Jet pumps are a sort of centrifugal pump that can prime themselves and are built for long-term, trouble-free operation. The following of this text will compare booster pumps and jet pumps. The integrated ejector enables the jet pump's automated operation and contributes to the device's impressively high suction capacity. Because of its compact size and the ease with which it can be moved and transported; the pump is well suited for a variety of uses. Jet pumps use high-speed jets of fluid to lower pressure downhole and speed up production. The way an underground jet pump works is similar to how a jet engine works. 
Both the pump and the motor have a nozzle that uses adiabatic expansion to change fluid that is moving slowly and under pressure into fluid that is moving quickly and under low pressure. In a jet engine, the thrust that moves the plane forward comes from the fast-moving fluid, which is a steamy mix of air and jet fuel. On the other hand, the hydrocarbons rise to the surface because of the thrust created by the fast movement of the pump-jet fluid. The downhole jet pump is sent down through the casing string to a depth where it is submerged in downhole production fluids. A surface-to-surface pump sends a pressurized fluid called power fluid (usually refined oil, water, or a mixture of produced oil and water) downhole through a tube to the jet pump, where the fluid flows through a nozzle in the pump's nose. The nozzle creates a restriction in the flow path of the power fluid, which causes the fluid speed to increase through the nozzle. This is due to the Venturi effect, which is a corollary of Bernoulli's principle and explains what happens to the fluid pressure when it flows through a narrow passage. 
The surrounding wellbore fluid is sucked into the low-pressure section of the pump through the production inlet chamber while the working fluid exits the nozzle at a higher velocity and, as a result, at a lower pressure than the wellbore fluid. The pump neck is a short mixing tube where the two streams of the fluid meet. At this point, some of the momenta of the working fluid are transferred to the product fluid. The streams are entirely mixed by the time the fluids reach the end of the throat, and the single fluid stream that results from this mixing possesses a large amount of kinetic energy. After that, the fluid mixture is moved to an expansion zone diffuser, which is a device that transforms kinetic energy into a constant pressure within the fluid. Because this pressure is sufficiently high, the fluid combination can be brought to the surface by way of a second production tube. Booster pumps, which may also be referred to as booster pumps or booster pumps, are self-priming, similar to garden pumps. 
In addition to supplying water to toilets, sinks, and washing machines, the pump is frequently utilized to raise the water pressure within the water pipes. Other common uses for the pump include irrigating lawns and gardens and water gardens. The following are the primary distinctions that can be made between a pressure group and a garden pump:
- Fitted with a tank
- Switches on and off automatically
If the pump has a tank, the water that is initially required will be drawn from the tank rather than the pump itself. The pump will still need to be switched on in order to supply even tiny volumes of water. In addition, the tank lessens the impact of the water hammer by acting as a shock absorber in the water pipes. This occurs when there is a sudden shift in the flow of water, such as when the faucet is opened and closed. The booster pump is self-priming, which means that it collects water from the source and then applies high pressure to the water in order to primarily use it for irrigation. 
According to scientific consensus, water cannot be extracted from a depth greater than eight meters. Nonetheless, it is possible to extract water from a distance greater than eight meters so long as the extraction is carried out horizontally. Boosters are condensed versions of traditional domestic water supply systems. A Grundfos jet pump and a pressure controller make up each of the engines in this system. The user is afforded an increased degree of convenience by the pressure controller, which makes it possible for the pump to start and stop operating automatically in response to their commands. Pressure jet pumps are classified into two primary kinds, namely pressure management jet pumps and pressure tank jet pumps. A pressure switch, a pressure meter, and a membrane tank are the components that make up the booster. The pressure switch triggers the pump's automatic startup in response to the level of demand. The membrane tank ensures that the water supply maintains a steady water pressure, and as a result, the number of restarts that are required in the event of low water use or leakage is reduced. Additionally, the membrane tank improves the convenience of the system by compensating for the pressure drop that occurs whenever the valve is opened. 
This results in a reduction in the issues that are caused by water hammers in the pipe network. Pumping liquids that are clean, free-flowing, non-aggressive, and non-explosive with no solid particles or fibers in them is an ideal use for jet pumps and booster sets. Examples of liquids:
- drinking water
- the water from rain
Pumps that have been used to move impure liquids, such as water from swimming pools, ought to be washed thoroughly with pure water before being used again. It is strictly prohibited to transfer diesel fuel or any other fluids that contain oil using pumps. The pump will deteriorate due to the corrosive effects of sand and other contaminants in the water.