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Rather than simply bouncing off, the item destroyed much of both itself and Earth, causing an enormous spray of matter to be hurled off from the affect level; this matter coagulated into what is now the Moon. With half of the Sun's radiation blocked/mirrored in the other direction, the Sun now has a web thrust upwards (i.e. in the route of the "hat"). The most obvious main drawback with this technique is that proper now there aren't even theories as to how you possibly can presumably construct rocket engines of the sort proposed here. It will get better. Even assuming the Earth did move by some vital distance when everybody jumped, simply give it some thought: it'd transfer proper again again! You may reuse the identical asteroid many times, looping it round a number of gas giants and again to realize lots extra kinetic power from those fuel giants in the identical means that Earth just gained velocity from the rock. Solar sail technique. I can't actually add much to that article except to say that to move the Earth considerably, the sail used goes to have to be pretty large. Construct a huge solar sail with a big mass. Maybe. Or better but: the Earth already has a standing magnetic field; perhaps we could construct a cylinder of cable around it, and go present to maneuver it using Lorentz forces.

You would build an engine at either pole and this would not have any impact, but anyplace else and the constantly altering angle of thrust will cause the Earth to behave considerably like a unfastened Catherine Wheel-type firework. Which suggests the space the Earth strikes when all people jumps will probably be one trillionth of the space that all of the folks jumped: that is to say, 10-11 metres, or about half the radius of a hydrogen atom. It all relies upon how fussy you're about how the Earth appears to be like afterwards, in fact. Wait long sufficient, and the solar wind blowing the sail outwards will take the Earth outward too, since the 2 are gravitationally bound collectively! Note that the Earth does not and is not going to behave like a stable, inflexible billiard ball beneath such enormous impacts as these. And lastly, suppose that all of them jumped at precisely the identical prompt, which of course they will not, seeing as the time distinction between the quickest watch and the slowest will likely be over 5 minutes. This ends in a minute theoretical acceleration however over millions of years the velocity would accumulate to something substantial. You could repeat this hundreds of instances over the course of millions of years.

Belgium. Design them fastidiously in order that when used the rocket engines do not actually simply propel themselves by the bottom and into Earth where they become ineffective - it's possible you'll have to periodically dig them out once more after a number of thousand years' continued thrusting, or else simply build new ones excessive. Plotting acceleration vectors in the direction of whatever your goal is on this case could prove to be a nontrivial drawback, solvable only with high-tech pc simulations. Moving the Sun is about 6 orders of magnitude tougher than transferring the Earth but the Sun is constantly emitting energy which may be productively harnessed for this function. It includes asteroids, like the above method, solely instead of direct impacts, this time we just steer them past the Earth, permitting rock and planet to change a bit momentum, what is billiards with the results of an Earth moving on a slightly different track and an asteroid transferring on a significantly different one. Ceres, the solar system's largest asteroid, has lower than 1/40,000th the mass of Earth; the Moon, a mere 1/80th. These objects are the heaviest you're likely to find - there are heavier moons and total planets you can think about using, but to be honest from this perspective it seems to be extra like utilizing a succession of lots of, thousands or tens of hundreds of smaller asteroid impacts can be a greater guess.

Atmospheric concerns are ignored here since it is way more power-environment friendly to manually take away the Earth's atmosphere, transfer the planet, and reinstall it. Suppose that there were ten billion individuals (another overestimate - there are about 6.4 billion on the time of writing). If there was some method to electrically cost the Earth, by dumping numerous identically charged particles onto the Earth or simply ionizing particles already on Earth - a big amber rod might maybe be in order - then we might use magnetic fields to drive the planet within the direction we needed it to go. Gravity help. This is a method initially proposed as a technique of moving Earth to the next orbit around the Sun in an effort to reserve it from the Sun's inevitable Red Giant expansion. This may be employed to move the Sun and Earth in tandem to a place where the Earth can more simply be destroyed. Maybe you want to destroy it: a major number of strategies for destroying the Earth contain moving it by some substantial amount.