revolution, a direct correlation has been established between this temperature escalation and the surge in atmospheric CO2 levels, currently reaching 417 parts per million 2 due to anthropogenic carbon emissions arising from the combustion of fossil fuels. Consequently, it is imperative to address this issue and seek effective solutions. In order to establish effective carbon management, the development of highly efficient and economically viable carbon capture technologies assumes pivotal significance. The utilization of aqueous amine solutions through thermal-swing processes is one of the most mature technologies for carbon capture. However, despite its maturity, there are some limitations associated with thermal amine capture, including high energy consumption and environmental concerns stemming from the volatility of amines. These limitations have impeded its wider deployment in various industry sectors as well as direct air capture of CO2. Recently, electrochemical carbon capture has emerged as a promising alternative to traditional thermal amine capture. Unlike thermal-swing processes, electrochemical systems offer advantages such as reduced energy consumption and compatibility with renewable energy sources. By harnessing the power of electrochemistry, these systems provide a more environmentally friendly and economically feasible approach to carbon capture. Additionally, their decentralized operation and potential for localized carbon capture make them efficient and cost-effective solutions. In parallel, the exploration of photochemical carbon capture utilizing light directly opens new avenues for innovative carbon management strategies.