if (evolution_storage==1)
{
STORAGE:ADM_metric_prev,ADM_curv_prev
COMMUNICATION: ADM_metric_prev 
}

if (CCTK_Equals(evolution_system,"ADM"))
{
  STORAGE: ADM_metric_prev,ADM_lapse_prev,ADM_curv_prev
  COMMUNICATION: ADM_metric_prev,ADM_lapse_prev

  schedule ADMSetSym at CCTK_BASEGRID
  {
    LANG: Fortran
  } "Set symmetries for ADM grid functions"

  if (store_initial_lapse == 1)
  {
  STORAGE:ADM_initlapse
  }

  schedule ADM_Preloop at CCTK_INITIAL9
  {
    LANG: Fortran
  }"Report on parameters for ADM Evolution"

  if (store_initial_lapse) 
  {
    schedule ADM_alp0_init at CCTK_INITIAL9
    {
      LANG: Fortran
    }"Save the lapse function at the initial timestep"
  }
	
  if (CCTK_Equals(method,"stagleap"))
  {
	# Evolve using Staggered Leapfrog

	STORAGE: ADM_curv_stag,ADM_sources,ADM_extrap,ADM_gauge

        if (minimal_communications==0)
        {
          COMMUNICATION:ADM_curv_stag
        }

	schedule ADM_StaggeredLeapfrog at CCTK_EVOL
	{
	     LANG: Fortran
        }"Evolve using Staggered Leapfrog"
  }
  else if (CCTK_Equals(method,"leapfrog"))
  { 
	# Evolve using Double Leapfrog

        STORAGE: ADM_sources,ADM_gauge

	schedule ADM_DoubleLeap at CCTK_EVOL
	{
	     LANG: Fortran
	}"Evolve using Double Leapfrog"
  }
  
  else if (CCTK_Equals(method,"ICN")) 
  {	
	# Evolve using Iterative Crank-Nicholson

	STORAGE: ADM_sources,ADM_gauge

	schedule ADM_IterativeCN at CCTK_EVOL
	{
	     LANG: Fortran
	}"Evolve using Iterative Crank-Nicholson" 
  
  }
}