If you weighed 100 kilograms on Earth you would weigh how much kilograms on Saturn?
339407
Here you go...\n\nGRAVITY:\n\nEarth - 100%\nMoon - 16%\nMercury - 37%\nVenus - 88%\nMars - 38%\nJupiter - 264%\nSaturn - 115%\nUranus - 93%\nPluto - 6%\nSun - 2790%
537795
See the "physical characteristics" section on:\n\nhttp://en.wikipedia.org/wiki/Saturn_(planet)
930755
Which means your mass on Venus is 15 kg, and your weight on Venus is 147 * .91 = 134 lbs.
895490
Mass = weight / acceleration due to gravity.\n\nIts weight on earth is 35N, and acceleration due to gravity on earth is 9.8m/s2 ...  so its mass is 35 / 9.8 = 3.57Kg  \n\nOn the other planet its weight = mass x acceleration due to gravity for that planet.\n\nwe know its mass is 3.57Kg so we need to find the planets gravitational pull to multiply it by.\n\nwe know an object falls 50m in 5 secs\n\nso using    S= 1/2 a t^2\n\n                  50 = 1/2 x a x 25\n                 100 = 25a\n                  a= 4 m/s2\n\n\nSo to find the weight on the other planet   F=ma   = 3.57 x 4  = 14.3N
60658
Saturn is about 9.6 times farther from the Sun than the Earth. Saturn's average distance to the Sun is just short of being 1 billion miles. The Earth average distance is 93 million miles. \n\nDear Ganch, the definition of a kilometer is that it takes 10,000 of them to go from the Earth's equator to one of the poles. The Earth's circumference is, therefore 40,000 km. The Earth's diameter is 12,756 km. The distance from the sun to the Earth in km is 150 million km (93 million miles) and the distance from the Sun to Saturn is 1 billion 427 million km (890 million miles-- 0.89 billion miles.)The distance from Los Angeles to London os 8,800 km. I really hope the Sun is a little farther than that! Thanks.
154274
A 100 kg black hole would be incredibly small. A black hole is an object that has a density so great its escape velocity is greater than the speed of light. For a 100 kg weight to be that dense it would have to have a radius smaller than 1.48*10^-25 meter. That´s smaller than a quark. If such an absurd object could form it would still be just a 100 kilo weight. It wouldn´t suck the earth in. Immediately... Earth still weighs more. It would simply fall towards earth but when it reaches the surface it would just keep on falling as it would be too small to hit anything. It would fall straight through the core and start falling upwards until gravity would make it settle there. Eventually though some matter in the core would come so close it would be captured by it. Remember that an object would have to move faster than the speed of light to escape a black hole. So the mass of the black hole would increase with time, feeding on earth. And as its mass grows it would capture matter in an increasingly greater rate. Eventually you would have a black hole with the mass of earth (+100 kg) orbiting the sun instead of the lush, blue planet we all know and love.
665122
mass of Earth = 5.9742 × 1024 kilograms
86906
Check this site out,\nhttp://www.onlineconversion.com/weight_on_other_planets.htm\nand/or this one,\nhttp://www.daviddarling.info/encyclopedia/W/weight.html
865412
Hey visit \n\nhttp://en.wikipedia.org/wiki/Saturn
373381
Jupiter has a greater influence on Saturn because of the inverse square law relating to the strength of gravity (move twice as far away and the gravitational strength drops by a factor of 4).\n\nAlso, the influence of Saturn is far stronger because it is far larger than Mercury.  Saturn is about 95 times as mmassive as Earth comapred to Mercury which is about 1/5 the mass of Earth
54413
It depends on how old you are, and the amount of lean muscle you have.\n\nCheck out this link.  It has nothing to do with your weight on earth, but it will tell you how much you weigh on the other planets.  Then check the links below for further info about you weight on earth!\n\nhttp://www.exploratorium.edu/ronh/weight/
312096
Yes. Assuming you're exactly between the Moon and the Earth (no angles), then you can figure out the weight.\n\nThe equation is F = G*(m1*m2)/r^2 where F is the force (in this case, weight), G is the gravitational constant (6.6742e-11), m1 and m2 are the masses of the objects, and r is the distance between the two objects.\n\nSo, let's first figure out the force just on Earth. Use the Earth's mass and your mass as the two objects, and for r, use the distance between the center of the earth and the surface. Using an average person's mass (75 kg, or ~165 lbs), I get a weight of 739.31 Newtons, or 166 pounds, which fits with the weight of the guy.\n\nNow do the same equation for the moon, using the mass of the moon, and for r, use the distance from the center of the moon to the Earth's surface. I get a value of 0.0024669 Newtons, or around 0.000556 pounds.\n\nTherefore, when the moon is directly above you, you only weigh 0.000556 pounds less than you would if the moon didn't exist. When the moon is closer on its orbit, it really won't make a difference. When the moon is closest to the Earth, you'll weigh 0.000062 pounds less than the average.\n\nSo, in short, the difference is very, very negligible.
216195
"The moon's mass is (7.35 x 10 22 kg), about 1/81 of the Earth's mass."  http://www.enchantedlearning.com/subjects/astronomy/moon/
800535
jinde, hi!\n\nwhat an amazing question!  i remember reading about this somewhere, so it took me so long to research it...\n\nsee, when we talk about weight, it varies from spot to spot in the universe.  you may weigh 60kgs on Earth.  but on the moon, you'd be 10kgs.  on Jupiter, you'd be 600000kgs!!!\n\nwhat we need to discuss is the mass of the object, because that would be the only thing that makes sense on the Galactic scale.  are you ready for the answer?  it's gonna be mind-boggling!\n\nThe Earth's mass is approximately 6,000,000,000,000,000,000,000,000 (6E+24) kilograms!!\n\ni know what you're next question will be?\n\n"How did they measure that?"  i have the answer for you!\n\nthe measurement of the planet's weight is derived from the gravitational attraction that the Earth has for objects near it.\n\nit turns out that any two masses have a gravitational attraction for one another. if you put two iron weights near each other, they will attract one another gravitationally. the attraction is extremely slight, but if your instruments are sensitive enough you can measure the gravitational attraction that they have on one another. from that measurement, you could determine the mass of the two objects. the same is true for two marbles too! but the attraction is even slighter because the amount of gravitational force depends on mass of the objects...\n\nNewton showed that, for spherical objects, you can make the simplifying assumption that all of the object's mass is concentrated at the center of the sphere... and the following equation expresses the gravitational attraction that two spherical objects have on one another :\nF = G * M1 * M2 / R2\n\n    * R is the distance separating the two objects.\n    * G is a constant that is 6.67259x10-11m3/s2 kg.\n    * M1 and M2 are the two masses that are attracting each other.\n    * F is the force of attraction between them. \n\nassume that Earth is one of the masses (M1) and a 1-kg sphere is the other (M2).  the force between them is 9.8 kg*m/s2 -- we can calculate this force by dropping the 1-kg sphere and measuring the acceleration that the Earth's gravitational field applies to it (9.8 m/s2)...\n\nthe radius of the Earth is 6,400,000 meters (6,999,125 yards)... if you plug all of these values in and solve for M1, you find that the mass of the Earth is 6,000,000,000,000,000,000,000,000 kilograms (6E+24 kilograms / 1.3E+25 pounds)...\n\nhope this made sense... and if it did, i hope it was useful to you...\n\ndo write me if you need more clarification...\n\nenjoy!
405919
http://en.wikipedia.org/wiki/Hundred_weight
877416
earth is weightless in space. \n but your concept is interesting as applied to mass. gas also has mass so I do not think anything ever disappears. it just changes form. the gravity of the earth is what causes "weight" so the gravity of earth hangs onto the gases that develop and we all may strangle in them, but the earth and its atmosphere inclusive do not lose mass overall. saturn is a planet whos major mass is gases with a tiny ball inside of solid rock, about the size of earth. maybe we will gradually warm to a  huge gasball with a tiny rock in the middle with one person left on it smoking a cigarette and sitting in his motorhome with the motor running.
926787
Mass is a constant.  \n\nWeight depends on gravity.\n\nSo, your mass is the same on earth and on the moon,\nbut you would weigh one-sixth as much on the moon\nas you do here on earth.