In recent years a more sustainable alternative to the presently used materials has emerged in the form of organic cathode materials, which can be made out of abundant raw materials with a lower carbon footprint. Additionally, organic materials can swell, which can significantly improve ionic conductivity, and can overcome slow solid-state diffusion limitations of inorganic materials enabling their use in multivalent batteries such as aluminum, magnesium, and zinc. Compatibility of the zinc metal with the aqueous electrolytes made zinc-ion batteries one of the most promising candidates for large-scale energy storage applications. Apart from inherent safety due to lower toxicity and non-flammability of aqueous electrolytes, the use of zinc metal also offers cost benefits due to higher world resources (approximately 20 more abundant than Li) and the stability of the Zn-battery components in ambient atmosphere, which simplifies the production process. Although there are many reports on new organic cathode materials, there is still a lack of materials obtained through facile synthesis with stable cycling and high energy density. To date, several types of redox-active organic materials have been explored, including imine compounds, stable organic radicals, conductive polymers, nitro aromatics, N,N'substituted phenazines, and most extensively studied conjugated carbonyl compounds. Introducing additional redox active motifs into organic materials structure increases the theoretical capacity of the system. A recent study showed that a simple substitution of benzene unit with pyrazine in anthraquinone molecule simultaneously increased the voltage and the theoretical capacity of the system. Several recent reports employed the findings and constructed small organic cathode materials with multiple pyrazine and quinone units displaying excellent performance in Li-organic, and Zn-organic batteries. Although small organic cathode materials exhibit high specific capacities, most are plagued by fast capacity fading due to the dissolution in the electrolyte. Several strategies have been used to address the problem, including immobilization of the active material on the solid support, use of concentrated electrolytes, use of selective separators, and incorporation of the active unit into a less soluble polymer. Implementation of the presented approaches comes with a drawback of decreased energy density of the system due to the addition of non redox-active components.