The direct variation formula for weight on Earth compared to weight on the Moon can be expressed as ( W_m = \frac{1}{6} W_e ), where ( W_m ) is the weight on the Moon and ( W_e ) is the weight on Earth. This indicates that an object's weight on the Moon is one-sixth of its weight on Earth due to the difference in gravitational force. Consequently, if you know an object's weight on Earth, you can easily calculate its weight on the Moon using this formula.
At an altitude of 40,000 feet (approximately 12,192 meters), gravity is slightly decreased compared to sea level, but the change is minimal. The acceleration due to gravity at this altitude is about 9.8 m/s², compared to approximately 9.81 m/s² at sea level. This represents a decrease of about 0.3%, which is not significant for most practical purposes.
The gravity on the surface of Mars is approximately one third of that on the surface of Earth. Comment: I always say "about 38%".
The gravity on Callisto, one of Jupiter's moons, is about 0.126 times that of Earth's gravity, or approximately 1.24 m/s^2. This low gravity is due to Callisto's relatively small size and mass compared to Earth.
At a height of 6400 km above the Earth's surface, the acceleration due to gravity can be calculated using the formula ( g' = g_0 \left( \frac{R}{R + h} \right)^2 ), where ( g_0 ) is the acceleration of gravity at the Earth's surface (approximately 9.81 m/s²), ( R ) is the Earth's radius (about 6400 km), and ( h ) is the height above the surface. Substituting the values, the effective gravity at this height is approximately 2.45 m/s². This demonstrates that gravity decreases with altitude, being significantly weaker at that height compared to the surface.
The sun gravity is stronger
weight on earth=x weight on moon=z formula=x divided by 6 = z i think i splaind it right EXAMPLE: weight on moon=weight earth divided by gravity weight on moon=250N divided by 6 weight on moon=41.66. an object that weight 250N on earth, weight 41.66N on moon. A+=6
When compared to the surface gravity of Earth, Neptune has approximately 14% more gravitational pull. This is a small difference when compared to other planets in the solar system.
The electromagnetic force is approximately 1036 times stronger than gravity.
At an altitude of 40,000 feet (approximately 12,192 meters), gravity is slightly decreased compared to sea level, but the change is minimal. The acceleration due to gravity at this altitude is about 9.8 m/s², compared to approximately 9.81 m/s² at sea level. This represents a decrease of about 0.3%, which is not significant for most practical purposes.
The gravity on the surface of Mars is approximately one third of that on the surface of Earth. Comment: I always say "about 38%".
To find Tobias's mass, we use the formula: weight = mass x gravity. Given that the weight is 784 N and assuming gravity is approximately 9.81 m/s^2, we can rearrange the formula to find mass: mass = weight / gravity. Therefore, Tobias's mass is approximately 80 kg.
The acceleration due to gravity on Mercury is approximately 3.7 m/s², which is about 38% of the acceleration due to gravity on Earth. This is due to Mercury's smaller mass and radius compared to Earth.
The formula for calculating weight is weight = mass x gravity, where mass is the amount of matter in an object (measured in kilograms) and gravity is the force of gravity pulling on the object (approximately 9.81 m/s^2 on Earth).
Well, darling, API gravity is a measure of how heavy or light a petroleum liquid is compared to water. To convert API gravity to pounds per gallon, you'll need to use a specific formula that takes into account the density of water and some other fancy factors. So, grab your calculator and get ready to crunch some numbers if you want to make that conversion happen.
helium doesn't have a specific gravity
The gravity on Callisto, one of Jupiter's moons, is about 0.126 times that of Earth's gravity, or approximately 1.24 m/s^2. This low gravity is due to Callisto's relatively small size and mass compared to Earth.
The force of gravity pulling on a mass depends on the mass of the object and the acceleration due to gravity. The force can be calculated using the formula: force = mass x gravity. On Earth, the acceleration due to gravity is approximately 9.81 m/s^2.