Lightning strikes are a serious problem during operation of aircraft due to the increasing applicability of polymeric composites in aircraft structures and the weak electrical conducting properties of such structures. In composite structures, lightning strikes may cause extended damage sites which require to be appropriately maintained and repaired leading to increased operational costs. In order to overcome this problem various lightning strike protection solutions have been developed. Some of them are based on the immersion of metallic elements and particles while others use novel solutions such as intrinsically conductive polymers or other types of highly conductive particles including carbon nanotubes and graphene. The concept of fully organic electrically conductive composites based on intrinsically conductive polymers is currently being developed at the Silesian University of Technology. The results obtained in numerous tests, including concerning electrical conductivity and the capability to carry on high-magnitude electrical charges as well as certain operating properties need to be compared with existing solutions in lightning strike protection of aircraft. The following study presents the properties of the material developed for lightning strike protection and a comparative study with other solutions.
 Chemartin L., Lalande P., Peyrou B., Chazottes A., Elias P.Q., Delalondre C., Cheron B.G., Lago F., Direct effects of lightning on aircraft structures: analysis of the thermal, electrical and mechanical constraints, Journal of Aerospace Lab, 5, AL05-09, 1-15, 2012.
 Gagné M., Therriault D., Lightning strike protection of composites, Progress in Aerospace Sciences, 64, 1-16, 2014.
 Katunin A., Krukiewicz K., Herega A., Catalanotti G., Concept of a conducting composite material for lightning strike protection, Advances in Materials Science, 16(2), 32-46, 2016.
 Krukiewicz K., Katunin A., The effect of reaction medium on the conductivity and morphology of polyaniline doped with camphorsulfonic acid, Synthetic Metals, 214, 45-49, 2016.
 Katunin A., Krukiewicz K., Turczyn R., Sul P., Łasica A., Bilewicz M., Synthesis and characterization of the electrically conductive polymeric composite for lightning strike protection of aircraft structures, Composite Structures, 159, 773-783, 2017.
 Katunin A., Percolation thresholds of 3D all-sided percolation clusters in non-cubic domains, Journal of Applied Mathematics and Computational Mechanics, 15(4), 63-69, 2016.
 Society of Automotive Engineers. Aerospace recommended practice – 5412 Rev A: Aircraft Lightning Environment and Related Test Waveforms, SAE International Edition, 2005.
 Society of Automotive Engineers. Aerospace recommended practice – 5414 Rev A: Aircraft Lightning Zoning, SAE International Edition, 2005.
 Society of Automotive Engineers. Aerospace recommended practice – 5413: Certification of Aircraft Electrical/Electronic Systems for the Indirect Effects of Lightning, SAE International Edition, 1999.
 Society of Automotive Engineers. Aerospace recommended practice – 5577: Aircraft Lightning Direct Effects Certification, SAE International Edition, 2002.
 Society of Automotive Engineers. Aerospace recommended practice – 5416: Aircraft Lightning Test Methods, SAE International Edition, 2005.
 Fisher F.A., Plumer J.A., Lightning protection of aircraft, NASA Reference Publication 1008, General Electric Company, Pittsfield, MA, 1977.
 Morgan D., Hardwick C.J., Haigh S.J., Meakins A.J., The interation of lightning with aircraft and challenges of lightning testing, Journal of Aerospace Lab, 5, AL05-11, 1-10, 2012.
 Feraboli P., Miller M., Damage resistance and tolerance of carbon/epoxy composite coupons subjected to simulated lightning strike, Composites Part A: Applied Science and Manufacturing, 40(6-7), 954-967, 2009.
 Ranjith R., Myong R.S., Lee S., Computational investigation of lightning strike effects on aircraft components, International Journal of Aeronautical & Space Sciences, 15, 44-53, 2014.
 Wang Z., Ciselli P., Peijs T., The extraordinary reinforcing efficiency of single-walled carbon nanotubes in oriented poly(vinyl alcohol) tapes, Nanotechnology, 18, 455709, 2007.
 Wang S., Liang R., Wang B., Zhang C., Dispersion and thermal conductivity of carbon nanotube composites, Carbon, 47(1), 53-57, 2009.
 Huang C.Y., Mo W.W., Roan M.L., Studies on the influence of double-layer electroless metal deposition on the electromagnetic interference shielding effectiveness of carbon fiber/ABS composites, Surface and Coatings Technology, 184(2-3), 163-169, 2004.
 Tao Z., Guo Q., Gao X., Liu L., Graphite fiber/copper composites with near-zero thermal expansion, Materials and Design, 33, 372-375, 2012.