| A hovercraft works on the principle of
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| | the total weight the vehicle can lift is
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| aero dynamics. This is similar and can
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| | its bottom surface area multiplied by its
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| also be attributed to fluid mechanics in
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| | cushion pressure. This should tell you
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| engineering. Although the vehicle was
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| | the type of fans to use in relation to
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| designed to glide primarily in water, it
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| | its horsepower.
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| behaves more like an aircraft vehicle.
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| | - The Skirting System - This is one part
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| Its ability to function and operate fully
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| | in your design plan that is unique on its
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| relies so much on the air pressure
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| | own. Its purpose is to somewhat trap the
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| simulated by its fan. This innovative
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| | air coming from the fan, allowing only a
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| engineering idea and application is what
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| | regulated release of air. This concept
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| makes a hovercraft work.
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| | to manipulate air dynamics creates the
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| This vehicle can come in different
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| | cushion required to lift the hovercraft.
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| designs. Some of them can carry a
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| | - Hovercraft's Thrust and Air Drag -
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| greater mass of people or load and
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| | Just like aircrafts and automobiles, it
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| usually used for commercial purposes.
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| | should use its applied science on thrust
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| Others are designed for singular loads.
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| | and air drag too. A plan for building a
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| Most of them look weird and quaint. And
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| | hovercraft should include where to place
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| as mentioned above, even when they
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| | the propellers for creating the thrust.
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| qualify as boats, a hovercraft behaves
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| | Windshields or similar installations are
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| like aircrafts. So if you have a plan of
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| | required for air drag purposes. Like the
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| building a hovercraft, simply understand
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| | fan used for air cushion, the horsepower
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| the principle.
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| | for your propellers should determine how
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| - A hovercraft's lift depends on its
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| | fast it can go. And while at it, the air
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| overall size and weight so your minimum
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| | drag design is considered to reduce the
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| cushion clearance should not be lesser
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| | air friction for a smoother sail. Some
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| than 6 inches. This means that when its
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| | hovercrafts use one powerful fanning
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| maximum load is in place, the pressurized
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| | system to support both cushion and
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| air below should be able to contain a
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| | thrust.
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| lift of that much. This is the minimum
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| | - The Steering System of the Hovercraft -
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| because in cases when you need to glide
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| | Imagine how a horseback rider maneuvers a
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| in land, stones in the soil that can
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| | horse. This principle is similar to how
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| affect the smoothness of its glide.
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| | the hovercraft is steered. In your plan
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| - Air-Pressurized Cushion - This is
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| | for building a hovercraft, you need a
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| generated by a fanning system powerful
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| | system of rudders placed behind the
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| enough to create the lift. In designing
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| | propellers with handlebars to control it.
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| a plan, make sure that the pressure must
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| | Another method would be to allow weight
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| be proportionately amendable to the
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| | displacement of your body. The latter
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| weight of the vehicle. If you hope to
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| | can be tricky and requires a lot of
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| build to carry one person only, then use
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| | practice to perfect your hovercraft
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| fans that exert the appropriate pressure
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| | gliding experience.
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| required. The concept should follow that
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