hydrogen boiloff (LH2) during marine transportation translates into higher delivered energy cost, making the breakthrough catalyst developed between Tokyo Institute of Technology and the National Institute for Materials Science (NIMS) a promising prospect for long haul hydrogen cargoes. P.S. What's left to be uncovered, is in how spin isomers can provide a leap-forward for hydrogen electrolysis, a field that most cutting edge electrolysis stack manufacturers, have yet to catch up to. P.P.S. > Here's a good overview to start > https://advanced.onlinelibrary.wiley.com/doi/10.1002/aenm.202503556 ... for example; page 5, "Key Results and Methodological Limitations", paragraph 2, line 7. Table 1, in this instance, is a gold-mine of mV increment data that illuminates optimal cathode candidates in regards to bulk porosity… Now, the awesome part actually lies within page 20, Section 2.3, in particular, item 4. Having a Eureka moment yet? I guess, Figure 7, can best be summed up as; knowing where’s Left and Right within a space Z.sub.1 in a domain S.sub.1 (like a bubble, for example), is pretty important before one tries to write CFD governing sub-equations into that machine learning grid that runs on Python, because you will keep getting the answer that is always off by a football field margin of error. > https://www.academicjobs.com/higher-education-news/liquid-hydrogen-catalyst-nims-tokyo-tech-discovery-or-academicjobs-12099