Difference between revisions of "Propulsion"
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==How to move a Seastead.== | ==How to move a Seastead.== | ||
* Motor powered | * Motor powered | ||
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* [[Wind Power]] | * [[Wind Power]] | ||
− | ** [[Traditional | + | ** [[Traditional sailplan]] |
** kite | ** kite | ||
*** [http://www.skysails.info/index.php?L=1 SkySails] | *** [http://www.skysails.info/index.php?L=1 SkySails] | ||
*** [http://www.kiteship.com/ KiteShip] | *** [http://www.kiteship.com/ KiteShip] | ||
− | ** [[Flettner | + | ** [[Flettner Rotor]] |
***http://www.magenn.com/about.php | ***http://www.magenn.com/about.php | ||
:[http://en.wikipedia.org/wiki/Rotor_Ship Flettner]'s spinning bodies are spinning vertical cylinders, which propel the vessel thanks to the [http://en.wikipedia.org/wiki/Magnus_effect Magnus effect]. | :[http://en.wikipedia.org/wiki/Rotor_Ship Flettner]'s spinning bodies are spinning vertical cylinders, which propel the vessel thanks to the [http://en.wikipedia.org/wiki/Magnus_effect Magnus effect]. | ||
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* [[Current Loads]] | * [[Current Loads]] | ||
:The Magnus effect can also be used with the sea current. If the Seastead spins while in a current, it creates a whirlpool of around itself, and experiences a force perpendicular to the line of motion and away from the direction of spin. As far as I know, there is no application of this to water current, although the [http://en.wikipedia.org/wiki/Kutta%E2%80%93Joukowski_theorem Kutta-Joukowski theorem] states the force is proportional to the density of the fluid, that is 60 times larger. | :The Magnus effect can also be used with the sea current. If the Seastead spins while in a current, it creates a whirlpool of around itself, and experiences a force perpendicular to the line of motion and away from the direction of spin. As far as I know, there is no application of this to water current, although the [http://en.wikipedia.org/wiki/Kutta%E2%80%93Joukowski_theorem Kutta-Joukowski theorem] states the force is proportional to the density of the fluid, that is 60 times larger. | ||
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+ | ==How to keep a Seastead in place == | ||
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+ | * Mooring/[[Anchoring]] | ||
+ | ** Permanent anchor | ||
+ | ** [http://en.wikipedia.org/wiki/Sea_anchor Sea Anchor] | ||
+ | * [[Station Keeping]] | ||
+ | ** Using propulsion to continuously adjust position | ||
==How to keep a group of Seasteads together.== | ==How to keep a group of Seasteads together.== |
Latest revision as of 20:21, 27 July 2017
How to move a Seastead.
- Motor powered
- Flettner's spinning bodies are spinning vertical cylinders, which propel the vessel thanks to the Magnus effect.
- The Magnus effect can also be used with the sea current. If the Seastead spins while in a current, it creates a whirlpool of around itself, and experiences a force perpendicular to the line of motion and away from the direction of spin. As far as I know, there is no application of this to water current, although the Kutta-Joukowski theorem states the force is proportional to the density of the fluid, that is 60 times larger.
How to keep a Seastead in place
- Mooring/Anchoring
- Permanent anchor
- Sea Anchor
- Station Keeping
- Using propulsion to continuously adjust position
How to keep a group of Seasteads together.
If a group of Seasteads just want to stay near each other but not bump into each other while they mostly drift around a gyre, then kites and sea anchors could be enough. The right kind of kite can pull to the left or right of downwind by something like 75 degrees, or any angle in between.
See Also:
Structure Designs |
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Structure requirements · PintStead · Spar · Semi-submersible · Submersible · Boats · Collaborative Design · Space Frame · Low Cost Seastead · Conex dumbbell · Docks · |
Materials |
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Materials · Thin Shell Ferrocement · Concrete · Geopolymer · Basalt |
Engineering Data |
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Low Cost Wave Tank · Scale models · Wind Loads · Seasteading Software |
Stability & Propulsion |
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Stability · Propulsion · Station Keeping · Gyroscopes · Stabilizers · Pneumatically Stabilized Platforms · Connections |