NOVELTY - The network has carbon nanotube bundles arranged on a transparent substrate e.g. glass and polymer, where the carbon nanotube bundles are provided with points of contacts with each adjacent bundle to form a carbon nanotube network unit. Conductive particle clusters separate the bundles in regions between the points of contacts, where a portion of the clusters forms conductive pathways between the adjacent bundles. The carbon nanotube network unit and the conductive pathways define the network on the substrate. Conductive particles comprise indium-tin oxide. Carbon nanotubes include a dopant.    USE - Percolative conductive network e.g. conducting structure arrangement such as carbon nanotube arrangement and conductive particle cluster arrangement, for yielding a continuous conductive pathway in an application. Uses include but are not limited to a solar cell application, LCD application, LED application, lectrochromic window application and a smart window application.    ADVANTAGE - The network fabricates transparent conductive coating that exhibits low resistance and high optical transparency in a cost effective manner. The network utilizes indium-tin oxide nanoparticles that serve to improve transparency of the conductive polymer composite without reducing conductivity of the conductive polymer composite. The network improves conductivity of the transparent conductive composite due to clustering of the indium-tin oxide nanoparticles and formation of additional conducting paths between the adjacent bundles of the carbon nanotubes. The dopant removes residuals of surfactant and reduces nanotube junction and bundle impedance, thus improving the conductivity of the nanotubes and leading to transparent conductive films that are provided with improved quality factor.    DETAILED DESCRIPTION - The dopant comprises an acid. An INDEPENDENT CLAIM is also included for a conductive polymer composite.    DESCRIPTION OF DRAWING(S) - The drawing shows a schematic view of a carbon nanotube-conductive particle architecture and an equivalent circuit model.