Grid　connection　of　intermittent　renewable　energy,　such　as　wind　power　and　photovoltaic,　results　in　challenges　of　keeping　power　balance　for　power　system　operation.　In　order　to　solve　this　problem,　this　article　proposed　a　multitime　scale　coordinated　scheduling　model　for　the　combined　system　of　wind　powerphotovoltaic-thermal　generator-hydro　pumped　storage-battery　(WPTHB)　by　taking　advantages　of　their　complementary　operation　characteristics.　The　scheduling　model　is　composed　of　three　time　scales:　the　day-ahead　scheduling,　the　1-h　ahead　scheduling,　and　15-min　ahead　scheduling.　1)　In　the　day-ahead　scheduling,　based　on　the　24-h　ahead　forecast　data　of　wind-photovoltaic　power　and　load　demand　(WPL),　the　optimal　power　outputs　of　thermal　power　units　are　solved　from　a　mixed-integer　linear　programming　model　to　achieve　the　minimal　operation　cost　of　thermal　units.　2)　In　the　1-h　ahead　scheduling,　based　on　power　output　of　thermal　units　optimized　in　the　day-ahead　scheduling　and　the　hourly　forecasted　WPL,　the　hydro-pumped　unit　power　outputs　are　optimally　dispatched　to　minimize　their　operation　cost.　3)　In　the　15-min　ahead　scheduling,　based　on　day-ahead　optimal　power　outputs　of　thermal　units　and　the　1-h　ahead　optimal　outputs　of　pumped　storage,　the　battery　optimal　power　generation　is　obtained　from　an　ac　optimal　power　flow　model　solved　by　MATPOWER.　The　simulation　of　the　New　England　system　has　validated　that　the　proposed　multitime　scale　coordinated　schedulingmodel　could　fully　explore　the　distinguished　power　regulation　speed　and　capacities　of　thermal　power　units,　hydro-pumped　storage,　and　batteries　to　effectively　track　WPL　variations　and　achieve　system　economic　operation　simultaneously.