A recent study published in Renewable Energy by the University of Johannesburg introduces a promising industrial process for producing green hydrogen from crushed sugar cane waste. The Sorption-Enhanced Chemical Looping Gasification (SECLG) process simulation indicates high energy efficiency and minimal production of unwanted by-products such as tar, carbon monoxide, carbon dioxide, and nitrogen. This innovation could play a vital role in decarbonizing energy-intensive industries like steel and cement. The SECLG method offers advantages over conventional biomass gasification plants by producing higher purity green hydrogen, boasting greater energy efficiency, and better carbon capture capabilities. The study's mathematical model and Aspen Plus simulation demonstrate the potential of SECLG, showcasing the use of high-performance oxygen carriers like nickel oxide for optimal hydrogen yields and carbon capture. While SECLG shows promise, further research is required to address challenges such as material degradation over time and efficient separation of unwanted by-products. The development of SECLG technology necessitates investment in infrastructure and industry collaboration for sustainable large-scale implementation. Prof. Bilainu Oboirien and Mr. Lebohang Gerald Motsoeneng emphasize the importance of experimental validation to progress towards commercial applications. This innovative approach to green hydrogen production from sugar cane waste could significantly contribute to the transition towards cleaner energy sources, benefiting countries with existing biomass gasification infrastructure like China, Brazil, and South Africa, if successfully implemented.