To　improve　the　performance　stability　and　efficiency　of　proton　exchange　membrane　fuel　cell　(PEMFC),　an　integrated　proton　exchange　membrane　fuel　cell　based　on　micro　heat　pipe　array　(MHPA)　for　thermal　management　was　proposed,　and　a　three-dimensional　simulation　model　of　the　PEMFC　was　established.　This　study　has　addressed　the　thermal　and　water　management　challenges　inherent　to　PEMFC.　The　effects　of　MHPA　on　the　electrochemical　parameters　of　the　fuel　cells　were　analyzed　via　simulation,　and　the　effects　of　the　air　stoichiometric　ratio　and　hydrogen　supply　pressure　on　the　performance　and　parameters　of　the　MHPA-PEMFC　were　studied.　Results　demonstrated　that　integrating　a　MHPA　can　reduce　the　operating　temperature　of　PEMFC　by　8.1　K　and　increase　the　average　current　density　by　385　A/m2　at　a　working　voltage　of　0.619　V.　Optimal　performance　in　terms　of　current　density　and　uniformity　could　be　achieved　when　the　air　stoichiometry　was　111.　At　a　hydrogen　pressure　of　70　kPa,　the　current　fluctuation　rate　was　2.31　%,　and　the　hydrogen　utilization　rate　was　74.3　%.　Overall,　these　results　provide　guidance　for　improving　hydrothermal　management　in　MHPA-PEMFC.