Climate change is profoundly impacting agriculture, leading to increased droughts, extreme temperatures, and shifting precipitation patterns that threaten crop yields and soil health. Traditional breeding methods struggle to keep up with these rapid changes, highlighting the need for more advanced technologies. Biotechnology, including genetic engineering and CRISPR-Cas9 gene editing, offers precise tools for developing climate-resilient crops by introducing or modifying traits such as drought tolerance, heat resistance, and pest resistance. These advancements can significantly enhance crop yields and sustainability. However, challenges such as technical complexity, regulatory hurdles, public skepticism, and high costs must be addressed. Bioinformatics and computational biology further aid in predicting climate impacts and designing resilient crops by analyzing vast datasets and optimizing gene-editing strategies. Robotics also contributes to precision farming by automating tasks and improving efficiency. A holistic approach that integrates these technological advancements with ethical considerations and economic support is essential for developing resilient agricultural systems and ensuring food security amidst climate change.