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enigma said:I can't tell from the picture what the thing is supposed to do...
But unless you dump mass, you're not going to get any momentum imparted to the spacecraft .
[tex]\Sigma_{i=0}^n m_i*V_i=0[/tex]
or, momentum is conserved
But unless you dump mass, you're not going to get any momentum imparted to the spacecraft .
When coil#1 pushes the gas to the right (towards coil#2), it must recoil to the left. When the momentum of the gas is absorbed by coil#2, it recoils to the right.Intuitive said:It probably wouldn't work, but this was the plot.
1. Coil #1 fires off an EM Pulse that compresses the Diamagnetic Plasma Gas towords Coil #2 which prevents the Gas from Exiting,
Gokul43201 said:Intuitive : your designs suffer from the fundamental flaw that momentum conservation applied to the entire system (drive + craft) prevents it from getting anywhere unless there is momentum ejection out of system. This is what enigma tried to bring to your attention.
In other words, you are trying to power a sailboat with an onboard fan.
Actually, yes, in theory a laser could be used as a propulsion device. But your device doesn't dump energy linearly.Intuitive said:Wouldn't dumping energy already near light speed be better than dumping mass (over the long run)?
Momentum transfer in space ships refers to the transfer of momentum or force between two objects in space. This is important for space ships as it allows them to accelerate, decelerate, and change direction while in motion.
Maximizing momentum transfer is important for space ships because it allows them to efficiently use their fuel and energy to achieve optimal performance. It also helps them to navigate through space and overcome obstacles such as gravitational pull from planets and other celestial bodies.
There are several ways to maximize momentum transfer in space ships. Some techniques include using thrust vectoring, gravity assists from other celestial bodies, and minimizing air resistance by using streamlined designs. Additionally, precise calculations and adjustments to speed and direction can also help maximize momentum transfer.
One of the main challenges in maximizing momentum transfer in space ships is the limited amount of fuel and energy available. This means that calculations and adjustments must be accurate and precise in order to get the most out of the resources. Additionally, overcoming gravitational forces and other obstacles can also be challenging.
While there are risks involved in any space exploration, maximizing momentum transfer does come with its own set of risks. These can include potential malfunctions in equipment, human error, and unexpected obstacles in space. However, with proper planning and precautions, these risks can be minimized.