Hybrid Polymers | |||
Image | Name | Volume | Market |
![]() |
C3-FTM Acid Difficult to procure and expensive to create, this rare chemical compound plays an important role as a neuroprotective agent for capsule pilots. It is integrated into the life-support systems on board a capsuleer's vessel, where it helps limit brain cell death and neurodegeneration. |
0,20 |
Polymer Materials 67.246 ISK |
![]() |
Carbon-86 Epoxy Resin C-86 epoxy resin is most commonly applied as a thin film to the structures housing propulsion systems. The tremendous flame-retardant properties of materials covered in the resin help prevent heat buildup and minimize onboard fires. |
0,40 |
Polymer Materials 53.076 ISK |
![]() |
Fullerene Intercalated Graphite Originally this material was only used in the construction of advanced semiconductors, a role in which it still performs admirably. In recent years, however, structural engineers have proven that it has even better applications in nano-electromechanical systems. The unique “superlubricity” – a state of zero or near-zero friction – between mechanical components made of F.I.G significantly limits wear, allowing the tiny devices to operate for exceptionally long periods without the need for maintenance. |
0,80 |
Polymer Materials 7.925 ISK |
![]() |
Fulleroferrocene Fulleroferrocene is a rare organometallic compound used to strengthen and supplement other materials. Most commonly, it is used to improve the structural integrity of metal alloys, but research is continuing on its potential applications in nanomechanical devices. |
0,10 |
Polymer Materials 1.670 ISK |
![]() |
Graphene Nanoribbons Single-walled nanotubes such as these have been at the forefront of advanced electronics production for centuries. The nanoribbons make for some of the best, and smallest, conductors in the world, offering scientists new ways forward in the miniaturization of electronics systems. |
1,50 |
Polymer Materials 27.083 ISK |
![]() |
Lanthanum Metallofullerene This fullerene-lanthanum compound is made by encasing a single lanthanum atom in a cage of carbon atoms. The incredibly high melting point of lanthanum compounds make them ideal for the construction of offensive hardpoints, where heat dissipation is critical to keeping weapons systems operating effectively. |
1,00 |
Polymer Materials 13.845 ISK |
![]() |
Methanofullerene One of the most useful organic semiconductors discovered in recent years, methanofullerene can be blended with other polymers to create incredibly efficient solar cells, offering a near-endless source of power in places that would otherwise be difficult to supply. |
0,75 |
Polymer Materials 14.878 ISK |
![]() |
PPD Fullerene Fibers The discovery of these microscopic, tubular structures has helped pave new paths in the construction of advanced starships. Known for their unrivaled strength-to-weight ratio, composite metals made of unique PPD fullerene fibers have become the standard for defensive plating. Atomic-scale, nanomechanical systems used inside repair modules often employ fullerene fibers as well. |
0,50 |
Polymer Materials 9.103 ISK |
![]() |
Scandium Metallofullerene A fullerene-scandium compound made by encasing a single scandium atom in a cage of carbon atoms. Scandium is a grey-white element that has historically been incredibly hard to find. Scandium-tipped missiles were once valued for their armor-piercing qualities, which allowed them to wreack havoc deep inside starship hulls. The only thing holding the weapons industry back from these and other similar applications has been the low supply of the material. |
0,65 |
Polymer Materials 17.229 ISK |