Solution:
First we must calculate the area of the hovercraft. This is done by multiplying the length times the width. The solution will be worked out in both Imperial and System International units.
Imperial Units
Area = Length · Width
Area = (10 ft)(5 ft)
Area = 50 ft2
S I Units
Area = Length · Width
Area = (3 m)(1.5 m)
Area = 4.5 m2
Now we can find the lift force by multiplying the pressure times the area.
Lift force = Pressure · Area
Lift force = (7 lbs / ft2)(50 ft2)
Lift force = 350 lb
Lift force = Pressure · Area
Lift force = (335 N / m2)(4.5 m2)
Lift force = 1508 N
This hovercraft produces 350 lb [1508 N] of lift force and will therefore be able to support up to 350 lb [1508 N] of total weight and still hover. This means if the actual hovercraft weighed 100 lb [444.8 N], then it could carry 250 lb [1112 N] of people and cargo.
The weight of a hovercraft can vary depending on its size and design. On average, a small recreational hovercraft can weigh around 500-1000 pounds, while larger commercial or military hovercraft can weigh several tons.
Yes, the weight distribution on a hovercraft can affect its speed. Uneven weight distribution can cause instability and affect the control of the hovercraft, potentially impacting its speed. It is crucial to maintain a balanced weight distribution to ensure optimal performance.
The SR.N4 hovercraft, a British vehicle that could carry up to 254 passengers and 30 cars, weighed around 168 tonnes.
A hovercraft floats on a cushion of air created by a fan or propeller underneath the craft. This cushion of air reduces friction between the hovercraft and the ground, allowing it to glide smoothly over surfaces such as water, ice, or land. The pressure from the cushion of air supports the weight of the hovercraft, enabling it to "float" above the surface.
There are fans in the hovercraft that direct air downwards. The air is 'trapped' by the flexible skirt around the edge of the craft - this creates a cushion of air strong enough to allow the craft to float.
The weight of a hovercraft can vary depending on its size and design. On average, a small recreational hovercraft can weigh around 500-1000 pounds, while larger commercial or military hovercraft can weigh several tons.
Yes, the weight distribution on a hovercraft can affect its speed. Uneven weight distribution can cause instability and affect the control of the hovercraft, potentially impacting its speed. It is crucial to maintain a balanced weight distribution to ensure optimal performance.
The SR.N4 hovercraft, a British vehicle that could carry up to 254 passengers and 30 cars, weighed around 168 tonnes.
Yes it does.
The hovercraft will carry you over the mud swamp to reach the crashed saucer Excalibur. (see related question)
A fan inflates the skirt to the point were the psi trapped by the skirt x the foot print(area) of the hovercraft is equal to the weight of the hover craft and it floats.
The key factor is power to weight ratio for high speed Hovercraft. However, there are slow speed Hoverbarges, similar to Hovercraft which are very large, up to 2,500 tonne payload! Check out the link provided below.
The world's oldest hovercraft passenger company, Hovertravel, use British Hovercraft AP1-88 on their scheduled service from Portsmouth to the Isle of Wight (England), which seat 101 passengers. The largest passenger hovercraft was the SR.N4, used on routes that included the cross-channel Dover-Calais, seated 254 passengers.
A hovercraft floats on a cushion of air created by a fan or propeller underneath the craft. This cushion of air reduces friction between the hovercraft and the ground, allowing it to glide smoothly over surfaces such as water, ice, or land. The pressure from the cushion of air supports the weight of the hovercraft, enabling it to "float" above the surface.
There are many hovercraft available for different applications, for example leisure hovercraft, rescue hovercraft, commercial hovercraft - hovercraft come in all sizes, from racing through to leisure and large military hovercraft.
Hovercraft is remarkable technology, expanding transit options in unpredictable terrain, as below. The performance of Hovercraft in this extreme environment means that for any predictable period of uptime, you'd be required to carry a Hovercraft mechanic and spare parts with you as you travel. Known performance in Antarctica is not reliable enough to permit unsupported transit using this technology.
They can carry their own weight