Lawrence Livermore National Laboratory (LLNL) and Verne have successfully demonstrated a groundbreaking method for producing high-density hydrogen through a research program funded by the Department of Energy's ARPA-E. This innovative process allows for the creation of cryo-compressed hydrogen with liquid hydrogen-like density directly from gaseous hydrogen sources, significantly reducing the energy input required compared to traditional hydrogen liquefaction methods. The energy density of hydrogen is exceptionally high on a mass basis; however, storing gaseous hydrogen at ambient conditions requires more volume compared to other energy storage forms. The breakthrough achieved by LLNL and Verne involves a pathway that combines compression and cooling simultaneously, albeit to a lesser extent than when used independently. By showcasing the feasibility of cryo-compressed hydrogen, this demonstration addresses the trade-off between compressed gaseous hydrogen and liquid hydrogen faced by the current hydrogen supply chain. The new method breaks this trade-off by delivering high-density hydrogen without the substantial energy inputs associated with hydrogen liquefaction. Furthermore, the partnership between LLNL and Verne has led to the development of a more efficient densification pathway for hydrogen. This pathway does not require a phase change, resulting in 50% energy savings compared to small-scale hydrogen liquefaction. The densification process is also more modular, allowing for efficient small-scale construction, optimizing the hydrogen distribution network. The collaboration between the national laboratory and industry experts not only facilitates the advancement of hydrogen densification technology but also enables a more cost-effective and energy-efficient means of delivering and utilizing hydrogen. This breakthrough opens up a myriad of applications for hydrogen across various demanding sectors of the economy, such as construction, ports, and warehouses, by significantly reducing distribution costs.