为了避免反应温度过高P原子取代碳原子而进入碳化钼晶格，我们采用了低温压

In order to avoid excessively high reaction temperature, P atoms replace carbon atoms and enter the molybdenum carbide lattice, we adopted a low-temperature pressure assisted strategy to chemisorb P single atoms on the surface of molybdenum carbide.

In order to avoid the reaction temperature is too high P atoms to replace carbon atoms and enter the carbonized molybdenum lattice, we adopted a low temperature pressure-assisted strategy to chemically absorb P single atoms on the surface of the carbonized molybdenum.

In order to avoid the reaction temperature too high, P atoms replace carbon atoms and enter the molybdenum carbide lattice.<br>