Benderland
08-09-2003, 21:20
After years of research, the original idea for Particle Projection Cannon Ortillery was finally scrapped, much to the scientists' dissapointment. They were hopeful, but unfortunatley, the laws of physics are a harsh mistress.
So, instead, they are using what they can salvage from the project to begin research on gauss cannon ortillery. They all agree that although it's not too original, they are certain they will be able to create it.
Gauss cannons are a true innovation in the world of projectile weapons. They do not use small amounts of explosives to propel the projectile through the barrel, but rather use a system called a RailGun.
Usually, the projectile is propelled through a small explosion, started by the firing pin located at the end of the barrel. This system made created a lot of friction between the projectile and the barrel, reducing the projectile speed. Also, the projectiles charged small amounts of explosive, creating ammunition affected by heat and direct hits. The RailGun system tried to solve this problem with a series of electromagnetic sectors and a projectile (electromagnetically charged oppositely). This system removed the friction and the problems related with the explosions, as the projectile became a big piece of metal. The study of this system was suspended due to the problems related with the power source.
Modern day Gauss cannons are the direct evolution of this system. Gauss rilfes use the same system to propel the projectile, a nickel-ferrous slug, and uses a series of capacitors to power the weapons. Thanks to the near endless power that a fusion reactor provides, these capacitors can be charged infinetily.
The projectlie coming from the ammo bin is introduced to a loading chamber, where the specific mechanism place the shell in the first section of the weapon's long barrel. The loading chamber (and the rest of the weapon) is divided from the barrel by a diaphragm. This diaphragm opens to let the passage of the shell, then seals the barrel to discharge the projectile. As described above, the projectile is moved by electromagnetic force, rather than the usual charge of gun powder. The barrel is composed by a series of electromagnetically charged sectors and isolation areas between these sectors; turned on and off progessively (starting from the innermost sector to the outer one), the sectors propel the shell toward the barrel nozzle. Without friction and other slowdowns, the projectile can achieve a speed of mach 5 or greater in an atmosphere.
These sectors are powered by a series of capacitors placed behind the loading chamber. A power line starts from the capacitors to the barrel, where a ring, called a power ring, collects the energy and passes it to the four power lines encircling the barrel; the barrels are named with the four cardinal points, north, south, west and east, due to their placement. The capacitors are connected to the main power line from the reactor. Due to the high amounts of power required by the capacitor, the power line of the Gauss cannon is unusually large for a ballistic weapon.
The final part of the cannon is composed by the coolant circuit and recoil absorbing system. The recoil system is the only piece of machinery that generates a large amount of heat, and thus is the only part connected to the small cooling circuit in the cannon's back. The systems are linked with an heat exchanger for facilitating the heat conduction.
Normally these gauss cannons are mounted on mechs and artillery pieces, non-explosive, and range between 16 and 18 inch diameters. The gauss cannon ortillery will be in the range of 22 to 25 inch diameters, and will be filled with high explosives.
The pheasability of this project is much greater than the PPC ortillery. Powering the gauss ortillery will be one of the fusion reactors usually found inside a BattleMech, modified to operate in orbit. Although a recoil system is in place, the recoil itself will be much, much less than the PPC. The satilite will be unmanned, operated from the ground.
So, instead, they are using what they can salvage from the project to begin research on gauss cannon ortillery. They all agree that although it's not too original, they are certain they will be able to create it.
Gauss cannons are a true innovation in the world of projectile weapons. They do not use small amounts of explosives to propel the projectile through the barrel, but rather use a system called a RailGun.
Usually, the projectile is propelled through a small explosion, started by the firing pin located at the end of the barrel. This system made created a lot of friction between the projectile and the barrel, reducing the projectile speed. Also, the projectiles charged small amounts of explosive, creating ammunition affected by heat and direct hits. The RailGun system tried to solve this problem with a series of electromagnetic sectors and a projectile (electromagnetically charged oppositely). This system removed the friction and the problems related with the explosions, as the projectile became a big piece of metal. The study of this system was suspended due to the problems related with the power source.
Modern day Gauss cannons are the direct evolution of this system. Gauss rilfes use the same system to propel the projectile, a nickel-ferrous slug, and uses a series of capacitors to power the weapons. Thanks to the near endless power that a fusion reactor provides, these capacitors can be charged infinetily.
The projectlie coming from the ammo bin is introduced to a loading chamber, where the specific mechanism place the shell in the first section of the weapon's long barrel. The loading chamber (and the rest of the weapon) is divided from the barrel by a diaphragm. This diaphragm opens to let the passage of the shell, then seals the barrel to discharge the projectile. As described above, the projectile is moved by electromagnetic force, rather than the usual charge of gun powder. The barrel is composed by a series of electromagnetically charged sectors and isolation areas between these sectors; turned on and off progessively (starting from the innermost sector to the outer one), the sectors propel the shell toward the barrel nozzle. Without friction and other slowdowns, the projectile can achieve a speed of mach 5 or greater in an atmosphere.
These sectors are powered by a series of capacitors placed behind the loading chamber. A power line starts from the capacitors to the barrel, where a ring, called a power ring, collects the energy and passes it to the four power lines encircling the barrel; the barrels are named with the four cardinal points, north, south, west and east, due to their placement. The capacitors are connected to the main power line from the reactor. Due to the high amounts of power required by the capacitor, the power line of the Gauss cannon is unusually large for a ballistic weapon.
The final part of the cannon is composed by the coolant circuit and recoil absorbing system. The recoil system is the only piece of machinery that generates a large amount of heat, and thus is the only part connected to the small cooling circuit in the cannon's back. The systems are linked with an heat exchanger for facilitating the heat conduction.
Normally these gauss cannons are mounted on mechs and artillery pieces, non-explosive, and range between 16 and 18 inch diameters. The gauss cannon ortillery will be in the range of 22 to 25 inch diameters, and will be filled with high explosives.
The pheasability of this project is much greater than the PPC ortillery. Powering the gauss ortillery will be one of the fusion reactors usually found inside a BattleMech, modified to operate in orbit. Although a recoil system is in place, the recoil itself will be much, much less than the PPC. The satilite will be unmanned, operated from the ground.