C  Copyright (c) 2003-2010 University of Florida
C
C  This program is free software; you can redistribute it and/or modify
C  it under the terms of the GNU General Public License as published by
C  the Free Software Foundation; either version 2 of the License, or
C  (at your option) any later version.

C  This program is distributed in the hope that it will be useful,
C  but WITHOUT ANY WARRANTY; without even the implied warranty of
C  MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
C  GNU General Public License for more details.

C  The GNU General Public License is included in this distribution
C  in the file COPYRIGHT.
      subroutine eomroot_print_new(array_table, 
     *                      narray_table, index_table,
     *                      nindex_table, segment_table, nsegment_table,
     *                      block_map_table, nblock_map_table,
     *                      scalar_table, nscalar_table, 
     *                      address_table, op)
c--------------------------------------------------------------------------
c   Calculates the eigenvalues and eigenvectors of a 2-d square matrix.
c   The matrix is also diagonalized on output.
c
c   The eigenvalues are stored in a common block.  
c   The instruction is executed as follows:
c   
c   execute eig Array1 Array2
c
c   where Array1 is the input matrix that is to be diagonalized.
c         Array2 is the matrix whose columns are the eigenvectors of Array1.
c
c   Both Array1 and Array2 must be "static" arrays.
c--------------------------------------------------------------------------

      implicit none
      include 'interpreter.h'
      include 'parallel_info.h'
      include 'trace.h'
      include 'int_gen_parms.h'
#ifdef ALTIX
      include 'sheap.h'
#endif

      integer narray_table, nindex_table, nsegment_table, 
     *        nblock_map_table
      integer op(loptable_entry)
      integer array_table(larray_table_entry, narray_table)
      integer index_table(lindex_table_entry, nindex_table)
      integer segment_table(lsegment_table_entry, nsegment_table)
      integer block_map_table(lblock_map_entry, nblock_map_table)
      integer nscalar_table
      double precision scalar_table(nscalar_table)
      integer*8 address_table(narray_table)

      integer*8 iarray, ievec, get_index_from_base
      integer i, j, n
      integer array, evec_array
      integer array_type, evec_type
      integer nindex, nindex_evec
      integer ind(mx_array_index)
      integer junk

      double precision x(1)
#ifdef ALTIX
      pointer (dptr, x)
#else
      common x
#endif

c----------------------------------------------------------------------------
c   Locate the data for the input matrix.
c---------------------------------------------------------------------------

      array = op(c_result_array)
      evec_array = op(c_op1_array)
      if (array .eq. 0 .or. evec_array .eq. 0) then
         print *,'Error: eom_root_print_new routine requires 
     *            2 array arguments.'
         print *,(op(i),i=1,loptable_entry)
         call abort_job()
      endif

      array_type = array_table(c_array_type, array)
      evec_type  = array_table(c_array_type, evec_array)
      if (array_type .ne. static_array .or. 
     *    evec_type .ne. static_array) then
         print *,'Error: Both arrays in eom_root_print_new routine 
     *            must be static.'
         call abort_job()
      endif

#ifdef ALTIX
      dptr = dshptr
#endif

      nindex = array_table(c_nindex, array)
      nindex_evec = array_table(c_nindex, evec_array)
      if (nindex .ne. nindex_evec) then
         print *,'Error: Both arrays in EIG must use ',
     *           'the same number of indices.'
         print *,'First array has ',nindex,' indices.'
         print *,'Second array has ',nindex_evec,' indices.'
         call abort_job()
      endif

      do i = 1, nindex
         ind(i) = array_table(c_index_array1+i-1,array)
      enddo

c---------------------------------------------------------------------------
c   Look up each array's address.
c---------------------------------------------------------------------------

      iarray = get_index_from_base(address_table(array), x, 2)
      ievec  = get_index_from_base(address_table(evec_array), x, 2)

CSSS   n = index_table(c_index_size, ind(1))  ! pick up length of index
C Print exactly the number of roots requested in the input

      n = Int(eom_roots)
      call doeomroot_print_new(x(iarray), x(ievec), n)

      return
      end

      subroutine doeomroot_print_new (rootmat,resdmat,n)
      implicit none
      include 'interpreter.h'
      include 'int_gen_parms.h'
      include 'parallel_info.h'
      integer i,j,n, ieom_roots, amax  
      double precision rootmat(n,1),resdmat(n,1)
      double precision root,resd
      ieom_roots = eom_roots
      amax = max(ieom_roots,6)

      if (me .eq. 0)then

      write(66,*) ' '
      write(66,'(1x,57("-"))')
      write(66,*) '                      EOM-CCSD energies '
      write(66,99) 'root','Hartree','eV','residuum'
      write(66,'(1x,57("-"))') 
c
      do i = 1, n
         if (i .le. amax) then  
            root = rootmat (i,1)
            resd = resdmat (i,1)
            Write(6,*) i, root, root*27.21138505, resd
            write(66,100) i, root, root*27.21138505, resd
         endif 
      enddo

      write(66,*) ' '
      write(66,'(1x,57("-"))')
      write(66,'(1x,57("-"))') 
      write(6,*) ' '
c
      endif

 99   format(3x,A4,8x,A7,12x,A2,12x,A8)
100   format(2x,I4,5x,F12.8,5x,F12.8,5x,F12.8)

      return
      end
