Market
Large
Parent groups: Market > Ammunition & Charges > Hybrid Charges > Faction ChargesSister groups: Extra Large | Large | Medium | Small
Market Items
| Image | Name | EM | Exp | Kin | The | Market Price |
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Caldari Navy Antimatter Charge L 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. |
32.2 | 23.0 | 882 | ||
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Caldari Navy Iridium Charge L 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. |
18.4 | 13.8 | 860 | ||
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Caldari Navy Iron Charge L 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. |
13.8 | 9.2 | 788 | ||
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Caldari Navy Lead Charge L 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. |
23.0 | 13.8 | 873 | ||
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Caldari Navy Plutonium Charge L 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. |
27.6 | 23.0 | 920 | ||
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Caldari Navy Thorium Charge L 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. |
23.0 | 18.4 | 1.002 | ||
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Caldari Navy Tungsten Charge L 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. |
18.4 | 9.2 | 1.031 | ||
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Caldari Navy Uranium Charge L 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. |
27.6 | 18.4 | 975 | ||
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Dread Guristas Antimatter Charge L 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. |
33.6 | 24.0 | (10.000) | ||
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Dread Guristas Iridium Charge L 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. |
19.2 | 14.4 | (10.000) | ||
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Dread Guristas Iron Charge L 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. |
14.4 | 9.6 | 1.292 | ||
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Dread Guristas Lead Charge L 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. |
24.0 | 14.4 | 1.143 | ||
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Dread Guristas Plutonium Charge L 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. |
28.8 | 24.0 | 12.091 | ||
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Dread Guristas Thorium Charge L 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. |
24.0 | 19.2 | (10.000) | ||
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Dread Guristas Tungsten Charge L 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. |
19.2 | 9.6 | 14.822 | ||
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Dread Guristas Uranium Charge L 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. |
28.8 | 19.2 | (10.000) | ||
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Federation Navy Antimatter Charge L 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. |
32.2 | 23.0 | 879 | ||
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Federation Navy Iridium Charge L 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. |
18.4 | 13.8 | 790 | ||
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Federation Navy Iron Charge L 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. |
13.8 | 9.2 | 833 | ||
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Federation Navy Lead Charge L 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. |
23.0 | 13.8 | 892 | ||
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Federation Navy Plutonium Charge L 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. |
27.6 | 23.0 | 1.087 | ||
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Federation Navy Thorium Charge L 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. |
23.0 | 18.4 | 832 | ||
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Federation Navy Tungsten Charge L 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. |
18.4 | 9.2 | 1.019 | ||
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Federation Navy Uranium Charge L 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. |
27.6 | 18.4 | 717 | ||
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Guardian Antimatter Charge L 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. |
33.6 | 24.0 | (10.000) | ||
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Guardian Iridium Charge L 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. |
19.2 | 14.4 | 1.471 | ||
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Guardian Iron Charge L 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. |
14.4 | 9.6 | 1.337 | ||
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Guardian Lead Charge L 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. |
24.0 | 14.4 | 2.870 | ||
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Guardian Plutonium Charge L 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. |
28.8 | 24.0 | 8.061 | ||
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Guardian Thorium Charge L 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. |
24.0 | 19.2 | 4.389 | ||
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Guardian Tungsten Charge L 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. |
19.2 | 9.6 | 1.468 | ||
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Guardian Uranium Charge L 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. |
28.8 | 19.2 | 25.187 | ||
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Guristas Antimatter Charge L 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. |
30.8 | 22.0 | 5.505 | ||
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Guristas Iridium Charge L 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. |
17.6 | 13.2 | 28 | ||
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Guristas Iron Charge L 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. |
13.2 | 8.8 | 3 | ||
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Guristas Lead Charge L 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. |
22.0 | 13.2 | 3 | ||
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Guristas Plutonium Charge L 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. |
26.4 | 22.0 | 57 | ||
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Guristas Thorium Charge L 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. |
22.0 | 17.6 | 31 | ||
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Guristas Tungsten Charge L 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. |
17.6 | 8.8 | 17 | ||
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Guristas Uranium Charge L 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. |
26.4 | 17.6 | 156 | ||
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Shadow Antimatter Charge L 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. |
30.8 | 22.0 | 1.194 | ||
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Shadow Iridium Charge L 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. |
17.6 | 13.2 | 106 | ||
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Shadow Iron Charge L 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. |
13.2 | 8.8 | 73 | ||
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Shadow Lead Charge L 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. |
22.0 | 13.2 | 0 | ||
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Shadow Plutonium Charge L 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. |
26.4 | 22.0 | 41 | ||
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Shadow Thorium Charge L 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. |
22.0 | 17.6 | 16 | ||
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Shadow Tungsten Charge L 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. |
17.6 | 8.8 | 75 | ||
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Shadow Uranium Charge L 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. |
26.4 | 17.6 | 282 |
Database: YC119.1 (2017-01-14)
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