Ammonia, a critical element in the chemical industry and a significant part of global production, is poised for a green revolution with the rise of 'green ammonia' sourced from renewable energy. Traditionally produced through the energy-intensive Haber-Bosch process, ammonia's impact on carbon emissions is a concern, with the majority of hydrogen for its production coming from fossil fuels. To address this, researchers from the University of Sydney and Zhejiang University have introduced a potentially groundbreaking approach using nonthermal plasma to convert nitrogen from air into ammonia. This innovative method, detailed in their publication 'Regulating Multifunctional Oxygen Vacancies for Plasma-Driven Air-to-Ammonia Conversion', could pave the way for a more sustainable and eco-friendly production of ammonia. Ammonia's unique properties, such as its energy density and storage convenience, position it as a promising candidate for various applications, particularly in transportation and energy grid stabilization. The research emphasizes the advantages of ammonia over hydrogen, citing its stability and ease of transportation. Challenges remain in transitioning to 'green ammonia,' primarily due to the complexities and costs associated with green hydrogen production. However, advancements in nanotechnology and novel techniques like nonthermal plasma offer hope for overcoming these hurdles. The shift towards green ammonia production aligns with global efforts to reduce carbon emissions and embrace sustainable practices in the chemical industry. While traditional methods of ammonia production pose environmental challenges, the potential of nonthermal plasma to revolutionize the process signifies a significant step towards achieving a greener economy. Despite existing obstacles, the research community's dedication to finding innovative solutions underscores a positive outlook for the future of ammonia production and its role in a more sustainable world.