Precipitation forecasting remains one of the most complex challenges in modern meteorology, especially when dealing with extreme events that can cause floods or significant material damage. Traditional numerical models have made progress, but machine learning-based models, such as Aurora, still have limitations in capturing high-intensity events. Recently, an innovation has begun to change this landscape: the integration of zenith wet delay (ZWD) data obtained from global navigation satellite systems (GNSS). This variable, which directly measures the atmospheric water vapor column, has been shown to systematically improve forecasts of accumulated precipitation at six hours, with increases of up to 8.8% in the equitable threat index for extreme events. The key is that ZWD provides continuous, all-weather information, something traditional sensors do not always achieve. To leverage this type of massive and heterogeneous data, organizations need robust platforms that integrate artificial intelligence with scalable processing capabilities. At Q2BSTUDIO, we develop custom applications that allow companies in the climate and insurance sectors to incorporate satellite data sources, machine learning models, and cloud services like those we offer with AWS and Azure cloud services. The combination of AI agents and business intelligence solutions with Power BI facilitates the visualization of complex weather patterns. Additionally, we ensure the security of these critical systems through advanced cybersecurity. The integration of GNSS with AI models not only improves forecast accuracy but also opens the door to new applications in precision agriculture, water resource management, and urban planning. In a context where extreme events are becoming more frequent, having AI for businesses that processes real-time data makes the difference. At Q2BSTUDIO, we help our clients transform scattered data into informed decisions, using process automation and specialized AI agents. The zenith wet delay is just one example of how the fusion of technologies can leave the laboratory and directly impact society. The next frontier lies in incorporating these advances into operational systems that companies can use daily, with custom software that adapts to their workflows. Ultimately, machine learning-based meteorology is entering a new era, and those who adopt these tools will be better prepared to anticipate and mitigate the effects of storms.



