This educational exploration delves into the complex intersections of these two realms, aiming to unravel the nuanced relationship between environmentally conscious chemical practices and the pressing challenge of arsenic contamination in groundwater. As we navigate the intricate landscape of sustainable development, this study seeks to provide valuable insights that not only shed light on the scientific intricacies involved but also contribute to the formulation of informed strategies and solutions. Through a holistic examination of the multifaceted facets of Green Chemistry and arsenic-induced groundwater pollution, this research endeavors to carve a path towards a more sustainable and resilient future. For an extended period, the utilization of green chemistry (GC) has demonstrated that employing a fundamental scientific methodology and advanced practices can enhance the safe production for human life while minimizing environmental disturbances. To achieve this, progress has been made in scientific processes within the realms of designing safer reagents and solvents, advancing catalysis, and potentially developing renewable feed stocks. To attain greater accomplishments, contemporary chemists are now being educated and trained in a broader understanding of green chemistry, emphasizing increased awareness of both human and environmental impacts. Nevertheless, the global emphasis on sustainable development has posed a challenge for green chemistry educators to instruct students in assessing the intricate factors of green chemistry, including societal sustainability considerations. This paper reviews courses and programs that aim to fulfill these objectives, along with assessment methods used to evaluate student outcomes in green chemistry courses. The global food supply has significantly expanded due to the discovery of hybrid varieties, improved cultivation methods, better seeds, and the use of pesticides, herbicides, and fertilizers.