A report from Cornell University and the Clean Air Task Force highlights the potential of superhot rock energy to revolutionize geothermal power production. By drilling deep into the Earth to access temperatures exceeding 374 degrees Celsius, geothermal systems can tap into superhot rock energy for more efficient electricity generation. The report emphasizes the importance of overcoming technology gaps in drilling, well construction, heat extraction, and power production to make geothermal energy viable in diverse locations. While conventional geothermal systems are limited to specific regions with concentrated heat, advancements in accessing superhot rock energy could make geothermal power available almost anywhere. The researchers stress the need for careful siting and understanding of subsurface features to safely harness the energy from superhot rocks. Collaborations across various sectors, including academia, government, and industry, are essential to accelerate the commercial development of this technology. The study also highlights the significance of technological innovations in drill rigs, sensors, and temperature management equipment to reduce risks and improve efficiency in geothermal operations. Exciting research indicates that a small fraction of geothermal energy near the Earth's surface could potentially fulfill a significant portion of the current energy demand in the United States. The report underscores the inexhaustible and clean energy potential of geothermal systems, particularly superhot rock energy, which could offer long-term renewable baseload power at a scale and cost comparable to fossil fuels. Overall, the collaborative efforts and technological advancements discussed in the report aim to unlock the vast potential of superhot rock energy for sustainable and scalable geothermal power worldwide.