Using these values you can pinpoint your position anywhere on Earth.
Latitude - is the distance from the equator (either north or south). Longitude - is the distance from the Prime Meridian in Greenwich, England (either east or west). Using these values you can pinpoint your position anywhere on Earth.