This bioadaptive mutaplasmid tool is designed to interface with and alter devices that mitigate the impact of critical system damage. As such this mutaplasmid could be used to mutate the performance characteristics of standard damage control modules. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter computer systems designed for monitoring and guiding missiles. As such this mutaplasmid could be used to mutate the performance characteristics of most ballistic control system. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems that combine impulse thrust with localized warp field transformations. As such this mutaplasmid could be used to mutate the performance characteristics of most microwarpdrives in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems that combine impulse thrust with localized warp field transformations. As such this mutaplasmid could be used to mutate the performance characteristics of most microwarpdrives in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems that combine impulse thrust with localized warp field transformations. As such this mutaplasmid could be used to mutate the performance characteristics of most microwarpdrives in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems relying on impulse thrust principles alone. As such this mutaplasmid could be used to mutate the performance characteristics of most afterburners in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems relying on impulse thrust principles alone. As such this mutaplasmid could be used to mutate the performance characteristics of most afterburners in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool is designed to interface with and alter propulsion systems relying on impulse thrust principles alone. As such this mutaplasmid could be used to mutate the performance characteristics of most afterburners in the correct size class. The mutaplasmid colony integrated into this bioadaptive tool appears to be mature and reproducing at a healthy rate. The mutational benefits and risks of using this mutaplasmid are within relatively balanced bounds.

This bioadaptive mutaplasmid tool appears to share elements of both Triglavian and rogue drone technologies. First encountered as a key Triglavian tool for mutating the performance of various pieces of technology, this mutaplasmid is designed to colonize and radically alter a sentry drone. It is possible this application was originally developed for use with rogue drones controlled by the Triglavians but hives controlled by the so-called "Unshackled Overminds" have also adopted it. As with their repurposing of the technology of New Eden's core empires, independent rogue drones clearly have no difficulties when it comes using this characteristically Triglavian technology. The mutaplasmid colony integrated into this bioadaptive tool is very unusual, even by the standards of this bizarre Triglavian technology. It appears that rogue drone nanotechnology elements have successfully stabilized the potential for enhancement of weapon systems optimal and falloff ranges. On the other hand, the mutation ranges for other functions are rather unstable. Triglavian bioadaptive technology makes extensive use of engineered colonies of extremophilic bacteria, that are used to grow, harvest and adapt various resources found in Abyssal Deadspace. Artificial colonizing plasmids integrated into specialist tools used for direct adaptation of technology can be found in Triglavian caches in various stages of development. These mutaplasmids can be used to alter the characteristics of a wide variety of equipment types, depending on the strain and the bioadaptive tool with which they are integrated.