All Small

Small faction issue hybrid shells, fired by frigate-sized guns.

Caldari Navy Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Caldari Navy Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Caldari Navy Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Caldari Navy Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Caldari Navy Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Caldari Navy Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Caldari Navy Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Caldari Navy Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.
Dread Guristas Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Dread Guristas Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Dread Guristas Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Dread Guristas Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Dread Guristas Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Dread Guristas Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Dread Guristas Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Dread Guristas Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.
Federation Navy Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Federation Navy Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Federation Navy Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Federation Navy Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Federation Navy Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Federation Navy Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Federation Navy Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Federation Navy Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.
Guardian Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Guardian Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Guardian Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Guardian Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Guardian Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Guardian Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Guardian Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Guardian Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.
Guristas Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Guristas Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Guristas Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Guristas Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Guristas Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Guristas Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Guristas Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Guristas Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.
Shadow Antimatter Charge S
Consists of two components: a shell of titanium and a core of antimatter atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced optimal range.
Shadow Iridium Charge S
Consists of two components: a shell of titanium and a core of iridium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 20% increased optimal range. 24% reduced capacitor need.
Shadow Iron Charge S
Consists of two components: a shell of titanium and a core of iron atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 60% increased optimal range. 30% reduced capacitor need.
Shadow Lead Charge S
Consists of two components: a shell of titanium and a core of lead atoms suspended in a plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 50% reduced capacitor need.
Shadow Plutonium Charge S
Consists of two components: a shell of titanium and a core of plutonium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 37.5% reduced optimal range. 5% reduced capacitor need.
Shadow Thorium Charge S
Consists of two components: a shell of titanium and a core of thorium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 12.5% reduced optimal range. 40% reduced capacitor need.
Shadow Tungsten Charge S
Consists of two components: a shell of titanium and a core of tungsten atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 40% increased optimal range. 27% reduced capacitor need.
Shadow Uranium Charge S
Consists of two components: a shell of titanium and a core of uranium atoms suspended in plasma state. Railguns launch the shell directly, while particle blasters pump the plasma into a cyclotron and process the plasma into a bolt that is then fired. 25% reduced optimal range. 8% reduced capacitor need.