This technique led to the successful synthesis of a 3D advanced material, Janus TMD. It applies emerging electrochemical NRR, achieving high selectivityFaradaic efficiency(FE) in ammonia conversion. The surface modification can be conducted using a plasma-assisted-seneizaion process, for which JTMDs were successfully obtained. The NRR behaviors were carried out using a potentiostat, resulting in the production of ammonia. spectrophotometer revealed a FE of up to 35.24.

Electrochemical nitrogen reduction (NRR) has been a promising catalytic technology in recent years. Transition metal chalcogenides have been identified as suitable alternatives to precious metals. Our technique achieved three breakthroughs: direct deposition of the material on substrates to create the Janus TMDanalysis of energy changes during nitrogen conversion. Our team successfully synthesized 3D Janus WSeS/WSe2 nanowallsachieved a high Faradaic efficiency of 35.24  in NRR.

Liquid ammonia has been considered as a crucial energy carrier in the future. This technology offers promising prospects with its ability to synthesize ammonia under mild conditionsdemonstrate superior catalytic efficiency, particularly in the growing global green hydrogen market. Janus transition metal dichalcogenides (TMDs) exhibit intriguing electronic properties distinct from traditional TMDs, presenting various possibilities for Taiwan’s semiconductor industry.