<p>As electric vehicles and portable devices become more common, battery-type hybrid supercapacitors are becoming more popular. As the name suggests, these supercapacitors store energy by intercalation, which necessitates materials that facilitate this process. For this use, stacked or planar oxide spinel materials are perfect. There is promise for creating battery-type hybrid supercapacitors by structurally intercalating oxide spinel materials. These materials’ unique crystal structures improve their capacity for energy storage by enabling the reversible insertion and extraction of ions. Compared to conventional carbon-based supercapacitors, the intercalation technique enhances ionic conductivity and charge storage capacity, leading to improved performance. An important benefit for energy storage technologies is the combination of fast charge/discharge rates from supercapacitor principles and high energy density from battery-type mechanisms. The electrochemical properties of these materials can also be improved via doping and composite creation. Oxide spinel materials, therefore, mark a major breakthrough in the search for effective and environment friendly energy storage options, opening the opportunities for further studies and progress in hybrid supercapacitor technology. The structural properties, intercalation procedure, synthesis techniques, challenges, performance-boosting strategies, and electrochemical performance of oxide spinels in hybrid supercapacitor applications are all examined in this review. In order to improve electric vehicles and other electronic devices, this review offers crucial information for creating improved battery-type hybrid supercapacitors employing oxide-based spinel materials.</p>