Pulse propulsion works by creating a series of rapid pulses that push against the surrounding air or propellant. These pulses create a reaction force, or thrust, that propels the object forward.
The source of energy for pulse propulsion can vary, depending on the specific type of pulse propulsion being used. Some common sources of energy include chemical reactions, electric or magnetic fields, or even nuclear reactions.
The direction of thrust in pulse propulsion is controlled by the timing and direction of the pulses. By adjusting the timing and direction of the pulses, the direction of the reaction force can be changed, allowing for control of the object's movement.
One of the main advantages of pulse propulsion is its high efficiency. Because it only uses energy during the pulses, it can be more efficient than other continuous forms of propulsion. Additionally, pulse propulsion can also provide high levels of acceleration and can be used for both short and long distance travel.
Pulse propulsion has many potential applications in the field of space exploration. It can be used to power spacecraft and satellites, as well as provide propulsion for interplanetary travel. In addition, pulse propulsion has also been proposed for use in military and commercial aircraft, and even for underwater vehicles.