NOVELTY - Making (M1) electronic device involves: providing a composition comprising at least one conductive conjugated polymer, at least one semiconducting matrix component that is different from the conductive conjugated polymer, and optionally at least one dopant, where the composition comprises an insulating matrix component (less than 5 wt./wt.%); and incorporating the composition into an electronic device.    USE - For making electronic devices (claimed) including organic light emitting devices (OLEDs), polymer light emitting devices (PLEDs), phosphorescent organic light emitting devices (PHOLEDs), small molecule organic light emitting devices (SMOLEDs), electrostatic discharge devices (ESDs), photovoltaic cells, supercapacitors, hybrid capacitors, cation transducers, drug release devices, electrochromics, sensors, field-effect transistors (FETs), actuators, and membranes.    ADVANTAGE - The composition when incorporated into electronic devices such as organic light emitting devices (OLEDs) or organic photovoltaic device (OPV), increases the performance of the devices. The method provides improved combinations of device properties, including device performance or device lifetime; and provides improved formulation flexibility. The composition provides an improved hole injection technology. Doping of both the conductive and semiconducting polymers enables rapid charge transport through the bulk of the present compositions when incorporated into an organic electronic device, increasing the performance of the device. The highly conductive doped polymers of the compositions produce HILs or HTLs having high conductivities, which lower the series resistance of organic electronic devices. This is in contrast to other hole injection technologies which produce HILs or HTLs having much lower conductivities (and as a consequence, devices with higher series resistance). The present compositions, when used as HILs or HTLs in organic devices, typically lead to increases in device parameters such as power efficiency. For example, when used as HILs in OLEDs, can lead to increases in efficiency of at least 5%, or at least greater than or equal to 10%, up to 50%, depending on the operating voltage and quantum efficiency of the OLED in the absence of a good hole injection layer, compared to OLEDs fabricated using traditional HILs that contain an insulating matrix component.    DETAILED DESCRIPTION - An INDEPENDENT CLAIM is included for forming (M2) hole transport layer or hole injection layer involving: co-mixing a first composition comprising at least one conductive conjugated polymer and a second composition comprising at least one semiconducting matrix component that is different from the conductive conjugated polymer to form a third composition, where the third composition comprises an insulating matrix component (less than 5 wt./wt.%); and depositing the third composition onto a substrate to form a hole transport layer or hole injection layer, where the hole transport layer or hole injection layer is incorporated into an electronic device.