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quantum-espresso/Modules/qes_libs.f90

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!
! Copyright (C) 2003-2016 Quantum ESPRESSO group
! This file is distributed under the terms of the
! GNU General Public License. See the file `License'
! in the root directory of the present distribution,
! or http://www.gnu.org/copyleft/gpl.txt .
!
MODULE qes_libs_module
! This module contains some basic subroutines initialize data_type used for
! reading and writing XML files produced by Quantum ESPRESSO package.
!
! Written by Giovanni Borghi, A. Ferretti, ... (2015).
!
USE qes_types_module
USE FoX_wxml
!
INTEGER, PARAMETER :: max_real_per_line=5
CHARACTER(32) :: fmtstr
!
PRIVATE :: attr, fmtstr
!
INTERFACE qes_init_matrix
MODULE PROCEDURE qes_init_matrix_1, qes_init_matrix_2, qes_init_matrix_3
END INTERFACE
INTERFACE qes_init_integerMatrix
MODULE PROCEDURE qes_init_integerMatrix_1, qes_init_integerMatrix_2, qes_init_integerMatrix_3
END INTERFACE
CONTAINS
!
SUBROUTINE qes_write_xml_format(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(xml_format_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement (xp, TRIM(obj%tagname))
CALL xml_addAttribute(xp, 'NAME', TRIM(obj%NAME))
CALL xml_addAttribute(xp, 'VERSION', TRIM(obj%VERSION))
!
CALL xml_AddCharacters(xp, TRIM(obj%xml_format) )
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_xml_format
SUBROUTINE qes_init_xml_format(obj, tagname, NAME, VERSION, xml_format)
IMPLICIT NONE
TYPE(xml_format_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: NAME
CHARACTER(len=*) :: VERSION
CHARACTER(len=*) :: xml_format
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%NAME = TRIM(NAME)
obj%VERSION = TRIM(VERSION)
obj%xml_format = xml_format
END SUBROUTINE qes_init_xml_format
SUBROUTINE qes_reset_xml_format(obj)
IMPLICIT NONE
TYPE(xml_format_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_xml_format
SUBROUTINE qes_write_creator(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(creator_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement (xp, TRIM(obj%tagname) )
CALL xml_addAttribute(xp, 'NAME', TRIM(obj%NAME))
CALL xml_addAttribute(xp, 'VERSION', TRIM(obj%VERSION))
!
CALL xml_addCharacters(xp, TRIM(obj%creator) )
CALL xml_endElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_creator
SUBROUTINE qes_init_creator(obj, tagname, NAME, VERSION, creator)
IMPLICIT NONE
TYPE(creator_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: NAME
CHARACTER(len=*) :: VERSION
CHARACTER(len=*) :: creator
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%NAME = TRIM(NAME)
obj%VERSION = TRIM(VERSION)
obj%creator = creator
END SUBROUTINE qes_init_creator
SUBROUTINE qes_reset_creator(obj)
IMPLICIT NONE
TYPE(creator_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_creator
SUBROUTINE qes_write_created(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(created_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'DATE', TRIM(obj%DATE))
CALL xml_addAttribute( xp, 'TIME', TRIM(obj%TIME))
!
CALL xml_addCharacters(xp, TRIM(obj%created) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_created
SUBROUTINE qes_init_created(obj, tagname, DATE, TIME, created)
IMPLICIT NONE
TYPE(created_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: DATE
CHARACTER(len=*) :: TIME
CHARACTER(len=*) :: created
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%DATE = TRIM(DATE)
obj%TIME = TRIM(TIME)
obj%created = created
END SUBROUTINE qes_init_created
SUBROUTINE qes_reset_created(obj)
IMPLICIT NONE
TYPE(created_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_created
SUBROUTINE qes_write_atom(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atom_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'name', TRIM(obj%name))
IF(obj%position_ispresent) THEN
CALL xml_addAttribute( xp, 'position', TRIM(obj%position))
END IF
IF(obj%index_ispresent) THEN
CALL xml_addAttribute( xp, 'index', obj%index)
END IF
!
CALL xml_addCharacters(xp, obj%atom, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atom
SUBROUTINE qes_init_atom(obj, tagname, name, position, position_ispresent, index, index_ispresent, &
atom)
IMPLICIT NONE
TYPE(atom_type) :: obj
CHARACTER(len=*) :: tagname
CHARACTER(len=*) :: name
LOGICAL :: position_ispresent
CHARACTER(len=*), OPTIONAL :: position
LOGICAL :: index_ispresent
INTEGER , OPTIONAL :: index
REAL(DP), DIMENSION(3) :: atom
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%name = TRIM(name)
obj%position_ispresent = position_ispresent
IF (obj%position_ispresent) THEN
obj%position = TRIM(position)
ENDIF
obj%index_ispresent = index_ispresent
IF (obj%index_ispresent) THEN
obj%index = index
ENDIF
obj%atom = atom
END SUBROUTINE qes_init_atom
SUBROUTINE qes_reset_atom(obj)
IMPLICIT NONE
TYPE(atom_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_atom
SUBROUTINE qes_write_qpoint_grid(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(qpoint_grid_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement (xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'nqx1', obj%nqx1)
CALL xml_addAttribute( xp, 'nqx2', obj%nqx2)
CALL xml_addAttribute( xp, 'nqx3', obj%nqx3)
!
CALL xml_addCharacters(xp, TRIM(obj%qpoint_grid) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_qpoint_grid
SUBROUTINE qes_init_qpoint_grid(obj, tagname, nqx1, nqx2, nqx3, qpoint_grid)
IMPLICIT NONE
TYPE(qpoint_grid_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nqx1
INTEGER :: nqx2
INTEGER :: nqx3
CHARACTER(len=*) :: qpoint_grid
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nqx1 = nqx1
obj%nqx2 = nqx2
obj%nqx3 = nqx3
obj%qpoint_grid = qpoint_grid
END SUBROUTINE qes_init_qpoint_grid
SUBROUTINE qes_reset_qpoint_grid(obj)
IMPLICIT NONE
TYPE(qpoint_grid_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_qpoint_grid
SUBROUTINE qes_write_HubbardCommon(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(HubbardCommon_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'specie', TRIM(obj%specie))
CALL xml_addAttribute( xp, 'label', TRIM(obj%label))
!
CALL xml_addCharacters(xp, obj%HubbardCommon, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_HubbardCommon
SUBROUTINE qes_init_HubbardCommon(obj, tagname, specie, label, HubbardCommon)
IMPLICIT NONE
TYPE(HubbardCommon_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: specie
CHARACTER(len=*) :: label
REAL(DP) :: HubbardCommon
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%specie = TRIM(specie)
obj%label = TRIM(label)
obj%HubbardCommon = HubbardCommon
END SUBROUTINE qes_init_HubbardCommon
SUBROUTINE qes_reset_HubbardCommon(obj)
IMPLICIT NONE
TYPE(HubbardCommon_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_HubbardCommon
SUBROUTINE qes_write_HubbardJ(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(HubbardJ_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'specie', TRIM(obj%specie))
CALL xml_addAttribute( xp, 'label', TRIM(obj%label))
!
CALL xml_addCharacters(xp, obj%HubbardJ, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_HubbardJ
SUBROUTINE qes_init_HubbardJ(obj, tagname, specie, label, HubbardJ)
IMPLICIT NONE
TYPE(HubbardJ_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: specie
CHARACTER(len=*) :: label
REAL(DP), DIMENSION(3) :: HubbardJ
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%specie = TRIM(specie)
obj%label = TRIM(label)
obj%HubbardJ = HubbardJ
END SUBROUTINE qes_init_HubbardJ
SUBROUTINE qes_reset_HubbardJ(obj)
IMPLICIT NONE
TYPE(HubbardJ_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_HubbardJ
SUBROUTINE qes_write_starting_ns(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(starting_ns_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'specie', TRIM(obj%specie))
CALL xml_addAttribute( xp, 'label', TRIM(obj%label))
CALL xml_addAttribute( xp, 'spin', obj%spin)
CALL xml_addAttribute( xp, 'size', obj%size)
!
CALL xml_addCharacters(xp, obj%starting_ns, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_starting_ns
SUBROUTINE qes_init_starting_ns(obj, tagname, specie, label, spin, vec)
IMPLICIT NONE
TYPE(starting_ns_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: specie
CHARACTER(len=*) :: label
INTEGER :: spin
REAL(DP), DIMENSION(:) :: vec
INTEGER :: ndim_vec
ndim_vec = size(vec)
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%specie = TRIM(specie)
obj%label = TRIM(label)
obj%spin = spin
obj%size = ndim_vec
ALLOCATE(obj%starting_ns(ndim_vec))
obj%starting_ns(:) = vec(:)
END SUBROUTINE qes_init_starting_ns
SUBROUTINE qes_reset_starting_ns(obj)
IMPLICIT NONE
TYPE(starting_ns_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%starting_ns)) DEALLOCATE(obj%starting_ns)
END SUBROUTINE qes_reset_starting_ns
SUBROUTINE qes_write_Hubbard_ns(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(Hubbard_ns_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'specie', TRIM(obj%specie))
CALL xml_addAttribute( xp, 'label', TRIM(obj%label))
CALL xml_addAttribute( xp, 'spin', obj%spin)
CALL xml_addAttribute( xp, 'index', obj%index)
CALL xml_addAttribute( xp, 'rank', obj%rank)
CALL xml_addAttribute( xp, 'dims', obj%dims)
CALL xml_addAttribute( xp, 'order',TRIM(obj%order))
!
CALL xml_addNewLine (xp)
DO i=1, obj%dims(2)
CALL xml_addCharacters(xp, obj%Hubbard_ns((i-1)*obj%dims(1)+1:i*obj%dims(1) ),fmt ='s16')
CALL xml_addNewLine(xp)
END DO
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_Hubbard_ns
SUBROUTINE qes_init_Hubbard_ns(obj, tagname, specie, label, spin, index, mat)
IMPLICIT NONE
TYPE(Hubbard_ns_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: specie
CHARACTER(len=*) :: label
INTEGER :: spin
INTEGER :: index
REAL(DP), DIMENSION(:,:) :: mat
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%specie = TRIM(specie)
obj%label = TRIM(label)
obj%spin = spin
obj%index = index
obj%rank = 2
ALLOCATE(obj%Hubbard_ns(size(mat,1)*size(mat,2)), obj%dims(2) )
obj%dims = shape(mat)
obj%order = "F"
DO i = 1, obj%dims(2)
obj%Hubbard_ns((i-1)*obj%dims(1)+1:i*obj%dims(1) ) = mat(:,i)
END DO
END SUBROUTINE qes_init_Hubbard_ns
SUBROUTINE qes_reset_Hubbard_ns(obj)
IMPLICIT NONE
TYPE(Hubbard_ns_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%Hubbard_ns)) DEALLOCATE(obj%Hubbard_ns)
END SUBROUTINE qes_reset_Hubbard_ns
SUBROUTINE qes_write_smearing(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(smearing_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'degauss', obj%degauss)
!
CALL xml_addCharacters(xp, TRIM(obj%smearing) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_smearing
SUBROUTINE qes_init_smearing(obj, tagname, degauss, smearing)
IMPLICIT NONE
TYPE(smearing_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP) :: degauss
CHARACTER(len=*) :: smearing
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%degauss = degauss
obj%smearing = smearing
END SUBROUTINE qes_init_smearing
SUBROUTINE qes_reset_smearing(obj)
IMPLICIT NONE
TYPE(smearing_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_smearing
SUBROUTINE qes_write_occupations(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(occupations_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname))
IF(obj%spin_ispresent) THEN
CALL xml_addAttribute( xp, 'spin', obj%spin)
END IF
!
CALL xml_addCharacters(xp, TRIM(obj%occupations) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_occupations
SUBROUTINE qes_init_occupations(obj, tagname, spin, spin_ispresent, occupations)
IMPLICIT NONE
TYPE(occupations_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: spin_ispresent
INTEGER , OPTIONAL :: spin
CHARACTER(len=*) :: occupations
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%spin_ispresent = spin_ispresent
IF (obj%spin_ispresent) THEN
obj%spin = spin
ENDIF
obj%occupations = occupations
END SUBROUTINE qes_init_occupations
SUBROUTINE qes_reset_occupations(obj)
IMPLICIT NONE
TYPE(occupations_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_occupations
SUBROUTINE qes_write_basisSetItem(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(basisSetItem_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'nr1', obj%nr1)
CALL xml_addAttribute( xp, 'nr2', obj%nr2)
CALL xml_addAttribute( xp, 'nr3', obj%nr3)
!
IF (TRIM(obj%basisSetItem) /= "") CALL xml_addCharacters(xp, TRIM(obj%basisSetItem) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_basisSetItem
SUBROUTINE qes_init_basisSetItem(obj, tagname, nr1, nr2, nr3, basisSetItem)
IMPLICIT NONE
TYPE(basisSetItem_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nr1
INTEGER :: nr2
INTEGER :: nr3
CHARACTER(len=*) :: basisSetItem
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nr1 = nr1
obj%nr2 = nr2
obj%nr3 = nr3
obj%basisSetItem = basisSetItem
END SUBROUTINE qes_init_basisSetItem
SUBROUTINE qes_reset_basisSetItem(obj)
IMPLICIT NONE
TYPE(basisSetItem_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_basisSetItem
SUBROUTINE qes_write_monkhorst_pack(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(monkhorst_pack_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'nk1', obj%nk1)
CALL xml_addAttribute( xp, 'nk2', obj%nk2)
CALL xml_addAttribute( xp, 'nk3', obj%nk3)
CALL xml_addAttribute( xp, 'k1', obj%k1)
CALL xml_addAttribute( xp, 'k2', obj%k2)
CALL xml_addAttribute( xp, 'k3', obj%k3)
!
IF (obj%monkhorst_pack /="") CALL xml_addCharacters(xp, TRIM(obj%monkhorst_pack) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_monkhorst_pack
SUBROUTINE qes_init_monkhorst_pack(obj, tagname, nk1, nk2, nk3, k1, k2, k3, monkhorst_pack)
IMPLICIT NONE
TYPE(monkhorst_pack_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nk1
INTEGER :: nk2
INTEGER :: nk3
INTEGER :: k1
INTEGER :: k2
INTEGER :: k3
CHARACTER(len=*) :: monkhorst_pack
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nk1 = nk1
obj%nk2 = nk2
obj%nk3 = nk3
obj%k1 = k1
obj%k2 = k2
obj%k3 = k3
obj%monkhorst_pack = monkhorst_pack
END SUBROUTINE qes_init_monkhorst_pack
SUBROUTINE qes_reset_monkhorst_pack(obj)
IMPLICIT NONE
TYPE(monkhorst_pack_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_monkhorst_pack
SUBROUTINE qes_write_k_point(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(k_point_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
IF(obj%weight_ispresent) THEN
CALL xml_addAttribute( xp, 'weight', obj%weight)
END IF
IF(obj%label_ispresent) THEN
CALL xml_addAttribute( xp, 'label', TRIM(obj%label))
END IF
!
CALL xml_addCharacters(xp, obj%k_point, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_k_point
SUBROUTINE qes_init_k_point(obj, tagname, weight, weight_ispresent, label, label_ispresent, &
k_point)
IMPLICIT NONE
TYPE(k_point_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: weight_ispresent
REAL(DP), OPTIONAL :: weight
LOGICAL :: label_ispresent
CHARACTER(len=*), OPTIONAL :: label
REAL(DP), DIMENSION(3) :: k_point
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%weight_ispresent = weight_ispresent
IF (obj%weight_ispresent) THEN
obj%weight = weight
ENDIF
obj%label_ispresent = label_ispresent
IF (obj%label_ispresent) THEN
obj%label = TRIM(label)
ENDIF
obj%k_point = k_point
END SUBROUTINE qes_init_k_point
SUBROUTINE qes_reset_k_point(obj)
IMPLICIT NONE
TYPE(k_point_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_k_point
SUBROUTINE qes_write_inputOccupations(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(inputOccupations_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'ispin', obj%ispin)
CALL xml_addAttribute( xp, 'spin_factor', obj%spin_factor)
!
CALL xml_addCharacters(xp, obj%inputOccupations, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_inputOccupations
SUBROUTINE qes_init_inputOccupations(obj, tagname, ispin, spin_factor, vec)
IMPLICIT NONE
TYPE(inputOccupations_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: ispin
REAL(DP) :: spin_factor
INTEGER :: ndim_vec
REAL(DP), DIMENSION(:) :: vec
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ispin = ispin
obj%spin_factor = spin_factor
ALLOCATE(obj%inputOccupations(size(vec)))
obj%inputOccupations(:) = vec(:)
END SUBROUTINE qes_init_inputOccupations
SUBROUTINE qes_reset_inputOccupations(obj)
IMPLICIT NONE
TYPE(inputOccupations_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%inputOccupations)) DEALLOCATE(obj%inputOccupations)
END SUBROUTINE qes_reset_inputOccupations
SUBROUTINE qes_write_phase(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(phase_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
IF(obj%ionic_ispresent) THEN
CALL xml_addAttribute( xp, 'ionic', obj%ionic)
END IF
IF(obj%electronic_ispresent) THEN
CALL xml_addAttribute( xp, 'electronic', obj%electronic)
END IF
IF(obj%modulus_ispresent) THEN
CALL xml_addAttribute( xp, 'modulus', TRIM(obj%modulus))
END IF
!
CALL xml_addCharacters(xp, obj%phase, fmt = 's16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_phase
SUBROUTINE qes_init_phase(obj, tagname, ionic, ionic_ispresent, electronic, electronic_ispresent, &
modulus, modulus_ispresent, phase)
IMPLICIT NONE
TYPE(phase_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: ionic_ispresent
REAL(DP), OPTIONAL :: ionic
LOGICAL :: electronic_ispresent
REAL(DP), OPTIONAL :: electronic
LOGICAL :: modulus_ispresent
CHARACTER(len=*), OPTIONAL :: modulus
REAL(DP) :: phase
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ionic_ispresent = ionic_ispresent
IF (obj%ionic_ispresent) THEN
obj%ionic = ionic
ENDIF
obj%electronic_ispresent = electronic_ispresent
IF (obj%electronic_ispresent) THEN
obj%electronic = electronic
ENDIF
obj%modulus_ispresent = modulus_ispresent
IF (obj%modulus_ispresent) THEN
obj%modulus = TRIM(modulus)
ENDIF
obj%phase = phase
END SUBROUTINE qes_init_phase
SUBROUTINE qes_reset_phase(obj)
IMPLICIT NONE
TYPE(phase_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_phase
SUBROUTINE qes_write_equivalent_atoms(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(equivalent_atoms_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'nat', obj%nat)
!
CALL xml_addAttribute( xp, 'size', SIZE(obj%equivalent_atoms))
!
CALL xml_addCharacters(xp, obj%equivalent_atoms )
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_equivalent_atoms
SUBROUTINE qes_init_equivalent_atoms(obj, tagname, nat, index_list)
IMPLICIT NONE
TYPE(equivalent_atoms_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nat
INTEGER, DIMENSION(:) :: index_list
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nat = nat
ALLOCATE(obj%equivalent_atoms(size(index_list)))
obj%equivalent_atoms(:) = index_list(:)
END SUBROUTINE qes_init_equivalent_atoms
SUBROUTINE qes_reset_equivalent_atoms(obj)
IMPLICIT NONE
TYPE(equivalent_atoms_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%equivalent_atoms)) DEALLOCATE(obj%equivalent_atoms)
END SUBROUTINE qes_reset_equivalent_atoms
SUBROUTINE qes_write_info(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(info_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
IF(obj%name_ispresent) THEN
CALL xml_addAttribute( xp, 'name', TRIM(obj%name))
END IF
IF(obj%class_ispresent) THEN
CALL xml_addAttribute( xp, 'class', TRIM(obj%class))
END IF
IF(obj%time_reversal_ispresent) CALL xml_addAttribute(xp, 'time_reversal', obj%time_reversal)
!
CALL xml_addCharacters(xp, TRIM(obj%info) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_info
SUBROUTINE qes_init_info(obj, tagname, name, name_ispresent, class, class_ispresent, &
time_reversal, time_reversal_ispresent, info)
IMPLICIT NONE
TYPE(info_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: name_ispresent
CHARACTER(len=*), OPTIONAL :: name
LOGICAL :: class_ispresent
CHARACTER(len=*), OPTIONAL :: class
LOGICAL :: time_reversal_ispresent
LOGICAL , OPTIONAL :: time_reversal
CHARACTER(len=*) :: info
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%name_ispresent = name_ispresent
IF (obj%name_ispresent) THEN
obj%name = TRIM(name)
ENDIF
obj%class_ispresent = class_ispresent
IF (obj%class_ispresent) THEN
obj%class = TRIM(class)
ENDIF
obj%time_reversal_ispresent = time_reversal_ispresent
IF (obj%time_reversal_ispresent) THEN
obj%time_reversal = time_reversal
ENDIF
obj%info = info
END SUBROUTINE qes_init_info
SUBROUTINE qes_reset_info(obj)
IMPLICIT NONE
TYPE(info_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_info
SUBROUTINE qes_write_closed(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(closed_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'DATE', TRIM(obj%DATE))
CALL xml_addAttribute( xp, 'TIME', TRIM(obj%TIME))
!
CALL xml_addCharacters(xp, TRIM(obj%closed) )
CALL xml_EndElement(xp, TRIM(obj%tagname) )
!
END SUBROUTINE qes_write_closed
SUBROUTINE qes_init_closed(obj, tagname, DATE, TIME, closed)
IMPLICIT NONE
TYPE(closed_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: DATE
CHARACTER(len=*) :: TIME
CHARACTER(len=*) :: closed
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%DATE = TRIM(DATE)
obj%TIME = TRIM(TIME)
obj%closed = closed
END SUBROUTINE qes_init_closed
SUBROUTINE qes_reset_closed(obj)
IMPLICIT NONE
TYPE(closed_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_closed
SUBROUTINE qes_write_vector( xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(vector_type) :: obj
!
INTEGER :: i
IF ( .NOT. obj%lwrite ) RETURN
CALL xml_NewElement( xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'size', obj%size)
CALL xml_addCharacters( xp, obj%vector, fmt = 's16')
CALL xml_EndElement( xp, TRIM(obj%tagname))
END SUBROUTINE qes_write_vector
SUBROUTINE qes_init_vector( obj, tagname, vec)
IMPLICIT NONE
TYPE (vector_type) :: obj
CHARACTER(LEN=*) :: tagname
REAL(DP),DIMENSION(:) :: vec
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%size = size(vec)
ALLOCATE ( obj%vector(obj%size))
obj%vector = vec
END SUBROUTINE qes_init_vector
SUBROUTINE qes_reset_vector( obj )
IMPLICIT NONE
TYPE (vector_type) :: obj
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%vector)) DEALLOCATE (obj%vector)
END SUBROUTINE qes_reset_vector
SUBROUTINE qes_write_integerVector( xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(integerVector_type) :: obj
!
INTEGER :: i
IF ( .NOT. obj%lwrite ) RETURN
CALL xml_NewElement( xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'size', obj%size)
CALL xml_addCharacters( xp, obj%integerVector )
CALL xml_EndElement( xp, TRIM(obj%tagname))
END SUBROUTINE qes_write_integerVector
SUBROUTINE qes_init_integerVector( obj, tagname, vec)
IMPLICIT NONE
TYPE (integerVector_type) :: obj
CHARACTER(LEN=*) :: tagname
INTEGER, DIMENSION(:) :: vec
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%size = size(vec)
ALLOCATE ( obj%integerVector(obj%size))
obj%integerVector = vec
END SUBROUTINE qes_init_integerVector
SUBROUTINE qes_reset_integerVector( obj )
IMPLICIT NONE
TYPE (integerVector_type) :: obj
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%integerVector)) DEALLOCATE (obj%integerVector)
END SUBROUTINE qes_reset_integerVector
SUBROUTINE qes_write_matrix(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(matrix_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute (xp,'rank', obj%rank)
CALL xml_addAttribute (xp,'dims', obj%dims)
CALL xml_addAttribute( xp, 'order', TRIM(obj%order) )
IF (obj%rank == 2 ) THEN
CALL xml_addNewLine(xp)
DO i = 1, obj%dims(2)
CALL xml_addCharacters(xp,obj%matrix((i-1)*obj%dims(1)+1 : i*obj%dims(1)) , fmt = 's16')
CALL xml_addNewLine(xp)
END DO
ELSE
!
CALL xml_addCharacters(xp, obj%matrix, fmt = 's16')
!
END IF
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_matrix
SUBROUTINE qes_init_matrix_1(obj, tagname, dims, mat, order)
IMPLICIT NONE
TYPE(matrix_type), INTENT(OUT) :: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
REAL(DP), DIMENSION(:), INTENT(IN) :: mat
CHARACTER(LEN=*),OPTIONAL,INTENT(IN) :: order
INTEGER :: i, rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length = 1
DO i =1, rank
length=length*dims(i)
END DO
ALLOCATE(obj%matrix(length), obj%dims(rank) )
obj%matrix(1:length) = mat(1:length)
obj%dims = dims
obj%rank = rank
IF (PRESENT (order) ) THEN
obj%order = TRIM(order)
ELSE
obj%order = 'F'
END IF
END SUBROUTINE qes_init_matrix_1
SUBROUTINE qes_init_matrix_2(obj, tagname, dims, mat)
IMPLICIT NONE
TYPE(matrix_type), INTENT(OUT) :: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
REAL(DP), DIMENSION(:,:), INTENT(IN) :: mat
INTEGER :: i, rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length = 1
DO i =1, rank
length=length*dims(i)
END DO
ALLOCATE(obj%matrix(length), obj%dims(rank) )
obj%matrix(1:length) = reshape(mat,[length])
obj%dims = dims
obj%rank = rank
!
obj%order = 'F'
END SUBROUTINE qes_init_matrix_2
SUBROUTINE qes_init_matrix_3(obj, tagname, dims, mat )
IMPLICIT NONE
TYPE(matrix_type), INTENT(OUT) :: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
REAL(DP), DIMENSION(:,:,:), INTENT(IN) :: mat
INTEGER :: i, rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length = 1
DO i =1, rank
length=length*dims(i)
END DO
ALLOCATE(obj%matrix(length), obj%dims(rank) )
obj%matrix(1:length) = reshape(mat,[length])
obj%dims = dims
obj%rank = rank
!
obj%order = 'F'
END SUBROUTINE qes_init_matrix_3
SUBROUTINE qes_reset_matrix(obj)
IMPLICIT NONE
TYPE(matrix_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%matrix)) DEALLOCATE(obj%matrix)
IF (ALLOCATED(obj%dims)) DEALLOCATE (obj%dims)
END SUBROUTINE qes_reset_matrix
SUBROUTINE qes_write_integerMatrix(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(integerMatrix_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL xml_addAttribute ( xp, 'rank', obj%rank)
CALL xml_addAttribute ( xp, 'dims', obj%dims)
CALL xml_addAttribute ( xp, 'order', TRIM(obj%order) )
IF (obj%rank == 2) THEN
CALL xml_addNewLine (xp)
DO i =1, obj%dims(2)
CALL xml_addCharacters(xp, obj%integerMatrix( (i-1)*obj%dims(1)+1: i*obj%dims(1) ) )
CALL xml_addNewLine(xp)
END DO
ELSE
CALL xml_addCharacters(xp, obj%integerMatrix )
END IF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_integerMatrix
SUBROUTINE qes_init_integerMatrix_1(obj, tagname, dims, int_mat, order )
IMPLICIT NONE
TYPE(integerMatrix_type),INTENT(OUT):: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
INTEGER,DIMENSION(:), INTENT(IN) :: int_mat
CHARACTER(LEN=*),OPTIONAL,INTENT(IN):: order
INTEGER :: i,rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length =1
DO i =1, rank
length = length*dims(i)
END DO
ALLOCATE(obj%integerMatrix(length), obj%dims(rank) )
obj%integerMatrix(1:length) = int_mat(1:length)
obj%rank = rank
obj%dims = dims
IF (PRESENT(order) ) THEN
obj%order = TRIM(order)
ELSE
obj%order = 'F'
END IF
END SUBROUTINE qes_init_integerMatrix_1
SUBROUTINE qes_init_integerMatrix_2(obj, tagname, dims, int_mat)
IMPLICIT NONE
TYPE(integerMatrix_type),INTENT(OUT):: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
INTEGER,DIMENSION(:,:), INTENT(IN) :: int_mat
INTEGER :: i,rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length =1
DO i =1, rank
length = length*dims(i)
END DO
ALLOCATE(obj%integerMatrix(length), obj%dims(rank) )
obj%integerMatrix(1:length) = reshape(int_mat, [length])
obj%rank = rank
obj%dims = dims
!
obj%order = 'F'
!
END SUBROUTINE qes_init_integerMatrix_2
SUBROUTINE qes_init_integerMatrix_3(obj, tagname, dims, int_mat )
IMPLICIT NONE
TYPE(integerMatrix_type),INTENT(OUT):: obj
CHARACTER(len=*), INTENT(IN) :: tagname
INTEGER,DIMENSION(:), INTENT(IN) :: dims
INTEGER,DIMENSION(:,:,:), INTENT(IN) :: int_mat
INTEGER :: i,rank, length
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
rank = size(dims)
length =1
DO i =1, rank
length = length*dims(i)
END DO
ALLOCATE(obj%integerMatrix(length), obj%dims(rank) )
obj%integerMatrix(1:length) = reshape(int_mat, [length])
obj%rank = rank
obj%dims = dims
!
obj%order = 'F'
!
END SUBROUTINE qes_init_integerMatrix_3
SUBROUTINE qes_reset_integerMatrix(obj)
IMPLICIT NONE
TYPE(integerMatrix_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF (ALLOCATED(obj%integerMatrix)) DEALLOCATE(obj%integerMatrix)
IF (ALLOCATED(obj%dims)) DEALLOCATE(obj%dims)
END SUBROUTINE qes_reset_integerMatrix
SUBROUTINE qes_write_scalarQuantity(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(scalarQuantity_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'Units', TRIM(obj%Units))
!
CALL xml_addCharacters(xp, obj%scalarQuantity, fmt ='s16')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_scalarQuantity
SUBROUTINE qes_init_scalarQuantity(obj, tagname, Units, scalarQuantity)
IMPLICIT NONE
TYPE(scalarQuantity_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: Units
REAL(DP) :: scalarQuantity
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%Units = TRIM(Units)
obj%scalarQuantity = scalarQuantity
END SUBROUTINE qes_init_scalarQuantity
SUBROUTINE qes_reset_scalarQuantity(obj)
IMPLICIT NONE
TYPE(scalarQuantity_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_scalarQuantity
SUBROUTINE qes_write_general_info(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(general_info_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL qes_write_xml_format(xp, obj%xml_format)
!
CALL qes_write_creator(xp, obj%creator)
!
CALL qes_write_created(xp, obj%created)
!
CALL xml_NewElement(xp, 'job' )
CALL xml_addCharacters(xp, TRIM(obj%job) )
CALL xml_EndElement(xp, 'job' )
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_general_info
SUBROUTINE qes_init_general_info(obj, tagname, xml_format, creator, created, job)
IMPLICIT NONE
TYPE(general_info_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(xml_format_type) :: xml_format
TYPE(creator_type) :: creator
TYPE(created_type) :: created
CHARACTER(len=*) :: job
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%xml_format = xml_format
obj%creator = creator
obj%created = created
obj%job = TRIM(job)
END SUBROUTINE qes_init_general_info
SUBROUTINE qes_reset_general_info(obj)
IMPLICIT NONE
TYPE(general_info_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_xml_format(obj%xml_format)
CALL qes_reset_creator(obj%creator)
CALL qes_reset_created(obj%created)
END SUBROUTINE qes_reset_general_info
SUBROUTINE qes_write_parallel_info(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(parallel_info_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL xml_NewElement(xp, 'nprocs')
CALL xml_addCharacters(xp, obj%nprocs)
CALL xml_EndElement(xp, 'nprocs')
CALL xml_NewElement(xp, 'nthreads')
CALL xml_addCharacters(xp, obj%nthreads)
CALL xml_EndElement(xp, 'nthreads')
CALL xml_NewElement(xp, 'ntasks')
CALL xml_addCharacters(xp, obj%ntasks)
CALL xml_EndElement(xp, 'ntasks')
CALL xml_NewElement(xp, 'nbgrp')
CALL xml_addCharacters(xp, obj%nbgrp)
CALL xml_EndElement(xp, 'nbgrp')
CALL xml_NewElement(xp, 'npool')
CALL xml_addCharacters(xp, obj%npool)
CALL xml_EndElement(xp, 'npool')
CALL xml_NewElement(xp, 'ndiag')
CALL xml_addCharacters(xp, obj%ndiag)
CALL xml_EndElement(xp, 'ndiag')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_parallel_info
SUBROUTINE qes_init_parallel_info(obj, tagname, nprocs, nthreads, ntasks, nbgrp, npool, &
ndiag)
IMPLICIT NONE
TYPE(parallel_info_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nprocs
INTEGER :: nthreads
INTEGER :: ntasks
INTEGER :: nbgrp
INTEGER :: npool
INTEGER :: ndiag
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nprocs = nprocs
obj%nthreads = nthreads
obj%ntasks = ntasks
obj%nbgrp = nbgrp
obj%npool = npool
obj%ndiag = ndiag
END SUBROUTINE qes_init_parallel_info
SUBROUTINE qes_reset_parallel_info(obj)
IMPLICIT NONE
TYPE(parallel_info_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
END SUBROUTINE qes_reset_parallel_info
SUBROUTINE qes_write_control_variables(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(control_variables_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL xml_NewElement(xp, 'title' )
CALL xml_addCharacters(xp, TRIM(obj%title) )
CALL xml_EndElement(xp, 'title' )
CALL xml_NewElement(xp, 'calculation' )
CALL xml_addCharacters(xp, TRIM(obj%calculation) )
CALL xml_EndElement(xp, 'calculation' )
CALL xml_NewElement(xp, 'restart_mode' )
CALL xml_addCharacters(xp, TRIM(obj%restart_mode))
CALL xml_EndElement(xp, 'restart_mode')
CALL xml_NewElement(xp, 'prefix')
CALL xml_addCharacters(xp, TRIM(obj%prefix))
CALL xml_EndElement(xp, 'prefix' )
CALL xml_NewElement(xp, 'pseudo_dir' )
CALL xml_addCharacters(xp, TRIM(obj%pseudo_dir))
CALL xml_EndElement(xp, 'pseudo_dir' )
CALL xml_NewElement(xp, 'outdir' )
CALL xml_addCharacters(xp, TRIM(obj%outdir) )
CALL xml_EndElement(xp, 'outdir' )
CALL xml_NewElement(xp, 'stress' )
CALL xml_addCharacters(xp, obj%stress)
CALL xml_EndElement(xp, 'stress' )
CALL xml_NewElement(xp, 'forces')
CALL xml_addCharacters(xp, obj%forces)
CALL xml_EndElement(xp, 'forces')
CALL xml_NewElement(xp, 'wf_collect')
CALL xml_addCharacters(xp, obj%wf_collect)
CALL xml_EndElement(xp, 'wf_collect')
CALL xml_NewElement(xp, 'disk_io')
CALL xml_addCharacters(xp, TRIM(obj%disk_io))
CALL xml_EndElement(xp, 'disk_io')
CALL xml_NewElement(xp, 'max_seconds')
CALL xml_addCharacters(xp, obj%max_seconds )
CALL xml_EndElement(xp, 'max_seconds')
IF(obj%nstep_ispresent) THEN
CALL xml_NewElement(xp, 'nstep')
CALL xml_addCharacters(xp, obj%nstep)
CALL xml_EndElement(xp, 'nstep')
ENDIF
!
CALL xml_NewElement(xp, 'etot_conv_thr')
CALL xml_addCharacters(xp,obj%etot_conv_thr )
CALL xml_EndElement(xp, 'etot_conv_thr')
CALL xml_NewElement(xp, 'forc_conv_thr')
CALL xml_addCharacters(xp,obj%forc_conv_thr )
CALL xml_EndElement(xp, 'forc_conv_thr')
CALL xml_NewElement(xp, 'press_conv_thr')
CALL xml_addCharacters(xp, obj%press_conv_thr )
CALL xml_EndElement(xp, 'press_conv_thr')
CALL xml_NewElement(xp, 'verbosity')
CALL xml_addCharacters(xp, TRIM(obj%verbosity) )
CALL xml_EndElement(xp, 'verbosity')
CALL xml_NewElement(xp, 'print_every')
CALL xml_addCharacters(xp, obj%print_every )
CALL xml_EndElement(xp, 'print_every')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_control_variables
SUBROUTINE qes_init_control_variables(obj, tagname, title, calculation, restart_mode, &
prefix, pseudo_dir, outdir, stress, forces, wf_collect, &
disk_io, max_seconds, nstep_ispresent, nstep, etot_conv_thr, &
forc_conv_thr, press_conv_thr, verbosity, print_every)
IMPLICIT NONE
TYPE(control_variables_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: title
CHARACTER(len=*) :: calculation
CHARACTER(len=*) :: restart_mode
CHARACTER(len=*) :: prefix
CHARACTER(len=*) :: pseudo_dir
CHARACTER(len=*) :: outdir
LOGICAL :: stress
LOGICAL :: forces
LOGICAL :: wf_collect
CHARACTER(len=*) :: disk_io
INTEGER :: max_seconds
LOGICAL :: nstep_ispresent
INTEGER :: nstep
REAL(DP) :: etot_conv_thr
REAL(DP) :: forc_conv_thr
REAL(DP) :: press_conv_thr
CHARACTER(len=*) :: verbosity
INTEGER :: print_every
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%title = title
obj%calculation = calculation
obj%restart_mode = restart_mode
obj%prefix = prefix
obj%pseudo_dir = pseudo_dir
obj%outdir = outdir
obj%stress = stress
obj%forces = forces
obj%wf_collect = wf_collect
obj%disk_io = disk_io
obj%max_seconds = max_seconds
obj%nstep_ispresent = nstep_ispresent
IF(obj%nstep_ispresent) THEN
obj%nstep = nstep
ENDIF
obj%etot_conv_thr = etot_conv_thr
obj%forc_conv_thr = forc_conv_thr
obj%press_conv_thr = press_conv_thr
obj%verbosity = verbosity
obj%print_every = print_every
END SUBROUTINE qes_init_control_variables
SUBROUTINE qes_reset_control_variables(obj)
IMPLICIT NONE
TYPE(control_variables_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%nstep_ispresent) THEN
obj%nstep_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_control_variables
SUBROUTINE qes_write_species(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(species_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'name', TRIM(obj%name))
!
IF(obj%mass_ispresent) THEN
CALL xml_NewElement(xp, 'mass')
CALL xml_addCharacters(xp, obj%mass, fmt = 's16')
CALL xml_EndElement(xp, 'mass')
ENDIF
!
CALL xml_NewElement(xp, 'pseudo_file')
CALL xml_addCharacters(xp, TRIM(obj%pseudo_file) )
CALL xml_EndElement(xp, 'pseudo_file')
IF(obj%starting_magnetization_ispresent) THEN
CALL xml_NewElement(xp, 'starting_magnetization')
CALL xml_addCharacters(xp, obj%starting_magnetization, fmt ='s16')
CALL xml_EndElement(xp, 'starting_magnetization')
ENDIF
!
IF(obj%spin_teta_ispresent) THEN
CALL xml_NewElement(xp, 'spin_teta')
CALL xml_addCharacters(xp, obj%spin_teta, fmt ='s16')
CALL xml_EndElement(xp, 'spin_teta')
ENDIF
!
IF(obj%spin_phi_ispresent) THEN
CALL xml_NewElement(xp, 'spin_phi')
CALL xml_addCharacters(xp, obj%spin_phi, fmt = 's16')
CALL xml_EndElement(xp, 'spin_phi')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_species
SUBROUTINE qes_init_species(obj, tagname, name, mass_ispresent, mass, pseudo_file, &
starting_magnetization_ispresent, starting_magnetization, &
spin_teta_ispresent, spin_teta, spin_phi_ispresent, spin_phi)
IMPLICIT NONE
TYPE(species_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: name
LOGICAL :: mass_ispresent
REAL(DP) :: mass
CHARACTER(len=*) :: pseudo_file
LOGICAL :: starting_magnetization_ispresent
REAL(DP) :: starting_magnetization
LOGICAL :: spin_teta_ispresent
REAL(DP) :: spin_teta
LOGICAL :: spin_phi_ispresent
REAL(DP) :: spin_phi
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%name = TRIM(name)
obj%mass_ispresent = mass_ispresent
IF(obj%mass_ispresent) THEN
obj%mass = mass
ENDIF
obj%pseudo_file = pseudo_file
obj%starting_magnetization_ispresent = starting_magnetization_ispresent
IF(obj%starting_magnetization_ispresent) THEN
obj%starting_magnetization = starting_magnetization
ENDIF
obj%spin_teta_ispresent = spin_teta_ispresent
IF(obj%spin_teta_ispresent) THEN
obj%spin_teta = spin_teta
ENDIF
obj%spin_phi_ispresent = spin_phi_ispresent
IF(obj%spin_phi_ispresent) THEN
obj%spin_phi = spin_phi
ENDIF
END SUBROUTINE qes_init_species
SUBROUTINE qes_reset_species(obj)
IMPLICIT NONE
TYPE(species_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%mass_ispresent) THEN
obj%mass_ispresent = .FALSE.
ENDIF
IF(obj%starting_magnetization_ispresent) THEN
obj%starting_magnetization_ispresent = .FALSE.
ENDIF
IF(obj%spin_teta_ispresent) THEN
obj%spin_teta_ispresent = .FALSE.
ENDIF
IF(obj%spin_phi_ispresent) THEN
obj%spin_phi_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_species
SUBROUTINE qes_write_atomic_positions(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atomic_positions_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
DO i = 1, obj%ndim_atom
CALL qes_write_atom(xp, obj%atom(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atomic_positions
SUBROUTINE qes_init_atomic_positions(obj, tagname, ndim_atom, atom)
IMPLICIT NONE
TYPE(atomic_positions_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: ndim_atom
TYPE(atom_type ), DIMENSION( ndim_atom ) :: atom
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
ALLOCATE(obj%atom(SIZE(atom)))
DO i = 1, SIZE(atom)
obj%atom(i) = atom(i)
ENDDO
obj%ndim_atom = ndim_atom
END SUBROUTINE qes_init_atomic_positions
SUBROUTINE qes_reset_atomic_positions(obj)
IMPLICIT NONE
TYPE(atomic_positions_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
DO i = 1, SIZE(obj%atom)
CALL qes_reset_atom(obj%atom(i))
ENDDO
IF (ALLOCATED(obj%atom)) DEALLOCATE(obj%atom)
END SUBROUTINE qes_reset_atomic_positions
SUBROUTINE qes_write_wyckoff_positions(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(wyckoff_positions_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
CALL xml_addAttribute( xp, 'space_group', obj%space_group)
IF(obj%more_options_ispresent) THEN
CALL xml_addAttribute( xp, 'more_options', TRIM(obj%more_options))
END IF
!
DO i = 1, obj%ndim_atom
CALL qes_write_atom(xp, obj%atom(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_wyckoff_positions
SUBROUTINE qes_init_wyckoff_positions(obj, tagname, space_group, more_options, more_options_ispresent, &
ndim_atom, atom)
IMPLICIT NONE
TYPE(wyckoff_positions_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: space_group
LOGICAL :: more_options_ispresent
CHARACTER(len=*), OPTIONAL :: more_options
INTEGER :: ndim_atom
TYPE(atom_type ), DIMENSION( ndim_atom ) :: atom
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%space_group = space_group
obj%more_options_ispresent = more_options_ispresent
IF (obj%more_options_ispresent) THEN
obj%more_options = TRIM(more_options)
ENDIF
ALLOCATE(obj%atom(SIZE(atom)))
DO i = 1, SIZE(atom)
obj%atom(i) = atom(i)
ENDDO
obj%ndim_atom = ndim_atom
END SUBROUTINE qes_init_wyckoff_positions
SUBROUTINE qes_reset_wyckoff_positions(obj)
IMPLICIT NONE
TYPE(wyckoff_positions_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
DO i = 1, SIZE(obj%atom)
CALL qes_reset_atom(obj%atom(i))
ENDDO
IF (ALLOCATED(obj%atom)) DEALLOCATE(obj%atom)
END SUBROUTINE qes_reset_wyckoff_positions
SUBROUTINE qes_write_cell(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(cell_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL xml_NewElement(xp, 'a1')
CALL xml_addCharacters(xp, obj%a1, fmt = 's16')
CALL xml_EndElement(xp, 'a1')
CALL xml_NewElement(xp, 'a2')
CALL xml_addCharacters(xp, obj%a2, fmt = 's16')
CALL xml_EndElement(xp, 'a2')
CALL xml_NewElement(xp, 'a3')
CALL xml_addCharacters(xp, obj%a3, fmt = 's16')
CALL xml_EndElement(xp, 'a3')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_cell
SUBROUTINE qes_init_cell(obj, tagname, a1, a2, a3)
IMPLICIT NONE
TYPE(cell_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP), DIMENSION(3) :: a1
REAL(DP), DIMENSION(3) :: a2
REAL(DP), DIMENSION(3) :: a3
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%a1 = a1
obj%a2 = a2
obj%a3 = a3
END SUBROUTINE qes_init_cell
SUBROUTINE qes_reset_cell(obj)
IMPLICIT NONE
TYPE(cell_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_cell
SUBROUTINE qes_write_hybrid(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(hybrid_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname) )
!
CALL qes_write_qpoint_grid(xp, obj%qpoint_grid)
!
CALL xml_NewElement(xp, 'ecutfock')
CALL xml_addCharacters(xp,obj%ecutfock, fmt = 's16')
CALL xml_EndElement(xp, 'ecutfock')
CALL xml_NewElement(xp, 'exx_fraction')
CALL xml_addCharacters(xp, obj%exx_fraction, fmt = 's16')
CALL xml_EndElement(xp, 'exx_fraction')
CALL xml_NewElement(xp, 'screening_parameter')
CALL xml_addCharacters(xp, obj%screening_parameter, fmt = 's16')
CALL xml_EndElement(xp, 'screening_parameter')
CALL xml_NewElement(xp, 'exxdiv_treatment')
CALL xml_addCharacters(xp, TRIM(obj%exxdiv_treatment) )
CALL xml_EndElement(xp, 'exxdiv_treatment')
CALL xml_NewElement(xp, 'x_gamma_extrapolation')
CALL xml_addCharacters(xp, obj%x_gamma_extrapolation)
CALL xml_EndElement(xp, 'x_gamma_extrapolation')
CALL xml_NewElement(xp, 'ecutvcut')
CALL xml_addCharacters(xp, obj%ecutvcut, fmt = 's16')
CALL xml_EndElement(xp, 'ecutvcut')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_hybrid
SUBROUTINE qes_init_hybrid(obj, tagname, qpoint_grid, ecutfock, exx_fraction, &
screening_parameter, exxdiv_treatment, x_gamma_extrapolation, &
ecutvcut)
IMPLICIT NONE
TYPE(hybrid_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(qpoint_grid_type) :: qpoint_grid
REAL(DP) :: ecutfock
REAL(DP) :: exx_fraction
REAL(DP) :: screening_parameter
CHARACTER(len=*) :: exxdiv_treatment
LOGICAL :: x_gamma_extrapolation
REAL(DP) :: ecutvcut
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%qpoint_grid = qpoint_grid
obj%ecutfock = ecutfock
obj%exx_fraction = exx_fraction
obj%screening_parameter = screening_parameter
obj%exxdiv_treatment = exxdiv_treatment
obj%x_gamma_extrapolation = x_gamma_extrapolation
obj%ecutvcut = ecutvcut
END SUBROUTINE qes_init_hybrid
SUBROUTINE qes_reset_hybrid(obj)
IMPLICIT NONE
TYPE(hybrid_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
CALL qes_reset_qpoint_grid(obj%qpoint_grid)
END SUBROUTINE qes_reset_hybrid
SUBROUTINE qes_write_dftU(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(dftU_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%lda_plus_u_kind_ispresent) THEN
CALL xml_NewElement(xp, 'lda_plus_u_kind')
CALL xml_addCharacters(xp, obj%lda_plus_u_kind)
CALL xml_EndElement(xp, 'lda_plus_u_kind')
ENDIF
!
IF(obj%Hubbard_U_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_U
CALL qes_write_HubbardCommon(xp, obj%Hubbard_U(i))
!
END DO
ENDIF
!
IF(obj%Hubbard_J0_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_J0
CALL qes_write_HubbardCommon(xp, obj%Hubbard_J0(i))
!
END DO
ENDIF
!
IF(obj%Hubbard_alpha_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_alpha
CALL qes_write_HubbardCommon(xp, obj%Hubbard_alpha(i))
!
END DO
ENDIF
!
IF(obj%Hubbard_beta_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_beta
CALL qes_write_HubbardCommon(xp, obj%Hubbard_beta(i))
!
END DO
ENDIF
!
IF(obj%Hubbard_J_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_J
CALL qes_write_HubbardJ(xp, obj%Hubbard_J(i))
!
END DO
ENDIF
!
IF(obj%starting_ns_ispresent) THEN
DO i = 1, obj%ndim_starting_ns
CALL qes_write_starting_ns(xp, obj%starting_ns(i))
!
END DO
ENDIF
!
IF(obj%Hubbard_ns_ispresent) THEN
DO i = 1, obj%ndim_Hubbard_ns
CALL qes_write_Hubbard_ns(xp, obj%Hubbard_ns(i))
!
END DO
ENDIF
!
IF(obj%U_projection_type_ispresent) THEN
CALL xml_NewElement(xp, 'U_projection_type')
CALL xml_addCharacters(xp, TRIM(obj%U_projection_type) )
CALL xml_EndElement(xp, 'U_projection_type')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_dftU
SUBROUTINE qes_init_dftU(obj, tagname, lda_plus_u_kind_ispresent, lda_plus_u_kind, &
Hubbard_U_ispresent, ndim_Hubbard_U, Hubbard_U, &
Hubbard_J0_ispresent, ndim_Hubbard_J0, Hubbard_J0, &
Hubbard_alpha_ispresent, ndim_Hubbard_alpha, Hubbard_alpha, &
Hubbard_beta_ispresent, ndim_Hubbard_beta, Hubbard_beta, &
Hubbard_J_ispresent, ndim_Hubbard_J, Hubbard_J, &
starting_ns_ispresent, ndim_starting_ns, starting_ns, &
Hubbard_ns_ispresent, ndim_Hubbard_ns, Hubbard_ns, &
U_projection_type_ispresent, U_projection_type)
IMPLICIT NONE
TYPE(dftU_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: lda_plus_u_kind_ispresent
INTEGER :: lda_plus_u_kind
LOGICAL :: Hubbard_U_ispresent
INTEGER :: ndim_Hubbard_U
TYPE(HubbardCommon_type ), DIMENSION( ndim_Hubbard_U ) :: Hubbard_U
LOGICAL :: Hubbard_J0_ispresent
INTEGER :: ndim_Hubbard_J0
TYPE(HubbardCommon_type ), DIMENSION( ndim_Hubbard_J0 ) :: Hubbard_J0
LOGICAL :: Hubbard_alpha_ispresent
INTEGER :: ndim_Hubbard_alpha
TYPE(HubbardCommon_type ), DIMENSION( ndim_Hubbard_alpha ) :: Hubbard_alpha
LOGICAL :: Hubbard_beta_ispresent
INTEGER :: ndim_Hubbard_beta
TYPE(HubbardCommon_type ), DIMENSION( ndim_Hubbard_beta ) :: Hubbard_beta
LOGICAL :: Hubbard_J_ispresent
INTEGER :: ndim_Hubbard_J
TYPE(HubbardJ_type ), DIMENSION( ndim_Hubbard_J ) :: Hubbard_J
LOGICAL :: starting_ns_ispresent
INTEGER :: ndim_starting_ns
TYPE(starting_ns_type ), DIMENSION( ndim_starting_ns ) :: starting_ns
LOGICAL :: Hubbard_ns_ispresent
INTEGER :: ndim_Hubbard_ns
TYPE(Hubbard_ns_type ), DIMENSION( ndim_Hubbard_ns ) :: Hubbard_ns
LOGICAL :: U_projection_type_ispresent
CHARACTER(len=*) :: U_projection_type
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%lda_plus_u_kind_ispresent = lda_plus_u_kind_ispresent
IF(obj%lda_plus_u_kind_ispresent) THEN
obj%lda_plus_u_kind = lda_plus_u_kind
ENDIF
obj%Hubbard_U_ispresent = Hubbard_U_ispresent
IF(obj%Hubbard_U_ispresent) THEN
ALLOCATE(obj%Hubbard_U(SIZE(Hubbard_U)))
DO i = 1, SIZE(Hubbard_U)
obj%Hubbard_U(i) = Hubbard_U(i)
ENDDO
obj%ndim_Hubbard_U = ndim_Hubbard_U
ENDIF
obj%Hubbard_J0_ispresent = Hubbard_J0_ispresent
IF(obj%Hubbard_J0_ispresent) THEN
ALLOCATE(obj%Hubbard_J0(SIZE(Hubbard_J0)))
DO i = 1, SIZE(Hubbard_J0)
obj%Hubbard_J0(i) = Hubbard_J0(i)
ENDDO
obj%ndim_Hubbard_J0 = ndim_Hubbard_J0
ENDIF
obj%Hubbard_alpha_ispresent = Hubbard_alpha_ispresent
IF(obj%Hubbard_alpha_ispresent) THEN
ALLOCATE(obj%Hubbard_alpha(SIZE(Hubbard_alpha)))
DO i = 1, SIZE(Hubbard_alpha)
obj%Hubbard_alpha(i) = Hubbard_alpha(i)
ENDDO
obj%ndim_Hubbard_alpha = ndim_Hubbard_alpha
ENDIF
obj%Hubbard_beta_ispresent = Hubbard_beta_ispresent
IF(obj%Hubbard_beta_ispresent) THEN
ALLOCATE(obj%Hubbard_beta(SIZE(Hubbard_beta)))
DO i = 1, SIZE(Hubbard_beta)
obj%Hubbard_beta(i) = Hubbard_beta(i)
ENDDO
obj%ndim_Hubbard_beta = ndim_Hubbard_beta
ENDIF
obj%Hubbard_J_ispresent = Hubbard_J_ispresent
IF(obj%Hubbard_J_ispresent) THEN
ALLOCATE(obj%Hubbard_J(SIZE(Hubbard_J)))
DO i = 1, SIZE(Hubbard_J)
obj%Hubbard_J(i) = Hubbard_J(i)
ENDDO
obj%ndim_Hubbard_J = ndim_Hubbard_J
ENDIF
obj%starting_ns_ispresent = starting_ns_ispresent
IF(obj%starting_ns_ispresent) THEN
ALLOCATE(obj%starting_ns(SIZE(starting_ns)))
DO i = 1, SIZE(starting_ns)
obj%starting_ns(i) = starting_ns(i)
ENDDO
obj%ndim_starting_ns = ndim_starting_ns
ENDIF
obj%Hubbard_ns_ispresent = Hubbard_ns_ispresent
IF(obj%Hubbard_ns_ispresent) THEN
ALLOCATE(obj%Hubbard_ns(SIZE(Hubbard_ns)))
DO i = 1, SIZE(Hubbard_ns)
obj%Hubbard_ns(i) = Hubbard_ns(i)
ENDDO
obj%ndim_Hubbard_ns = ndim_Hubbard_ns
ENDIF
obj%U_projection_type_ispresent = U_projection_type_ispresent
IF(obj%U_projection_type_ispresent) THEN
obj%U_projection_type = U_projection_type
ENDIF
END SUBROUTINE qes_init_dftU
SUBROUTINE qes_reset_dftU(obj)
IMPLICIT NONE
TYPE(dftU_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%lda_plus_u_kind_ispresent) THEN
obj%lda_plus_u_kind_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_U_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_U)
CALL qes_reset_HubbardCommon(obj%Hubbard_U(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_U)) DEALLOCATE(obj%Hubbard_U)
obj%Hubbard_U_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_J0_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_J0)
CALL qes_reset_HubbardCommon(obj%Hubbard_J0(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_J0)) DEALLOCATE(obj%Hubbard_J0)
obj%Hubbard_J0_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_alpha_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_alpha)
CALL qes_reset_HubbardCommon(obj%Hubbard_alpha(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_alpha)) DEALLOCATE(obj%Hubbard_alpha)
obj%Hubbard_alpha_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_beta_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_beta)
CALL qes_reset_HubbardCommon(obj%Hubbard_beta(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_beta)) DEALLOCATE(obj%Hubbard_beta)
obj%Hubbard_beta_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_J_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_J)
CALL qes_reset_HubbardJ(obj%Hubbard_J(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_J)) DEALLOCATE(obj%Hubbard_J)
obj%Hubbard_J_ispresent = .FALSE.
ENDIF
IF(obj%starting_ns_ispresent) THEN
DO i = 1, SIZE(obj%starting_ns)
CALL qes_reset_starting_ns(obj%starting_ns(i))
ENDDO
IF (ALLOCATED(obj%starting_ns)) DEALLOCATE(obj%starting_ns)
obj%starting_ns_ispresent = .FALSE.
ENDIF
IF(obj%Hubbard_ns_ispresent) THEN
DO i = 1, SIZE(obj%Hubbard_ns)
CALL qes_reset_Hubbard_ns(obj%Hubbard_ns(i))
ENDDO
IF (ALLOCATED(obj%Hubbard_ns)) DEALLOCATE(obj%Hubbard_ns)
obj%Hubbard_ns_ispresent = .FALSE.
ENDIF
IF(obj%U_projection_type_ispresent) THEN
obj%U_projection_type_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_dftU
SUBROUTINE qes_write_vdW(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(vdW_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'vdw_corr')
CALL xml_addCharacters(xp, TRIM(obj%vdw_corr) )
CALL xml_EndElement(xp, 'vdw_corr')
IF(obj%non_local_term_ispresent) THEN
CALL xml_NewElement(xp, 'non_local_term')
CALL xml_addCharacters(xp, TRIM(obj%non_local_term) )
CALL xml_EndElement(xp, 'non_local_term')
ENDIF
!
IF(obj%london_s6_ispresent) THEN
CALL xml_NewElement(xp, 'london_s6')
CALL xml_addCharacters(xp, obj%london_s6, fmt = 's16')
CALL xml_EndElement(xp, 'london_s6')
ENDIF
!
IF(obj%ts_vdw_econv_thr_ispresent) THEN
CALL xml_NewElement(xp, 'ts_vdw_econv_thr')
CALL xml_addCharacters(xp, obj%ts_vdw_econv_thr, fmt ='s16')
CALL xml_EndElement(xp, 'ts_vdw_econv_thr')
ENDIF
!
IF(obj%ts_vdw_isolated_ispresent) THEN
CALL xml_NewElement(xp, 'ts_vdw_isolated')
CALL xml_addCharacters(xp, obj%ts_vdw_isolated )
CALL xml_EndElement(xp, 'ts_vdw_isolated')
ENDIF
!
IF(obj%london_rcut_ispresent) THEN
CALL xml_NewElement(xp, 'london_rcut')
CALL xml_addCharacters(xp, obj%london_rcut, fmt ='s16')
CALL xml_EndElement(xp, 'london_rcut')
ENDIF
!
IF(obj%xdm_a1_ispresent) THEN
CALL xml_NewElement(xp, 'xdm_a1')
CALL xml_addCharacters(xp, obj%xdm_a1, fmt = 's16')
CALL xml_EndElement(xp, 'xdm_a1')
ENDIF
!
IF(obj%xdm_a2_ispresent) THEN
CALL xml_NewElement(xp, 'xdm_a2')
CALL xml_addCharacters(xp, obj%xdm_a2, fmt = 's16')
CALL xml_EndElement(xp, 'xdm_a2')
ENDIF
!
IF(obj%london_c6_ispresent) THEN
DO i = 1, obj%ndim_london_c6
CALL qes_write_HubbardCommon(xp, obj%london_c6(i))
!
END DO
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_vdW
SUBROUTINE qes_init_vdW(obj, tagname, vdw_corr, non_local_term_ispresent, non_local_term, &
london_s6_ispresent, london_s6, ts_vdw_econv_thr_ispresent, &
ts_vdw_econv_thr, ts_vdw_isolated_ispresent, ts_vdw_isolated, &
london_rcut_ispresent, london_rcut, xdm_a1_ispresent, xdm_a1, &
xdm_a2_ispresent, xdm_a2, london_c6_ispresent, &
ndim_london_c6, london_c6)
IMPLICIT NONE
TYPE(vdW_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: vdw_corr
LOGICAL :: non_local_term_ispresent
CHARACTER(len=*) :: non_local_term
LOGICAL :: london_s6_ispresent
REAL(DP) :: london_s6
LOGICAL :: ts_vdw_econv_thr_ispresent
REAL(DP) :: ts_vdw_econv_thr
LOGICAL :: ts_vdw_isolated_ispresent
LOGICAL :: ts_vdw_isolated
LOGICAL :: london_rcut_ispresent
REAL(DP) :: london_rcut
LOGICAL :: xdm_a1_ispresent
REAL(DP) :: xdm_a1
LOGICAL :: xdm_a2_ispresent
REAL(DP) :: xdm_a2
LOGICAL :: london_c6_ispresent
INTEGER :: ndim_london_c6
TYPE(HubbardCommon_type ), DIMENSION( ndim_london_c6 ) :: london_c6
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%vdw_corr = vdw_corr
obj%non_local_term_ispresent = non_local_term_ispresent
IF(obj%non_local_term_ispresent) THEN
obj%non_local_term = non_local_term
ENDIF
obj%london_s6_ispresent = london_s6_ispresent
IF(obj%london_s6_ispresent) THEN
obj%london_s6 = london_s6
ENDIF
obj%ts_vdw_econv_thr_ispresent = ts_vdw_econv_thr_ispresent
IF(obj%ts_vdw_econv_thr_ispresent) THEN
obj%ts_vdw_econv_thr = ts_vdw_econv_thr
ENDIF
obj%ts_vdw_isolated_ispresent = ts_vdw_isolated_ispresent
IF(obj%ts_vdw_isolated_ispresent) THEN
obj%ts_vdw_isolated = ts_vdw_isolated
ENDIF
obj%london_rcut_ispresent = london_rcut_ispresent
IF(obj%london_rcut_ispresent) THEN
obj%london_rcut = london_rcut
ENDIF
obj%xdm_a1_ispresent = xdm_a1_ispresent
IF(obj%xdm_a1_ispresent) THEN
obj%xdm_a1 = xdm_a1
ENDIF
obj%xdm_a2_ispresent = xdm_a2_ispresent
IF(obj%xdm_a2_ispresent) THEN
obj%xdm_a2 = xdm_a2
ENDIF
obj%london_c6_ispresent = london_c6_ispresent
IF(obj%london_c6_ispresent) THEN
ALLOCATE(obj%london_c6(SIZE(london_c6)))
DO i = 1, SIZE(london_c6)
obj%london_c6(i) = london_c6(i)
ENDDO
obj%ndim_london_c6 = ndim_london_c6
ENDIF
END SUBROUTINE qes_init_vdW
SUBROUTINE qes_reset_vdW(obj)
IMPLICIT NONE
TYPE(vdW_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%non_local_term_ispresent) THEN
obj%non_local_term_ispresent = .FALSE.
ENDIF
IF(obj%london_s6_ispresent) THEN
obj%london_s6_ispresent = .FALSE.
ENDIF
IF(obj%ts_vdw_econv_thr_ispresent) THEN
obj%ts_vdw_econv_thr_ispresent = .FALSE.
ENDIF
IF(obj%ts_vdw_isolated_ispresent) THEN
obj%ts_vdw_isolated_ispresent = .FALSE.
ENDIF
IF(obj%london_rcut_ispresent) THEN
obj%london_rcut_ispresent = .FALSE.
ENDIF
IF(obj%xdm_a1_ispresent) THEN
obj%xdm_a1_ispresent = .FALSE.
ENDIF
IF(obj%xdm_a2_ispresent) THEN
obj%xdm_a2_ispresent = .FALSE.
ENDIF
IF(obj%london_c6_ispresent) THEN
DO i = 1, SIZE(obj%london_c6)
CALL qes_reset_HubbardCommon(obj%london_c6(i))
ENDDO
IF (ALLOCATED(obj%london_c6)) DEALLOCATE(obj%london_c6)
obj%london_c6_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_vdW
SUBROUTINE qes_write_spin(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(spin_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'lsda')
CALL xml_addCharacters(xp, obj%lsda)
CALL xml_EndElement(xp, 'lsda')
CALL xml_NewElement(xp, 'noncolin')
CALL xml_addCharacters(xp, obj%noncolin)
CALL xml_EndElement(xp, 'noncolin')
CALL xml_NewElement(xp, 'spinorbit' )
CALL xml_addCharacters(xp, obj%spinorbit)
CALL xml_EndElement(xp, 'spinorbit')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_spin
SUBROUTINE qes_init_spin(obj, tagname, lsda, noncolin, spinorbit)
IMPLICIT NONE
TYPE(spin_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: lsda
LOGICAL :: noncolin
LOGICAL :: spinorbit
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%lsda = lsda
obj%noncolin = noncolin
obj%spinorbit = spinorbit
END SUBROUTINE qes_init_spin
SUBROUTINE qes_reset_spin(obj)
IMPLICIT NONE
TYPE(spin_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_spin
SUBROUTINE qes_write_bands(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(bands_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%nbnd_ispresent) THEN
CALL xml_NewElement(xp, 'nbnd')
CALL xml_addCharacters(xp, obj%nbnd )
CALL xml_EndElement(xp, 'nbnd')
ENDIF
!
IF(obj%smearing_ispresent) THEN
CALL qes_write_smearing(xp, obj%smearing)
!
ENDIF
!
IF(obj%tot_charge_ispresent) THEN
CALL xml_NewElement(xp, 'tot_charge')
CALL xml_addCharacters(xp, obj%tot_charge, fmt = 's16' )
CALL xml_EndElement(xp, 'tot_charge')
ENDIF
!
IF(obj%tot_magnetization_ispresent) THEN
CALL xml_NewElement(xp, 'tot_magnetization')
CALL xml_addCharacters(xp, obj%tot_magnetization, fmt = 's16')
CALL xml_EndElement(xp, 'tot_magnetization')
ENDIF
!
CALL qes_write_occupations(xp, obj%occupations)
!
IF(obj%inputOccupations_ispresent) THEN
DO i = 1, obj%ndim_inputOccupations
CALL qes_write_inputOccupations(xp, obj%inputOccupations(i))
!
END DO
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_bands
SUBROUTINE qes_init_bands(obj, tagname, nbnd_ispresent, nbnd, smearing_ispresent, smearing, &
tot_charge_ispresent, tot_charge, &
tot_magnetization_ispresent, tot_magnetization, occupations, &
inputOccupations_ispresent, ndim_inputOccupations, &
inputOccupations)
IMPLICIT NONE
TYPE(bands_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: nbnd_ispresent
INTEGER :: nbnd
LOGICAL :: smearing_ispresent
TYPE(smearing_type) :: smearing
LOGICAL :: tot_charge_ispresent
REAL(DP) :: tot_charge
LOGICAL :: tot_magnetization_ispresent
REAL(DP) :: tot_magnetization
TYPE(occupations_type) :: occupations
LOGICAL :: inputOccupations_ispresent
INTEGER :: ndim_inputOccupations
TYPE(inputOccupations_type ), DIMENSION( ndim_inputOccupations ) :: inputOccupations
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nbnd_ispresent = nbnd_ispresent
IF(obj%nbnd_ispresent) THEN
obj%nbnd = nbnd
ENDIF
obj%smearing_ispresent = smearing_ispresent
IF(obj%smearing_ispresent) THEN
obj%smearing = smearing
ENDIF
obj%tot_charge_ispresent = tot_charge_ispresent
IF(obj%tot_charge_ispresent) THEN
obj%tot_charge = tot_charge
ENDIF
obj%tot_magnetization_ispresent = tot_magnetization_ispresent
IF(obj%tot_magnetization_ispresent) THEN
obj%tot_magnetization = tot_magnetization
ENDIF
obj%occupations = occupations
obj%inputOccupations_ispresent = inputOccupations_ispresent
IF(obj%inputOccupations_ispresent) THEN
ALLOCATE(obj%inputOccupations(SIZE(inputOccupations)))
DO i = 1, SIZE(inputOccupations)
obj%inputOccupations(i) = inputOccupations(i)
ENDDO
obj%ndim_inputOccupations = ndim_inputOccupations
ENDIF
END SUBROUTINE qes_init_bands
SUBROUTINE qes_reset_bands(obj)
IMPLICIT NONE
TYPE(bands_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%nbnd_ispresent) THEN
obj%nbnd_ispresent = .FALSE.
ENDIF
IF(obj%smearing_ispresent) THEN
CALL qes_reset_smearing(obj%smearing)
obj%smearing_ispresent = .FALSE.
ENDIF
IF(obj%tot_charge_ispresent) THEN
obj%tot_charge_ispresent = .FALSE.
ENDIF
IF(obj%tot_magnetization_ispresent) THEN
obj%tot_magnetization_ispresent = .FALSE.
ENDIF
CALL qes_reset_occupations(obj%occupations)
IF(obj%inputOccupations_ispresent) THEN
DO i = 1, SIZE(obj%inputOccupations)
CALL qes_reset_inputOccupations(obj%inputOccupations(i))
ENDDO
IF (ALLOCATED(obj%inputOccupations)) DEALLOCATE(obj%inputOccupations)
obj%inputOccupations_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_bands
SUBROUTINE qes_write_basis(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(basis_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%gamma_only_ispresent) THEN
CALL xml_NewElement(xp, 'gamma_only' )
CALL xml_addCharacters(xp, obj%gamma_only )
CALL xml_EndElement(xp, 'gamma_only')
ENDIF
!
CALL xml_NewElement(xp, 'ecutwfc')
CALL xml_addCharacters(xp, obj%ecutwfc, fmt = 's16')
CALL xml_EndElement(xp, 'ecutwfc')
IF(obj%ecutrho_ispresent) THEN
CALL xml_NewElement(xp, 'ecutrho')
CALL xml_addCharacters(xp, obj%ecutrho, fmt = 's16')
CALL xml_EndElement(xp, 'ecutrho')
ENDIF
!
IF(obj%fft_grid_ispresent) THEN
CALL qes_write_basisSetItem(xp, obj%fft_grid)
!
ENDIF
!
IF(obj%fft_smooth_ispresent) THEN
CALL qes_write_basisSetItem(xp, obj%fft_smooth)
!
ENDIF
!
IF(obj%fft_box_ispresent) THEN
CALL qes_write_basisSetItem(xp, obj%fft_box)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_basis
SUBROUTINE qes_init_basis(obj, tagname, gamma_only_ispresent, gamma_only, ecutwfc, &
ecutrho_ispresent, ecutrho, fft_grid_ispresent, fft_grid, &
fft_smooth_ispresent, fft_smooth, fft_box_ispresent, fft_box)
IMPLICIT NONE
TYPE(basis_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: gamma_only_ispresent
LOGICAL :: gamma_only
REAL(DP) :: ecutwfc
LOGICAL :: ecutrho_ispresent
REAL(DP) :: ecutrho
LOGICAL :: fft_grid_ispresent
TYPE(basisSetItem_type) :: fft_grid
LOGICAL :: fft_smooth_ispresent
TYPE(basisSetItem_type) :: fft_smooth
LOGICAL :: fft_box_ispresent
TYPE(basisSetItem_type) :: fft_box
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%gamma_only_ispresent = gamma_only_ispresent
IF(obj%gamma_only_ispresent) THEN
obj%gamma_only = gamma_only
ENDIF
obj%ecutwfc = ecutwfc
obj%ecutrho_ispresent = ecutrho_ispresent
IF(obj%ecutrho_ispresent) THEN
obj%ecutrho = ecutrho
ENDIF
obj%fft_grid_ispresent = fft_grid_ispresent
IF(obj%fft_grid_ispresent) THEN
obj%fft_grid = fft_grid
ENDIF
obj%fft_smooth_ispresent = fft_smooth_ispresent
IF(obj%fft_smooth_ispresent) THEN
obj%fft_smooth = fft_smooth
ENDIF
obj%fft_box_ispresent = fft_box_ispresent
IF(obj%fft_box_ispresent) THEN
obj%fft_box = fft_box
ENDIF
END SUBROUTINE qes_init_basis
SUBROUTINE qes_reset_basis(obj)
IMPLICIT NONE
TYPE(basis_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%gamma_only_ispresent) THEN
obj%gamma_only_ispresent = .FALSE.
ENDIF
IF(obj%ecutrho_ispresent) THEN
obj%ecutrho_ispresent = .FALSE.
ENDIF
IF(obj%fft_grid_ispresent) THEN
CALL qes_reset_basisSetItem(obj%fft_grid)
obj%fft_grid_ispresent = .FALSE.
ENDIF
IF(obj%fft_smooth_ispresent) THEN
CALL qes_reset_basisSetItem(obj%fft_smooth)
obj%fft_smooth_ispresent = .FALSE.
ENDIF
IF(obj%fft_box_ispresent) THEN
CALL qes_reset_basisSetItem(obj%fft_box)
obj%fft_box_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_basis
SUBROUTINE qes_write_reciprocal_lattice(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(reciprocal_lattice_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'b1')
CALL xml_addCharacters(xp, obj%b1, fmt = 's16')
CALL xml_EndElement(xp, 'b1')
CALL xml_NewElement(xp, 'b2')
CALL xml_addCharacters(xp, obj%b2, fmt = 's16')
CALL xml_EndElement(xp, 'b2')
CALL xml_NewElement(xp, 'b3')
CALL xml_addCharacters(xp, obj%b3, fmt = 's16')
CALL xml_EndElement(xp, 'b3')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_reciprocal_lattice
SUBROUTINE qes_init_reciprocal_lattice(obj, tagname, b1, b2, b3)
IMPLICIT NONE
TYPE(reciprocal_lattice_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP), DIMENSION(3) :: b1
REAL(DP), DIMENSION(3) :: b2
REAL(DP), DIMENSION(3) :: b3
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%b1 = b1
obj%b2 = b2
obj%b3 = b3
END SUBROUTINE qes_init_reciprocal_lattice
SUBROUTINE qes_reset_reciprocal_lattice(obj)
IMPLICIT NONE
TYPE(reciprocal_lattice_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
END SUBROUTINE qes_reset_reciprocal_lattice
SUBROUTINE qes_write_electron_control(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(electron_control_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'diagonalization' )
CALL xml_addCharacters(xp, TRIM(obj%diagonalization))
CALL xml_EndElement(xp, 'diagonalization')
CALL xml_NewElement(xp, 'mixing_mode' )
CALL xml_addCharacters(xp, TRIM(obj%mixing_mode))
CALL xml_EndElement(xp, 'mixing_mode')
CALL xml_NewElement(xp, 'mixing_beta')
CALL xml_addCharacters(xp, obj%mixing_beta, fmt = 's16')
CALL xml_EndElement(xp, 'mixing_beta')
CALL xml_NewElement(xp, 'conv_thr')
CALL xml_addCharacters(xp, obj%conv_thr, fmt = 's16')
CALL xml_EndElement(xp, 'conv_thr')
CALL xml_NewElement(xp, 'mixing_ndim')
CALL xml_addCharacters(xp, obj%mixing_ndim)
CALL xml_EndElement(xp, 'mixing_ndim')
CALL xml_NewElement(xp, 'max_nstep')
CALL xml_addCharacters(xp, obj%max_nstep)
CALL xml_EndElement(xp, 'max_nstep')
CALL xml_NewElement(xp, 'real_space_q' )
CALL xml_addCharacters(xp, obj%real_space_q )
CALL xml_EndElement(xp, 'real_space_q')
CALL xml_NewElement(xp, 'tq_smoothing' )
CALL xml_addCharacters(xp, obj%tq_smoothing)
CALL xml_EndElement(xp, 'tq_smoothing')
CALL xml_NewElement(xp, 'tbeta_smoothing' )
CALL xml_addCharacters(xp, obj%tbeta_smoothing)
CALL xml_EndElement(xp, 'tbeta_smoothing')
CALL xml_NewElement(xp, 'diago_thr_init')
CALL xml_addCharacters(xp, obj%diago_thr_init, fmt = 's16')
CALL xml_EndElement(xp, 'diago_thr_init')
CALL xml_NewElement(xp, 'diago_full_acc' )
CALL xml_addCharacters(xp, obj%diago_full_acc )
CALL xml_EndElement(xp, 'diago_full_acc')
CALL xml_NewElement(xp, 'diago_cg_maxiter')
CALL xml_addCharacters(xp, obj%diago_cg_maxiter)
CALL xml_EndElement(xp, 'diago_cg_maxiter')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_electron_control
SUBROUTINE qes_init_electron_control(obj, tagname, diagonalization, mixing_mode, &
mixing_beta, conv_thr, mixing_ndim, max_nstep, real_space_q, &
tq_smoothing, tbeta_smoothing, diago_thr_init, &
diago_full_acc, diago_cg_maxiter)
IMPLICIT NONE
TYPE(electron_control_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: diagonalization
CHARACTER(len=*) :: mixing_mode
REAL(DP) :: mixing_beta
REAL(DP) :: conv_thr
INTEGER :: mixing_ndim
INTEGER :: max_nstep
LOGICAL :: real_space_q
LOGICAL :: tq_smoothing
LOGICAL :: tbeta_smoothing
REAL(DP) :: diago_thr_init
LOGICAL :: diago_full_acc
INTEGER :: diago_cg_maxiter
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%diagonalization = diagonalization
obj%mixing_mode = mixing_mode
obj%mixing_beta = mixing_beta
obj%conv_thr = conv_thr
obj%mixing_ndim = mixing_ndim
obj%max_nstep = max_nstep
obj%real_space_q = real_space_q
obj%tq_smoothing = tq_smoothing
obj%tbeta_smoothing = tbeta_smoothing
obj%diago_thr_init = diago_thr_init
obj%diago_full_acc = diago_full_acc
obj%diago_cg_maxiter = diago_cg_maxiter
END SUBROUTINE qes_init_electron_control
SUBROUTINE qes_reset_electron_control(obj)
IMPLICIT NONE
TYPE(electron_control_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_electron_control
SUBROUTINE qes_write_k_points_IBZ(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(k_points_IBZ_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%monkhorst_pack_ispresent) THEN
CALL qes_write_monkhorst_pack(xp, obj%monkhorst_pack)
!
ENDIF
!
IF(obj%nk_ispresent) THEN
CALL xml_NewElement(xp, 'nk')
CALL xml_addCharacters(xp, obj%nk)
CALL xml_EndElement(xp, 'nk')
ENDIF
!
IF(obj%k_point_ispresent) THEN
DO i = 1, obj%ndim_k_point
CALL qes_write_k_point(xp, obj%k_point(i))
!
END DO
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_k_points_IBZ
SUBROUTINE qes_init_k_points_IBZ(obj, tagname, monkhorst_pack_ispresent, monkhorst_pack, &
nk_ispresent, nk, k_point_ispresent, ndim_k_point, k_point)
IMPLICIT NONE
TYPE(k_points_IBZ_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: monkhorst_pack_ispresent
TYPE(monkhorst_pack_type) :: monkhorst_pack
LOGICAL :: nk_ispresent
INTEGER :: nk
LOGICAL :: k_point_ispresent
INTEGER :: ndim_k_point
TYPE(k_point_type ), DIMENSION( ndim_k_point ) :: k_point
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%monkhorst_pack_ispresent = monkhorst_pack_ispresent
IF(obj%monkhorst_pack_ispresent) THEN
obj%monkhorst_pack = monkhorst_pack
ENDIF
obj%nk_ispresent = nk_ispresent
IF(obj%nk_ispresent) THEN
obj%nk = nk
ENDIF
obj%k_point_ispresent = k_point_ispresent
IF(obj%k_point_ispresent) THEN
ALLOCATE(obj%k_point(SIZE(k_point)))
DO i = 1, SIZE(k_point)
obj%k_point(i) = k_point(i)
ENDDO
obj%ndim_k_point = ndim_k_point
ENDIF
END SUBROUTINE qes_init_k_points_IBZ
SUBROUTINE qes_reset_k_points_IBZ(obj)
IMPLICIT NONE
TYPE(k_points_IBZ_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%monkhorst_pack_ispresent) THEN
CALL qes_reset_monkhorst_pack(obj%monkhorst_pack)
obj%monkhorst_pack_ispresent = .FALSE.
ENDIF
IF(obj%nk_ispresent) THEN
obj%nk_ispresent = .FALSE.
ENDIF
IF(obj%k_point_ispresent) THEN
DO i = 1, SIZE(obj%k_point)
CALL qes_reset_k_point(obj%k_point(i))
ENDDO
IF (ALLOCATED(obj%k_point)) DEALLOCATE(obj%k_point)
obj%k_point_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_k_points_IBZ
SUBROUTINE qes_write_bfgs(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(bfgs_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'ndim')
CALL xml_addCharacters(xp, obj%ndim)
CALL xml_EndElement(xp, 'ndim')
CALL xml_NewElement(xp, 'trust_radius_min')
CALL xml_addCharacters(xp, obj%trust_radius_min, fmt ='s16')
CALL xml_EndElement(xp, 'trust_radius_min')
CALL xml_NewElement(xp, 'trust_radius_max')
CALL xml_addCharacters(xp, obj%trust_radius_max, fmt = 's16')
CALL xml_EndElement(xp, 'trust_radius_max')
CALL xml_NewElement(xp, 'trust_radius_init')
CALL xml_addCharacters(xp, obj%trust_radius_init, fmt = 's16')
CALL xml_EndElement(xp, 'trust_radius_init')
CALL xml_NewElement(xp, 'w1')
CALL xml_addCharacters(xp, obj%w1, fmt = 's16')
CALL xml_EndElement(xp, 'w1')
CALL xml_NewElement(xp, 'w2')
CALL xml_addCharacters(xp, obj%w2, fmt = 's16')
CALL xml_EndElement(xp, 'w2')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_bfgs
SUBROUTINE qes_init_bfgs(obj, tagname, ndim, trust_radius_min, trust_radius_max, &
trust_radius_init, w1, w2)
IMPLICIT NONE
TYPE(bfgs_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: ndim
REAL(DP) :: trust_radius_min
REAL(DP) :: trust_radius_max
REAL(DP) :: trust_radius_init
REAL(DP) :: w1
REAL(DP) :: w2
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ndim = ndim
obj%trust_radius_min = trust_radius_min
obj%trust_radius_max = trust_radius_max
obj%trust_radius_init = trust_radius_init
obj%w1 = w1
obj%w2 = w2
END SUBROUTINE qes_init_bfgs
SUBROUTINE qes_reset_bfgs(obj)
IMPLICIT NONE
TYPE(bfgs_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_bfgs
SUBROUTINE qes_write_md(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(md_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'pot_extrapolation' )
CALL xml_addCharacters(xp, TRIM(obj%pot_extrapolation) )
CALL xml_EndElement(xp, 'pot_extrapolation')
CALL xml_NewElement(xp, 'wfc_extrapolation' )
CALL xml_addCharacters(xp, TRIM(obj%wfc_extrapolation) )
CALL xml_EndElement(xp, 'wfc_extrapolation')
CALL xml_NewElement(xp, 'ion_temperature' )
CALL xml_addCharacters(xp, TRIM(obj%ion_temperature))
CALL xml_EndElement(xp, 'ion_temperature')
CALL xml_NewElement(xp, 'timestep')
CALL xml_addCharacters(xp, obj%timestep, fmt = 's16')
CALL xml_EndElement(xp, 'timestep')
CALL xml_NewElement(xp, 'tempw')
CALL xml_addCharacters(xp, obj%tempw, fmt = 's16')
CALL xml_EndElement(xp, 'tempw')
CALL xml_NewElement(xp, 'tolp')
CALL xml_addCharacters(xp, obj%tolp, 's16')
CALL xml_EndElement(xp, 'tolp')
CALL xml_NewElement(xp, 'deltaT')
CALL xml_addCharacters(xp, obj%deltaT, fmt = 's16')
CALL xml_EndElement(xp, 'deltaT')
CALL xml_NewElement(xp, 'nraise')
CALL xml_addCharacters(xp, obj%nraise)
CALL xml_EndElement(xp, 'nraise')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_md
SUBROUTINE qes_init_md(obj, tagname, pot_extrapolation, wfc_extrapolation, ion_temperature, &
timestep, tempw, tolp, deltaT, nraise)
IMPLICIT NONE
TYPE(md_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: pot_extrapolation
CHARACTER(len=*) :: wfc_extrapolation
CHARACTER(len=*) :: ion_temperature
REAL(DP) :: timestep
REAL(DP) :: tempw
REAL(DP) :: tolp
REAL(DP) :: deltaT
INTEGER :: nraise
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%pot_extrapolation = pot_extrapolation
obj%wfc_extrapolation = wfc_extrapolation
obj%ion_temperature = ion_temperature
obj%timestep = timestep
obj%tempw = tempw
obj%tolp = tolp
obj%deltaT = deltaT
obj%nraise = nraise
END SUBROUTINE qes_init_md
SUBROUTINE qes_reset_md(obj)
IMPLICIT NONE
TYPE(md_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_md
SUBROUTINE qes_write_cell_control(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(cell_control_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'cell_dynamics' )
CALL xml_addCharacters(xp, TRIM(obj%cell_dynamics))
CALL xml_EndElement(xp, 'cell_dynamics')
CALL xml_NewElement(xp, 'pressure')
CALL xml_addCharacters(xp, obj%pressure, fmt = 's16')
CALL xml_EndElement(xp, 'pressure')
IF(obj%wmass_ispresent) THEN
CALL xml_NewElement(xp, 'wmass')
CALL xml_addCharacters(xp, obj%wmass, fmt = 's16')
CALL xml_EndElement(xp, 'wmass')
ENDIF
!
IF(obj%cell_factor_ispresent) THEN
CALL xml_NewElement(xp, 'cell_factor')
CALL xml_addCharacters(xp, obj%cell_factor, fmt = 's16')
CALL xml_EndElement(xp, 'cell_factor')
ENDIF
!
IF(obj%fix_volume_ispresent) THEN
CALL xml_NewElement(xp, 'fix_volume' )
CALL xml_addCharacters(xp, obj%fix_volume)
CALL xml_EndElement(xp, 'fix_volume')
ENDIF
!
IF(obj%fix_area_ispresent) THEN
CALL xml_NewElement(xp, 'fix_area' )
CALL xml_addCharacters(xp, obj%fix_area)
CALL xml_EndElement(xp, 'fix_area')
ENDIF
!
IF(obj%isotropic_ispresent) THEN
CALL xml_NewElement(xp, 'isotropic' )
CALL xml_addCharacters(xp, obj%isotropic)
CALL xml_EndElement(xp, 'isotropic')
ENDIF
!
IF(obj%free_cell_ispresent) THEN
CALL qes_write_integerMatrix(xp, obj%free_cell)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_cell_control
SUBROUTINE qes_init_cell_control(obj, tagname, cell_dynamics, pressure, wmass_ispresent, &
wmass, cell_factor_ispresent, cell_factor, &
fix_volume_ispresent, fix_volume, fix_area_ispresent, &
fix_area, isotropic_ispresent, isotropic, &
free_cell_ispresent, free_cell)
IMPLICIT NONE
TYPE(cell_control_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: cell_dynamics
REAL(DP) :: pressure
LOGICAL :: wmass_ispresent
REAL(DP) :: wmass
LOGICAL :: cell_factor_ispresent
REAL(DP) :: cell_factor
LOGICAL :: fix_volume_ispresent
LOGICAL :: fix_volume
LOGICAL :: fix_area_ispresent
LOGICAL :: fix_area
LOGICAL :: isotropic_ispresent
LOGICAL :: isotropic
LOGICAL :: free_cell_ispresent
TYPE(integerMatrix_type) :: free_cell
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%cell_dynamics = cell_dynamics
obj%pressure = pressure
obj%wmass_ispresent = wmass_ispresent
IF(obj%wmass_ispresent) THEN
obj%wmass = wmass
ENDIF
obj%cell_factor_ispresent = cell_factor_ispresent
IF(obj%cell_factor_ispresent) THEN
obj%cell_factor = cell_factor
ENDIF
obj%fix_volume_ispresent = fix_volume_ispresent
IF(obj%fix_volume_ispresent) THEN
obj%fix_volume = fix_volume
ENDIF
obj%fix_area_ispresent = fix_area_ispresent
IF(obj%fix_area_ispresent) THEN
obj%fix_area = fix_area
ENDIF
obj%isotropic_ispresent = isotropic_ispresent
IF(obj%isotropic_ispresent) THEN
obj%isotropic = isotropic
ENDIF
obj%free_cell_ispresent = free_cell_ispresent
IF(obj%free_cell_ispresent) THEN
obj%free_cell = free_cell
ENDIF
END SUBROUTINE qes_init_cell_control
SUBROUTINE qes_reset_cell_control(obj)
IMPLICIT NONE
TYPE(cell_control_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%wmass_ispresent) THEN
obj%wmass_ispresent = .FALSE.
ENDIF
IF(obj%cell_factor_ispresent) THEN
obj%cell_factor_ispresent = .FALSE.
ENDIF
IF(obj%fix_volume_ispresent) THEN
obj%fix_volume_ispresent = .FALSE.
ENDIF
IF(obj%fix_area_ispresent) THEN
obj%fix_area_ispresent = .FALSE.
ENDIF
IF(obj%isotropic_ispresent) THEN
obj%isotropic_ispresent = .FALSE.
ENDIF
IF(obj%free_cell_ispresent) THEN
CALL qes_reset_integerMatrix(obj%free_cell)
obj%free_cell_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_cell_control
SUBROUTINE qes_write_symmetry_flags(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(symmetry_flags_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'nosym' )
CALL xml_addCharacters(xp, obj%nosym)
CALL xml_EndElement(xp, 'nosym')
CALL xml_NewElement(xp, 'nosym_evc' )
CALL xml_addCharacters(xp, obj%nosym_evc)
CALL xml_EndElement(xp, 'nosym_evc')
CALL xml_NewElement(xp, 'noinv' )
CALL xml_addCharacters(xp, obj%noinv )
CALL xml_EndElement(xp, 'noinv')
CALL xml_NewElement(xp, 'no_t_rev' )
CALL xml_addCharacters(xp, obj%no_t_rev )
CALL xml_EndElement(xp, 'no_t_rev')
CALL xml_NewElement(xp, 'force_symmorphic' )
CALL xml_addCharacters(xp,obj%force_symmorphic)
CALL xml_EndElement(xp, 'force_symmorphic')
CALL xml_NewElement(xp, 'use_all_frac' )
CALL xml_addCharacters(xp, obj%use_all_frac )
CALL xml_EndElement(xp, 'use_all_frac')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_symmetry_flags
SUBROUTINE qes_init_symmetry_flags(obj, tagname, nosym, nosym_evc, noinv, no_t_rev, &
force_symmorphic, use_all_frac)
IMPLICIT NONE
TYPE(symmetry_flags_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: nosym
LOGICAL :: nosym_evc
LOGICAL :: noinv
LOGICAL :: no_t_rev
LOGICAL :: force_symmorphic
LOGICAL :: use_all_frac
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nosym = nosym
obj%nosym_evc = nosym_evc
obj%noinv = noinv
obj%no_t_rev = no_t_rev
obj%force_symmorphic = force_symmorphic
obj%use_all_frac = use_all_frac
END SUBROUTINE qes_init_symmetry_flags
SUBROUTINE qes_reset_symmetry_flags(obj)
IMPLICIT NONE
TYPE(symmetry_flags_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_symmetry_flags
SUBROUTINE qes_write_esm(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(esm_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'bc' )
CALL xml_addCharacters(xp, TRIM(obj%bc) )
CALL xml_EndElement(xp, 'bc')
CALL xml_NewElement(xp, 'nfit')
CALL xml_addCharacters(xp, obj%nfit)
CALL xml_EndElement(xp, 'nfit')
CALL xml_NewElement(xp, 'w')
CALL xml_addCharacters(xp, obj%w, fmt = 's16')
CALL xml_EndElement(xp, 'w')
CALL xml_NewElement(xp, 'efield')
CALL xml_addCharacters(xp, obj%efield, fmt = 's16')
CALL xml_EndElement(xp, 'efield')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_esm
SUBROUTINE qes_init_esm(obj, tagname, bc, nfit, w, efield)
IMPLICIT NONE
TYPE(esm_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: bc
INTEGER :: nfit
REAL(DP) :: w
REAL(DP) :: efield
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%bc = bc
obj%nfit = nfit
obj%w = w
obj%efield = efield
END SUBROUTINE qes_init_esm
SUBROUTINE qes_reset_esm(obj)
IMPLICIT NONE
TYPE(esm_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_esm
SUBROUTINE qes_write_ekin_functional(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(ekin_functional_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'ecfixed')
CALL xml_addCharacters(xp, obj%ecfixed, fmt = 's16')
CALL xml_EndElement(xp, 'ecfixed')
CALL xml_NewElement(xp, 'qcutz')
CALL xml_addCharacters(xp, obj%qcutz, fmt = 's16')
CALL xml_EndElement(xp, 'qcutz')
CALL xml_NewElement(xp, 'q2sigma')
CALL xml_addCharacters(xp, obj%q2sigma, fmt = 's16')
CALL xml_EndElement(xp, 'q2sigma')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_ekin_functional
SUBROUTINE qes_init_ekin_functional(obj, tagname, ecfixed, qcutz, q2sigma)
IMPLICIT NONE
TYPE(ekin_functional_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP) :: ecfixed
REAL(DP) :: qcutz
REAL(DP) :: q2sigma
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ecfixed = ecfixed
obj%qcutz = qcutz
obj%q2sigma = q2sigma
END SUBROUTINE qes_init_ekin_functional
SUBROUTINE qes_reset_ekin_functional(obj)
IMPLICIT NONE
TYPE(ekin_functional_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_ekin_functional
SUBROUTINE qes_write_spin_constraints(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(spin_constraints_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'spin_constraints' )
CALL xml_addCharacters(xp, TRIM(obj%spin_constraints) )
CALL xml_EndElement(xp, 'spin_constraints')
CALL xml_NewElement(xp, 'lagrange_multiplier')
CALL xml_addCharacters(xp, obj%lagrange_multiplier, fmt = 's16' )
CALL xml_EndElement(xp, 'lagrange_multiplier')
IF(obj%target_magnetization_ispresent) THEN
CALL xml_NewElement(xp, 'target_magnetization')
CALL xml_addCharacters(xp, obj%target_magnetization, fmt = 's16')
CALL xml_EndElement(xp, 'target_magnetization')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_spin_constraints
SUBROUTINE qes_init_spin_constraints(obj, tagname, spin_constraints, lagrange_multiplier, &
target_magnetization_ispresent, target_magnetization)
IMPLICIT NONE
TYPE(spin_constraints_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: spin_constraints
REAL(DP) :: lagrange_multiplier
LOGICAL :: target_magnetization_ispresent
REAL(DP), DIMENSION(3) :: target_magnetization
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%spin_constraints = spin_constraints
obj%lagrange_multiplier = lagrange_multiplier
obj%target_magnetization_ispresent = target_magnetization_ispresent
IF(obj%target_magnetization_ispresent) THEN
obj%target_magnetization = target_magnetization
ENDIF
END SUBROUTINE qes_init_spin_constraints
SUBROUTINE qes_reset_spin_constraints(obj)
IMPLICIT NONE
TYPE(spin_constraints_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%target_magnetization_ispresent) THEN
obj%target_magnetization_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_spin_constraints
SUBROUTINE qes_write_electric_field(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(electric_field_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'electric_potential' )
CALL xml_addCharacters(xp, TRIM(obj%electric_potential))
CALL xml_EndElement(xp, 'electric_potential')
IF(obj%dipole_correction_ispresent) THEN
CALL xml_NewElement(xp, 'dipole_correction' )
CALL xml_addCharacters(xp, obj%dipole_correction)
CALL xml_EndElement(xp, 'dipole_correction')
ENDIF
!
IF(obj%electric_field_direction_ispresent) THEN
CALL xml_NewElement(xp, 'electric_field_direction')
CALL xml_addCharacters(xp, obj%electric_field_direction)
CALL xml_EndElement(xp, 'electric_field_direction')
ENDIF
!
IF(obj%potential_max_position_ispresent) THEN
CALL xml_NewElement(xp, 'potential_max_position')
CALL xml_addCharacters(xp, obj%potential_max_position, fmt = 's16')
CALL xml_EndElement(xp, 'potential_max_position')
ENDIF
!
IF(obj%potential_decrease_width_ispresent) THEN
CALL xml_NewElement(xp, 'potential_decrease_width')
CALL xml_addCharacters(xp, obj%potential_decrease_width, fmt = 's16')
CALL xml_EndElement(xp, 'potential_decrease_width')
ENDIF
!
IF(obj%electric_field_amplitude_ispresent) THEN
CALL xml_NewElement(xp, 'electric_field_amplitude')
CALL xml_addCharacters(xp, obj%electric_field_amplitude, fmt = 's16')
CALL xml_EndElement(xp, 'electric_field_amplitude')
ENDIF
!
IF(obj%electric_field_vector_ispresent) THEN
CALL xml_NewElement(xp, 'electric_field_vector')
CALL xml_addCharacters(xp, obj%electric_field_vector, fmt = 's16')
CALL xml_EndElement(xp, 'electric_field_vector')
ENDIF
!
IF(obj%nk_per_string_ispresent) THEN
CALL xml_NewElement(xp, 'nk_per_string')
CALL xml_addCharacters(xp, obj%nk_per_string)
CALL xml_EndElement(xp, 'nk_per_string')
ENDIF
!
IF(obj%n_berry_cycles_ispresent) THEN
CALL xml_NewElement(xp, 'n_berry_cycles')
CALL xml_addCharacters(xp, obj%n_berry_cycles)
CALL xml_EndElement(xp, 'n_berry_cycles')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_electric_field
SUBROUTINE qes_init_electric_field(obj, tagname, electric_potential, &
dipole_correction_ispresent, dipole_correction, &
electric_field_direction_ispresent, electric_field_direction, &
potential_max_position_ispresent, potential_max_position, &
potential_decrease_width_ispresent, potential_decrease_width, &
electric_field_amplitude_ispresent, electric_field_amplitude, &
electric_field_vector_ispresent, electric_field_vector, &
nk_per_string_ispresent, nk_per_string, &
n_berry_cycles_ispresent, n_berry_cycles)
IMPLICIT NONE
TYPE(electric_field_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: electric_potential
LOGICAL :: dipole_correction_ispresent
LOGICAL :: dipole_correction
LOGICAL :: electric_field_direction_ispresent
INTEGER :: electric_field_direction
LOGICAL :: potential_max_position_ispresent
REAL(DP) :: potential_max_position
LOGICAL :: potential_decrease_width_ispresent
REAL(DP) :: potential_decrease_width
LOGICAL :: electric_field_amplitude_ispresent
REAL(DP) :: electric_field_amplitude
LOGICAL :: electric_field_vector_ispresent
REAL(DP), DIMENSION(3) :: electric_field_vector
LOGICAL :: nk_per_string_ispresent
INTEGER :: nk_per_string
LOGICAL :: n_berry_cycles_ispresent
INTEGER :: n_berry_cycles
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%electric_potential = electric_potential
obj%dipole_correction_ispresent = dipole_correction_ispresent
IF(obj%dipole_correction_ispresent) THEN
obj%dipole_correction = dipole_correction
ENDIF
obj%electric_field_direction_ispresent = electric_field_direction_ispresent
IF(obj%electric_field_direction_ispresent) THEN
obj%electric_field_direction = electric_field_direction
ENDIF
obj%potential_max_position_ispresent = potential_max_position_ispresent
IF(obj%potential_max_position_ispresent) THEN
obj%potential_max_position = potential_max_position
ENDIF
obj%potential_decrease_width_ispresent = potential_decrease_width_ispresent
IF(obj%potential_decrease_width_ispresent) THEN
obj%potential_decrease_width = potential_decrease_width
ENDIF
obj%electric_field_amplitude_ispresent = electric_field_amplitude_ispresent
IF(obj%electric_field_amplitude_ispresent) THEN
obj%electric_field_amplitude = electric_field_amplitude
ENDIF
obj%electric_field_vector_ispresent = electric_field_vector_ispresent
IF(obj%electric_field_vector_ispresent) THEN
obj%electric_field_vector = electric_field_vector
ENDIF
obj%nk_per_string_ispresent = nk_per_string_ispresent
IF(obj%nk_per_string_ispresent) THEN
obj%nk_per_string = nk_per_string
ENDIF
obj%n_berry_cycles_ispresent = n_berry_cycles_ispresent
IF(obj%n_berry_cycles_ispresent) THEN
obj%n_berry_cycles = n_berry_cycles
ENDIF
END SUBROUTINE qes_init_electric_field
SUBROUTINE qes_reset_electric_field(obj)
IMPLICIT NONE
TYPE(electric_field_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%dipole_correction_ispresent) THEN
obj%dipole_correction_ispresent = .FALSE.
ENDIF
IF(obj%electric_field_direction_ispresent) THEN
obj%electric_field_direction_ispresent = .FALSE.
ENDIF
IF(obj%potential_max_position_ispresent) THEN
obj%potential_max_position_ispresent = .FALSE.
ENDIF
IF(obj%potential_decrease_width_ispresent) THEN
obj%potential_decrease_width_ispresent = .FALSE.
ENDIF
IF(obj%electric_field_amplitude_ispresent) THEN
obj%electric_field_amplitude_ispresent = .FALSE.
ENDIF
IF(obj%electric_field_vector_ispresent) THEN
obj%electric_field_vector_ispresent = .FALSE.
ENDIF
IF(obj%nk_per_string_ispresent) THEN
obj%nk_per_string_ispresent = .FALSE.
ENDIF
IF(obj%n_berry_cycles_ispresent) THEN
obj%n_berry_cycles_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_electric_field
SUBROUTINE qes_write_atomic_constraint(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atomic_constraint_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'constr_parms')
CALL xml_addCharacters(xp, obj%constr_parms, fmt = 's16')
CALL xml_EndElement(xp, 'constr_parms')
CALL xml_NewElement(xp, 'constr_type')
CALL xml_addCharacters(xp, TRIM(obj%constr_type) )
CALL xml_EndElement(xp, 'constr_type' )
CALL xml_NewElement(xp, 'constr_target')
CALL xml_addCharacters(xp, obj%constr_target, fmt = 's16')
CALL xml_EndElement(xp, 'constr_target')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atomic_constraint
SUBROUTINE qes_init_atomic_constraint(obj, tagname, constr_parms, constr_type, &
constr_target)
IMPLICIT NONE
TYPE(atomic_constraint_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP), DIMENSION(4) :: constr_parms
CHARACTER(len=*) :: constr_type
REAL(DP) :: constr_target
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%constr_parms = constr_parms
obj%constr_type = constr_type
obj%constr_target = constr_target
END SUBROUTINE qes_init_atomic_constraint
SUBROUTINE qes_reset_atomic_constraint(obj)
IMPLICIT NONE
TYPE(atomic_constraint_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_atomic_constraint
SUBROUTINE qes_write_dipoleOutput(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(dipoleOutput_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'idir')
CALL xml_addCharacters(xp, obj%idir)
CALL xml_EndElement(xp, 'idir')
CALL qes_write_scalarQuantity(xp, obj%dipole)
!
CALL qes_write_scalarQuantity(xp, obj%ion_dipole)
!
CALL qes_write_scalarQuantity(xp, obj%elec_dipole)
!
CALL qes_write_scalarQuantity(xp, obj%dipoleField)
!
CALL qes_write_scalarQuantity(xp, obj%potentialAmp)
!
CALL qes_write_scalarQuantity(xp, obj%totalLength)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_dipoleOutput
SUBROUTINE qes_init_dipoleOutput(obj, tagname, idir, dipole, ion_dipole, elec_dipole, &
dipoleField, potentialAmp, totalLength)
IMPLICIT NONE
TYPE(dipoleOutput_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: idir
TYPE(scalarQuantity_type) :: dipole
TYPE(scalarQuantity_type) :: ion_dipole
TYPE(scalarQuantity_type) :: elec_dipole
TYPE(scalarQuantity_type) :: dipoleField
TYPE(scalarQuantity_type) :: potentialAmp
TYPE(scalarQuantity_type) :: totalLength
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%idir = idir
obj%dipole = dipole
obj%ion_dipole = ion_dipole
obj%elec_dipole = elec_dipole
obj%dipoleField = dipoleField
obj%potentialAmp = potentialAmp
obj%totalLength = totalLength
END SUBROUTINE qes_init_dipoleOutput
SUBROUTINE qes_reset_dipoleOutput(obj)
IMPLICIT NONE
TYPE(dipoleOutput_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_scalarQuantity(obj%dipole)
CALL qes_reset_scalarQuantity(obj%ion_dipole)
CALL qes_reset_scalarQuantity(obj%elec_dipole)
CALL qes_reset_scalarQuantity(obj%dipoleField)
CALL qes_reset_scalarQuantity(obj%potentialAmp)
CALL qes_reset_scalarQuantity(obj%totalLength)
END SUBROUTINE qes_reset_dipoleOutput
SUBROUTINE qes_write_finiteFieldOut(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(finiteFieldOut_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'electronicDipole')
CALL xml_addCharacters(xp, obj%electronicDipole, fmt = 's16')
CALL xml_EndElement(xp, 'electronicDipole')
CALL xml_NewElement(xp, 'ionicDipole')
CALL xml_addCharacters(xp, obj%ionicDipole, fmt = 's16')
CALL xml_EndElement(xp, 'ionicDipole')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_finiteFieldOut
SUBROUTINE qes_init_finiteFieldOut(obj, tagname, electronicDipole, ionicDipole)
IMPLICIT NONE
TYPE(finiteFieldOut_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP), DIMENSION(3) :: electronicDipole
REAL(DP), DIMENSION(3) :: ionicDipole
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%electronicDipole = electronicDipole
obj%ionicDipole = ionicDipole
END SUBROUTINE qes_init_finiteFieldOut
SUBROUTINE qes_reset_finiteFieldOut(obj)
IMPLICIT NONE
TYPE(finiteFieldOut_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_finiteFieldOut
SUBROUTINE qes_write_polarization(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(polarization_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_scalarQuantity(xp, obj%polarization)
!
CALL xml_NewElement(xp, 'modulus')
CALL xml_addCharacters(xp, obj%modulus, fmt = 's16')
CALL xml_EndElement(xp, 'modulus')
CALL xml_NewElement(xp, 'direction')
CALL xml_addCharacters(xp, obj%direction, fmt = 's16')
CALL xml_EndElement(xp, 'direction')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_polarization
SUBROUTINE qes_init_polarization(obj, tagname, polarization, modulus, direction)
IMPLICIT NONE
TYPE(polarization_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(scalarQuantity_type) :: polarization
REAL(DP) :: modulus
REAL(DP), DIMENSION(3) :: direction
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%polarization = polarization
obj%modulus = modulus
obj%direction = direction
END SUBROUTINE qes_init_polarization
SUBROUTINE qes_reset_polarization(obj)
IMPLICIT NONE
TYPE(polarization_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_scalarQuantity(obj%polarization)
END SUBROUTINE qes_reset_polarization
SUBROUTINE qes_write_ionicPolarization(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(ionicPolarization_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_atom(xp, obj%ion)
!
CALL xml_NewElement(xp, 'charge')
CALL xml_addCharacters(xp, obj%charge, fmt = 's16')
CALL xml_EndElement(xp, 'charge')
CALL qes_write_phase(xp, obj%phase)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_ionicPolarization
SUBROUTINE qes_init_ionicPolarization(obj, tagname, ion, charge, phase)
IMPLICIT NONE
TYPE(ionicPolarization_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(atom_type) :: ion
REAL(DP) :: charge
TYPE(phase_type) :: phase
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ion = ion
obj%charge = charge
obj%phase = phase
END SUBROUTINE qes_init_ionicPolarization
SUBROUTINE qes_reset_ionicPolarization(obj)
IMPLICIT NONE
TYPE(ionicPolarization_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_atom(obj%ion)
CALL qes_reset_phase(obj%phase)
END SUBROUTINE qes_reset_ionicPolarization
SUBROUTINE qes_write_electronicPolarization(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(electronicPolarization_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_k_point(xp, obj%firstKeyPoint)
!
IF(obj%spin_ispresent) THEN
CALL xml_NewElement(xp, 'spin')
CALL xml_addCharacters(xp, obj%spin)
CALL xml_EndElement(xp, 'spin')
ENDIF
!
CALL qes_write_phase(xp, obj%phase)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_electronicPolarization
SUBROUTINE qes_init_electronicPolarization(obj, tagname, firstKeyPoint, spin_ispresent, &
spin, phase)
IMPLICIT NONE
TYPE(electronicPolarization_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(k_point_type) :: firstKeyPoint
LOGICAL :: spin_ispresent
INTEGER :: spin
TYPE(phase_type) :: phase
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%firstKeyPoint = firstKeyPoint
obj%spin_ispresent = spin_ispresent
IF(obj%spin_ispresent) THEN
obj%spin = spin
ENDIF
obj%phase = phase
END SUBROUTINE qes_init_electronicPolarization
SUBROUTINE qes_reset_electronicPolarization(obj)
IMPLICIT NONE
TYPE(electronicPolarization_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_k_point(obj%firstKeyPoint)
IF(obj%spin_ispresent) THEN
obj%spin_ispresent = .FALSE.
ENDIF
CALL qes_reset_phase(obj%phase)
END SUBROUTINE qes_reset_electronicPolarization
SUBROUTINE qes_write_scf_conv(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(scf_conv_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'n_scf_steps')
CALL xml_addCharacters(xp, obj%n_scf_steps)
CALL xml_EndElement(xp, 'n_scf_steps')
CALL xml_NewElement(xp, 'scf_error')
CALL xml_addCharacters(xp, obj%scf_error, fmt = 's16')
CALL xml_EndElement(xp, 'scf_error')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_scf_conv
SUBROUTINE qes_init_scf_conv(obj, tagname, n_scf_steps, scf_error)
IMPLICIT NONE
TYPE(scf_conv_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: n_scf_steps
REAL(DP) :: scf_error
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%n_scf_steps = n_scf_steps
obj%scf_error = scf_error
END SUBROUTINE qes_init_scf_conv
SUBROUTINE qes_reset_scf_conv(obj)
IMPLICIT NONE
TYPE(scf_conv_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_scf_conv
SUBROUTINE qes_write_opt_conv(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(opt_conv_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'n_opt_steps')
CALL xml_addCharacters(xp, obj%n_opt_steps)
CALL xml_EndElement(xp, 'n_opt_steps')
CALL xml_NewElement(xp, 'grad_norm')
CALL xml_addCharacters(xp, obj%grad_norm, fmt = 's16')
CALL xml_EndElement(xp, 'grad_norm')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_opt_conv
SUBROUTINE qes_init_opt_conv(obj, tagname, n_opt_steps, grad_norm)
IMPLICIT NONE
TYPE(opt_conv_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: n_opt_steps
REAL(DP) :: grad_norm
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%n_opt_steps = n_opt_steps
obj%grad_norm = grad_norm
END SUBROUTINE qes_init_opt_conv
SUBROUTINE qes_reset_opt_conv(obj)
IMPLICIT NONE
TYPE(opt_conv_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_opt_conv
SUBROUTINE qes_write_algorithmic_info(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(algorithmic_info_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'real_space_q' )
CALL xml_addCharacters(xp, obj%real_space_q )
CALL xml_EndElement(xp, 'real_space_q')
CALL xml_NewElement(xp, 'uspp' )
CALL xml_addCharacters(xp, obj%uspp)
CALL xml_EndElement(xp, 'uspp')
CALL xml_NewElement(xp, 'paw' )
CALL xml_addCharacters(xp, obj%paw)
CALL xml_EndElement(xp, 'paw')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_algorithmic_info
SUBROUTINE qes_init_algorithmic_info(obj, tagname, real_space_q, uspp, paw)
IMPLICIT NONE
TYPE(algorithmic_info_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: real_space_q
LOGICAL :: uspp
LOGICAL :: paw
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%real_space_q = real_space_q
obj%uspp = uspp
obj%paw = paw
END SUBROUTINE qes_init_algorithmic_info
SUBROUTINE qes_reset_algorithmic_info(obj)
IMPLICIT NONE
TYPE(algorithmic_info_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_algorithmic_info
SUBROUTINE qes_write_symmetry(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(symmetry_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_info(xp, obj%info)
!
CALL qes_write_matrix(xp, obj%rotation)
!
IF(obj%fractional_translation_ispresent) THEN
CALL xml_NewElement(xp, 'fractional_translation')
CALL xml_addCharacters(xp, obj%fractional_translation, fmt = 's16')
CALL xml_EndElement(xp, 'fractional_translation')
ENDIF
!
IF(obj%equivalent_atoms_ispresent) THEN
CALL qes_write_equivalent_atoms(xp, obj%equivalent_atoms)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_symmetry
SUBROUTINE qes_init_symmetry(obj, tagname, info, rotation, &
fractional_translation_ispresent, fractional_translation, &
equivalent_atoms_ispresent, equivalent_atoms)
IMPLICIT NONE
TYPE(symmetry_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(info_type) :: info
TYPE(matrix_type) :: rotation
LOGICAL :: fractional_translation_ispresent
REAL(DP), DIMENSION(3) :: fractional_translation
LOGICAL :: equivalent_atoms_ispresent
TYPE(equivalent_atoms_type) :: equivalent_atoms
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%info = info
obj%rotation = rotation
obj%fractional_translation_ispresent = fractional_translation_ispresent
IF(obj%fractional_translation_ispresent) THEN
obj%fractional_translation = fractional_translation
ENDIF
obj%equivalent_atoms_ispresent = equivalent_atoms_ispresent
IF(obj%equivalent_atoms_ispresent) THEN
obj%equivalent_atoms = equivalent_atoms
ENDIF
END SUBROUTINE qes_init_symmetry
SUBROUTINE qes_reset_symmetry(obj)
IMPLICIT NONE
TYPE(symmetry_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_info(obj%info)
CALL qes_reset_matrix(obj%rotation)
IF(obj%fractional_translation_ispresent) THEN
obj%fractional_translation_ispresent = .FALSE.
ENDIF
IF(obj%equivalent_atoms_ispresent) THEN
CALL qes_reset_equivalent_atoms(obj%equivalent_atoms)
obj%equivalent_atoms_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_symmetry
SUBROUTINE qes_write_magnetization(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(magnetization_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'lsda' )
CALL xml_addCharacters(xp, obj%lsda)
CALL xml_EndElement(xp, 'lsda')
CALL xml_NewElement(xp, 'noncolin' )
CALL xml_addCharacters(xp, obj%noncolin)
CALL xml_EndElement(xp, 'noncolin')
CALL xml_NewElement(xp, 'spinorbit' )
CALL xml_addCharacters(xp, obj%spinorbit)
CALL xml_EndElement(xp, 'spinorbit')
CALL xml_NewElement(xp, 'total')
CALL xml_addCharacters(xp, obj%total, fmt = 's16')
CALL xml_EndElement(xp, 'total')
CALL xml_NewElement(xp, 'absolute')
CALL xml_addCharacters(xp, obj%absolute, fmt = 's16')
CALL xml_EndElement(xp, 'absolute')
CALL xml_NewElement(xp, 'do_magnetization' )
CALL xml_addCharacters(xp, obj%do_magnetization)
CALL xml_EndElement(xp, 'do_magnetization')
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_magnetization
SUBROUTINE qes_init_magnetization(obj, tagname, lsda, noncolin, spinorbit, total, absolute, &
do_magnetization)
IMPLICIT NONE
TYPE(magnetization_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: lsda
LOGICAL :: noncolin
LOGICAL :: spinorbit
REAL(DP) :: total
REAL(DP) :: absolute
LOGICAL :: do_magnetization
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%lsda = lsda
obj%noncolin = noncolin
obj%spinorbit = spinorbit
obj%total = total
obj%absolute = absolute
obj%do_magnetization = do_magnetization
END SUBROUTINE qes_init_magnetization
SUBROUTINE qes_reset_magnetization(obj)
IMPLICIT NONE
TYPE(magnetization_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
END SUBROUTINE qes_reset_magnetization
SUBROUTINE qes_write_total_energy(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(total_energy_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'etot')
CALL xml_addCharacters(xp, obj%etot, fmt = 's16')
CALL xml_EndElement(xp, 'etot')
IF(obj%eband_ispresent) THEN
CALL xml_NewElement(xp, 'eband')
CALL xml_addCharacters(xp, obj%eband, fmt ='s16')
CALL xml_EndElement(xp, 'eband')
ENDIF
!
IF(obj%ehart_ispresent) THEN
CALL xml_NewElement(xp, 'ehart')
CALL xml_addCharacters(xp, obj%ehart, fmt = 's16')
CALL xml_EndElement(xp, 'ehart')
ENDIF
!
IF(obj%vtxc_ispresent) THEN
CALL xml_NewElement(xp, 'vtxc')
CALL xml_addCharacters(xp, obj%vtxc, fmt = 's16')
CALL xml_EndElement(xp, 'vtxc')
ENDIF
!
IF(obj%etxc_ispresent) THEN
CALL xml_NewElement(xp, 'etxc')
CALL xml_addCharacters(xp, obj%etxc, fmt = 's16')
CALL xml_EndElement(xp, 'etxc')
ENDIF
!
IF(obj%ewald_ispresent) THEN
CALL xml_NewElement(xp, 'ewald')
CALL xml_addCharacters(xp, obj%ewald, fmt = 's16')
CALL xml_EndElement(xp, 'ewald')
ENDIF
!
IF(obj%demet_ispresent) THEN
CALL xml_NewElement(xp, 'demet')
CALL xml_addCharacters(xp, obj%demet, fmt = 's16')
CALL xml_EndElement(xp, 'demet')
ENDIF
!
IF(obj%efieldcorr_ispresent) THEN
CALL xml_NewElement(xp, 'efieldcorr')
CALL xml_addCharacters(xp, obj%efieldcorr, fmt = 's16')
CALL xml_EndElement(xp, 'efieldcorr')
ENDIF
!
IF(obj%potentiostat_contr_ispresent) THEN
CALL xml_NewElement(xp, 'potentiostat_contr')
CALL xml_addCharacters(xp, obj%potentiostat_contr, fmt = 's16')
CALL xml_EndElement(xp, 'potentiostat_contr')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_total_energy
SUBROUTINE qes_init_total_energy(obj, tagname, etot, eband_ispresent, eband, &
ehart_ispresent, ehart, vtxc_ispresent, vtxc, etxc_ispresent, &
etxc, ewald_ispresent, ewald, demet_ispresent, demet, &
efieldcorr_ispresent, efieldcorr, &
potentiostat_contr_ispresent, potentiostat_contr)
IMPLICIT NONE
TYPE(total_energy_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
REAL(DP) :: etot
LOGICAL :: eband_ispresent
REAL(DP) :: eband
LOGICAL :: ehart_ispresent
REAL(DP) :: ehart
LOGICAL :: vtxc_ispresent
REAL(DP) :: vtxc
LOGICAL :: etxc_ispresent
REAL(DP) :: etxc
LOGICAL :: ewald_ispresent
REAL(DP) :: ewald
LOGICAL :: demet_ispresent
REAL(DP) :: demet
LOGICAL :: efieldcorr_ispresent
REAL(DP) :: efieldcorr
LOGICAL :: potentiostat_contr_ispresent
REAL(DP) :: potentiostat_contr
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%etot = etot
obj%eband_ispresent = eband_ispresent
IF(obj%eband_ispresent) THEN
obj%eband = eband
ENDIF
obj%ehart_ispresent = ehart_ispresent
IF(obj%ehart_ispresent) THEN
obj%ehart = ehart
ENDIF
obj%vtxc_ispresent = vtxc_ispresent
IF(obj%vtxc_ispresent) THEN
obj%vtxc = vtxc
ENDIF
obj%etxc_ispresent = etxc_ispresent
IF(obj%etxc_ispresent) THEN
obj%etxc = etxc
ENDIF
obj%ewald_ispresent = ewald_ispresent
IF(obj%ewald_ispresent) THEN
obj%ewald = ewald
ENDIF
obj%demet_ispresent = demet_ispresent
IF(obj%demet_ispresent) THEN
obj%demet = demet
ENDIF
obj%efieldcorr_ispresent = efieldcorr_ispresent
IF(obj%efieldcorr_ispresent) THEN
obj%efieldcorr = efieldcorr
ENDIF
obj%potentiostat_contr_ispresent = potentiostat_contr_ispresent
IF(obj%potentiostat_contr_ispresent) THEN
obj%potentiostat_contr = potentiostat_contr
ENDIF
END SUBROUTINE qes_init_total_energy
SUBROUTINE qes_reset_total_energy(obj)
IMPLICIT NONE
TYPE(total_energy_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%eband_ispresent) THEN
obj%eband_ispresent = .FALSE.
ENDIF
IF(obj%ehart_ispresent) THEN
obj%ehart_ispresent = .FALSE.
ENDIF
IF(obj%vtxc_ispresent) THEN
obj%vtxc_ispresent = .FALSE.
ENDIF
IF(obj%etxc_ispresent) THEN
obj%etxc_ispresent = .FALSE.
ENDIF
IF(obj%ewald_ispresent) THEN
obj%ewald_ispresent = .FALSE.
ENDIF
IF(obj%demet_ispresent) THEN
obj%demet_ispresent = .FALSE.
ENDIF
IF(obj%efieldcorr_ispresent) THEN
obj%efieldcorr_ispresent = .FALSE.
ENDIF
IF(obj%potentiostat_contr_ispresent) THEN
obj%potentiostat_contr_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_total_energy
SUBROUTINE qes_write_ks_energies(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(ks_energies_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_k_point(xp, obj%k_point)
!
CALL xml_NewElement(xp, 'npw')
CALL xml_addCharacters(xp, obj%npw)
CALL xml_EndElement(xp, 'npw')
!
CALL qes_write_vector(xp, obj%eigenvalues)
!
CALL qes_write_vector(xp, obj%occupations)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_ks_energies
SUBROUTINE qes_init_ks_energies(obj, tagname, k_point, npw, eigenvalues, occupations)
IMPLICIT NONE
TYPE(ks_energies_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(k_point_type) :: k_point
TYPE(vector_type) :: eigenvalues
TYPE(vector_type) :: occupations
INTEGER :: npw
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%k_point = k_point
obj%npw = npw
obj%eigenvalues = eigenvalues
obj%occupations = occupations
END SUBROUTINE qes_init_ks_energies
SUBROUTINE qes_reset_ks_energies(obj)
IMPLICIT NONE
TYPE(ks_energies_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_k_point(obj%k_point)
CALL qes_reset_vector(obj%eigenvalues)
CALL qes_reset_vector(obj%occupations)
END SUBROUTINE qes_reset_ks_energies
SUBROUTINE qes_write_atomic_species(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atomic_species_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'ntyp', obj%ntyp)
IF (obj%pseudo_dir_ispresent) CALL xml_addAttribute( xp, 'pseudo_dir', TRIM ( obj%pseudo_dir) )
!
DO i = 1, obj%ndim_species
CALL qes_write_species(xp, obj%species(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atomic_species
SUBROUTINE qes_init_atomic_species(obj, tagname, ntyp, ndim_species, species)
IMPLICIT NONE
TYPE(atomic_species_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: ntyp
INTEGER :: ndim_species
TYPE(species_type ), DIMENSION( ndim_species ) :: species
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ntyp = ntyp
ALLOCATE(obj%species(SIZE(species)))
DO i = 1, SIZE(species)
obj%species(i) = species(i)
ENDDO
obj%ndim_species = ndim_species
END SUBROUTINE qes_init_atomic_species
SUBROUTINE qes_reset_atomic_species(obj)
IMPLICIT NONE
TYPE(atomic_species_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
DO i = 1, SIZE(obj%species)
CALL qes_reset_species(obj%species(i))
ENDDO
IF (ALLOCATED(obj%species)) DEALLOCATE(obj%species)
END SUBROUTINE qes_reset_atomic_species
SUBROUTINE qes_write_atomic_structure(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atomic_structure_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'nat', obj%nat)
IF(obj%alat_ispresent) THEN
CALL xml_addAttribute( xp, 'alat', obj%alat)
END IF
IF(obj%bravais_index_ispresent) THEN
CALL xml_addAttribute( xp, 'bravais_index', obj%bravais_index)
END IF
!
IF(obj%atomic_positions_ispresent) THEN
CALL qes_write_atomic_positions(xp, obj%atomic_positions)
!
ENDIF
!
IF(obj%wyckoff_positions_ispresent) THEN
CALL qes_write_wyckoff_positions(xp, obj%wyckoff_positions)
!
ENDIF
!
CALL qes_write_cell(xp, obj%cell)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atomic_structure
SUBROUTINE qes_init_atomic_structure(obj, tagname, nat, alat, alat_ispresent, &
bravais_index, bravais_index_ispresent, &
atomic_positions_ispresent, atomic_positions, &
wyckoff_positions_ispresent, wyckoff_positions, cell)
IMPLICIT NONE
TYPE(atomic_structure_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nat
LOGICAL :: alat_ispresent
REAL(DP), OPTIONAL :: alat
LOGICAL :: bravais_index_ispresent
INTEGER , OPTIONAL :: bravais_index
LOGICAL :: atomic_positions_ispresent
TYPE(atomic_positions_type) :: atomic_positions
LOGICAL :: wyckoff_positions_ispresent
TYPE(wyckoff_positions_type) :: wyckoff_positions
TYPE(cell_type) :: cell
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nat = nat
obj%alat_ispresent = alat_ispresent
IF (obj%alat_ispresent) THEN
obj%alat = alat
ENDIF
obj%bravais_index_ispresent = bravais_index_ispresent
IF (obj%bravais_index_ispresent) THEN
obj%bravais_index = bravais_index
ENDIF
obj%atomic_positions_ispresent = atomic_positions_ispresent
IF(obj%atomic_positions_ispresent) THEN
obj%atomic_positions = atomic_positions
ENDIF
obj%wyckoff_positions_ispresent = wyckoff_positions_ispresent
IF(obj%wyckoff_positions_ispresent) THEN
obj%wyckoff_positions = wyckoff_positions
ENDIF
obj%cell = cell
END SUBROUTINE qes_init_atomic_structure
SUBROUTINE qes_reset_atomic_structure(obj)
IMPLICIT NONE
TYPE(atomic_structure_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%atomic_positions_ispresent) THEN
CALL qes_reset_atomic_positions(obj%atomic_positions)
obj%atomic_positions_ispresent = .FALSE.
ENDIF
IF(obj%wyckoff_positions_ispresent) THEN
CALL qes_reset_wyckoff_positions(obj%wyckoff_positions)
obj%wyckoff_positions_ispresent = .FALSE.
ENDIF
CALL qes_reset_cell(obj%cell)
END SUBROUTINE qes_reset_atomic_structure
SUBROUTINE qes_write_dft(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(dft_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'functional' )
CALL xml_addCharacters(xp, TRIM(obj%functional) )
CALL xml_EndElement(xp, 'functional')
IF(obj%hybrid_ispresent) THEN
CALL qes_write_hybrid(xp, obj%hybrid)
!
ENDIF
!
IF(obj%dftU_ispresent) THEN
CALL qes_write_dftU(xp, obj%dftU)
!
ENDIF
!
IF(obj%vdW_ispresent) THEN
CALL qes_write_vdW(xp, obj%vdW)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_dft
SUBROUTINE qes_init_dft(obj, tagname, functional, hybrid_ispresent, hybrid, dftU_ispresent, &
dftU, vdW_ispresent, vdW)
IMPLICIT NONE
TYPE(dft_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: functional
LOGICAL :: hybrid_ispresent
TYPE(hybrid_type) :: hybrid
LOGICAL :: dftU_ispresent
TYPE(dftU_type) :: dftU
LOGICAL :: vdW_ispresent
TYPE(vdW_type) :: vdW
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%functional = functional
obj%hybrid_ispresent = hybrid_ispresent
IF(obj%hybrid_ispresent) THEN
obj%hybrid = hybrid
ENDIF
obj%dftU_ispresent = dftU_ispresent
IF(obj%dftU_ispresent) THEN
obj%dftU = dftU
ENDIF
obj%vdW_ispresent = vdW_ispresent
IF(obj%vdW_ispresent) THEN
obj%vdW = vdW
ENDIF
END SUBROUTINE qes_init_dft
SUBROUTINE qes_reset_dft(obj)
IMPLICIT NONE
TYPE(dft_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%hybrid_ispresent) THEN
CALL qes_reset_hybrid(obj%hybrid)
obj%hybrid_ispresent = .FALSE.
ENDIF
IF(obj%dftU_ispresent) THEN
CALL qes_reset_dftU(obj%dftU)
obj%dftU_ispresent = .FALSE.
ENDIF
IF(obj%vdW_ispresent) THEN
CALL qes_reset_vdW(obj%vdW)
obj%vdW_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_dft
SUBROUTINE qes_write_basis_set(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(basis_set_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%gamma_only_ispresent) THEN
CALL xml_NewElement(xp, 'gamma_only' )
CALL xml_addCharacters(xp, obj%gamma_only)
CALL xml_EndElement(xp, 'gamma_only')
ENDIF
!
CALL xml_NewElement(xp, 'ecutwfc')
CALL xml_addCharacters(xp, obj%ecutwfc, fmt = 's16')
CALL xml_EndElement(xp, 'ecutwfc')
IF(obj%ecutrho_ispresent) THEN
CALL xml_NewElement(xp, 'ecutrho')
CALL xml_addCharacters(xp, obj%ecutrho, fmt = 's16')
CALL xml_EndElement(xp, 'ecutrho')
ENDIF
!
CALL qes_write_basisSetItem(xp, obj%fft_grid)
!
IF(obj%fft_smooth_ispresent) THEN
CALL qes_write_basisSetItem(xp, obj%fft_smooth)
!
ENDIF
!
IF(obj%fft_box_ispresent) THEN
CALL qes_write_basisSetItem(xp, obj%fft_box)
!
ENDIF
!
CALL xml_NewElement(xp, 'ngm')
CALL xml_addCharacters(xp, obj%ngm )
CALL xml_EndElement(xp, 'ngm')
IF(obj%ngms_ispresent) THEN
CALL xml_NewElement(xp, 'ngms')
CALL xml_addCharacters(xp, obj%ngms )
CALL xml_EndElement(xp, 'ngms')
ENDIF
!
CALL xml_NewElement(xp, 'npwx')
CALL xml_addCharacters(xp, obj%npwx )
CALL xml_EndElement(xp, 'npwx')
CALL qes_write_reciprocal_lattice(xp, obj%reciprocal_lattice)
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_basis_set
SUBROUTINE qes_init_basis_set(obj, tagname, gamma_only_ispresent, gamma_only, ecutwfc, &
ecutrho_ispresent, ecutrho, fft_grid, fft_smooth_ispresent, &
fft_smooth, fft_box_ispresent, fft_box, ngm, ngms_ispresent, &
ngms, npwx, reciprocal_lattice)
IMPLICIT NONE
TYPE(basis_set_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: gamma_only_ispresent
LOGICAL :: gamma_only
REAL(DP) :: ecutwfc
LOGICAL :: ecutrho_ispresent
REAL(DP) :: ecutrho
TYPE(basisSetItem_type) :: fft_grid
LOGICAL :: fft_smooth_ispresent
TYPE(basisSetItem_type) :: fft_smooth
LOGICAL :: fft_box_ispresent
TYPE(basisSetItem_type) :: fft_box
INTEGER :: ngm
LOGICAL :: ngms_ispresent
INTEGER :: ngms
INTEGER :: npwx
TYPE(reciprocal_lattice_type) :: reciprocal_lattice
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%gamma_only_ispresent = gamma_only_ispresent
IF(obj%gamma_only_ispresent) THEN
obj%gamma_only = gamma_only
ENDIF
obj%ecutwfc = ecutwfc
obj%ecutrho_ispresent = ecutrho_ispresent
IF(obj%ecutrho_ispresent) THEN
obj%ecutrho = ecutrho
ENDIF
obj%fft_grid = fft_grid
obj%fft_smooth_ispresent = fft_smooth_ispresent
IF(obj%fft_smooth_ispresent) THEN
obj%fft_smooth = fft_smooth
ENDIF
obj%fft_box_ispresent = fft_box_ispresent
IF(obj%fft_box_ispresent) THEN
obj%fft_box = fft_box
ENDIF
obj%ngm = ngm
obj%ngms_ispresent = ngms_ispresent
IF(obj%ngms_ispresent) THEN
obj%ngms = ngms
ENDIF
obj%npwx = npwx
obj%reciprocal_lattice = reciprocal_lattice
END SUBROUTINE qes_init_basis_set
SUBROUTINE qes_reset_basis_set(obj)
IMPLICIT NONE
TYPE(basis_set_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%gamma_only_ispresent) THEN
obj%gamma_only_ispresent = .FALSE.
ENDIF
IF(obj%ecutrho_ispresent) THEN
obj%ecutrho_ispresent = .FALSE.
ENDIF
CALL qes_reset_basisSetItem(obj%fft_grid)
IF(obj%fft_smooth_ispresent) THEN
CALL qes_reset_basisSetItem(obj%fft_smooth)
obj%fft_smooth_ispresent = .FALSE.
ENDIF
IF(obj%fft_box_ispresent) THEN
CALL qes_reset_basisSetItem(obj%fft_box)
obj%fft_box_ispresent = .FALSE.
ENDIF
IF(obj%ngms_ispresent) THEN
obj%ngms_ispresent = .FALSE.
ENDIF
CALL qes_reset_reciprocal_lattice(obj%reciprocal_lattice)
END SUBROUTINE qes_reset_basis_set
SUBROUTINE qes_write_ion_control(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(ion_control_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'ion_dynamics' )
CALL xml_addCharacters(xp, TRIM(obj%ion_dynamics))
CALL xml_EndElement(xp, 'ion_dynamics')
IF(obj%upscale_ispresent) THEN
CALL xml_NewElement(xp, 'upscale')
CALL xml_addCharacters(xp, obj%upscale, fmt = 's16')
CALL xml_EndElement(xp, 'upscale')
ENDIF
!
IF(obj%remove_rigid_rot_ispresent) THEN
CALL xml_NewElement(xp, 'remove_rigid_rot' )
CALL xml_addCharacters(xp, obj%remove_rigid_rot)
CALL xml_EndElement(xp, 'remove_rigid_rot')
ENDIF
!
IF(obj%refold_pos_ispresent) THEN
CALL xml_NewElement(xp, 'refold_pos' )
CALL xml_addCharacters(xp, obj%refold_pos)
CALL xml_EndElement(xp, 'refold_pos')
ENDIF
!
IF(obj%bfgs_ispresent) THEN
CALL qes_write_bfgs(xp, obj%bfgs)
!
ENDIF
!
IF(obj%md_ispresent) THEN
CALL qes_write_md(xp, obj%md)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_ion_control
SUBROUTINE qes_init_ion_control(obj, tagname, ion_dynamics, upscale_ispresent, upscale, &
remove_rigid_rot_ispresent, remove_rigid_rot, &
refold_pos_ispresent, refold_pos, bfgs_ispresent, bfgs, &
md_ispresent, md)
IMPLICIT NONE
TYPE(ion_control_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: ion_dynamics
LOGICAL :: upscale_ispresent
REAL(DP) :: upscale
LOGICAL :: remove_rigid_rot_ispresent
LOGICAL :: remove_rigid_rot
LOGICAL :: refold_pos_ispresent
LOGICAL :: refold_pos
LOGICAL :: bfgs_ispresent
TYPE(bfgs_type) :: bfgs
LOGICAL :: md_ispresent
TYPE(md_type) :: md
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%ion_dynamics = ion_dynamics
obj%upscale_ispresent = upscale_ispresent
IF(obj%upscale_ispresent) THEN
obj%upscale = upscale
ENDIF
obj%remove_rigid_rot_ispresent = remove_rigid_rot_ispresent
IF(obj%remove_rigid_rot_ispresent) THEN
obj%remove_rigid_rot = remove_rigid_rot
ENDIF
obj%refold_pos_ispresent = refold_pos_ispresent
IF(obj%refold_pos_ispresent) THEN
obj%refold_pos = refold_pos
ENDIF
obj%bfgs_ispresent = bfgs_ispresent
IF(obj%bfgs_ispresent) THEN
obj%bfgs = bfgs
ENDIF
obj%md_ispresent = md_ispresent
IF(obj%md_ispresent) THEN
obj%md = md
ENDIF
END SUBROUTINE qes_init_ion_control
SUBROUTINE qes_reset_ion_control(obj)
IMPLICIT NONE
TYPE(ion_control_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
!
IF(obj%upscale_ispresent) THEN
obj%upscale_ispresent = .FALSE.
ENDIF
IF(obj%remove_rigid_rot_ispresent) THEN
obj%remove_rigid_rot_ispresent = .FALSE.
ENDIF
IF(obj%refold_pos_ispresent) THEN
obj%refold_pos_ispresent = .FALSE.
ENDIF
IF(obj%bfgs_ispresent) THEN
CALL qes_reset_bfgs(obj%bfgs)
obj%bfgs_ispresent = .FALSE.
ENDIF
IF(obj%md_ispresent) THEN
CALL qes_reset_md(obj%md)
obj%md_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_ion_control
SUBROUTINE qes_write_boundary_conditions(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(boundary_conditions_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'assume_isolated' )
CALL xml_addCharacters(xp, TRIM(obj%assume_isolated))
CALL xml_EndElement(xp, 'assume_isolated')
IF(obj%esm_ispresent) THEN
CALL qes_write_esm(xp, obj%esm)
!
ENDIF
!
IF(obj%fcp_opt_ispresent) THEN
CALL xml_NewElement(xp, 'fcp_opt' )
CALL xml_addCharacters(xp, obj%fcp_opt)
CALL xml_EndElement(xp, 'fcp_opt')
ENDIF
!
IF(obj%fcp_mu_ispresent) THEN
CALL xml_NewElement(xp, 'fcp_mu')
CALL xml_addCharacters(xp,obj%fcp_mu, fmt = 's16')
CALL xml_EndElement(xp, 'fcp_mu')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_boundary_conditions
SUBROUTINE qes_init_boundary_conditions(obj, tagname, assume_isolated, esm_ispresent, esm, &
fcp_opt_ispresent, fcp_opt, fcp_mu_ispresent, fcp_mu)
IMPLICIT NONE
TYPE(boundary_conditions_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: assume_isolated
LOGICAL :: esm_ispresent
TYPE(esm_type) :: esm
LOGICAL :: fcp_opt_ispresent
LOGICAL :: fcp_opt
LOGICAL :: fcp_mu_ispresent
REAL(DP) :: fcp_mu
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%assume_isolated = assume_isolated
obj%esm_ispresent = esm_ispresent
IF(obj%esm_ispresent) THEN
obj%esm = esm
ENDIF
obj%fcp_opt_ispresent = fcp_opt_ispresent
IF(obj%fcp_opt_ispresent) THEN
obj%fcp_opt = fcp_opt
ENDIF
obj%fcp_mu_ispresent = fcp_mu_ispresent
IF(obj%fcp_mu_ispresent) THEN
obj%fcp_mu = fcp_mu
ENDIF
END SUBROUTINE qes_init_boundary_conditions
SUBROUTINE qes_reset_boundary_conditions(obj)
IMPLICIT NONE
TYPE(boundary_conditions_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
IF(obj%esm_ispresent) THEN
CALL qes_reset_esm(obj%esm)
obj%esm_ispresent = .FALSE.
ENDIF
IF(obj%fcp_opt_ispresent) THEN
obj%fcp_opt_ispresent = .FALSE.
ENDIF
IF(obj%fcp_mu_ispresent) THEN
obj%fcp_mu_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_boundary_conditions
SUBROUTINE qes_write_atomic_constraints(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(atomic_constraints_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'num_of_constraints')
CALL xml_addCharacters(xp, obj%num_of_constraints)
CALL xml_EndElement(xp, 'num_of_constraints')
CALL xml_NewElement(xp, 'tolerance')
CALL xml_addCharacters(xp, obj%tolerance, fmt = 's16')
CALL xml_EndElement(xp, 'tolerance')
DO i = 1, obj%ndim_atomic_constraint
CALL qes_write_atomic_constraint(xp, obj%atomic_constraint(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_atomic_constraints
SUBROUTINE qes_init_atomic_constraints(obj, tagname, num_of_constraints, tolerance, &
ndim_atomic_constraint, atomic_constraint)
IMPLICIT NONE
TYPE(atomic_constraints_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: num_of_constraints
REAL(DP) :: tolerance
INTEGER :: ndim_atomic_constraint
TYPE(atomic_constraint_type ), DIMENSION( ndim_atomic_constraint ) :: atomic_constraint
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%num_of_constraints = num_of_constraints
obj%tolerance = tolerance
ALLOCATE(obj%atomic_constraint(SIZE(atomic_constraint)))
DO i = 1, SIZE(atomic_constraint)
obj%atomic_constraint(i) = atomic_constraint(i)
ENDDO
obj%ndim_atomic_constraint = ndim_atomic_constraint
END SUBROUTINE qes_init_atomic_constraints
SUBROUTINE qes_reset_atomic_constraints(obj)
IMPLICIT NONE
TYPE(atomic_constraints_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
DO i = 1, SIZE(obj%atomic_constraint)
CALL qes_reset_atomic_constraint(obj%atomic_constraint(i))
ENDDO
IF (ALLOCATED(obj%atomic_constraint)) DEALLOCATE(obj%atomic_constraint)
END SUBROUTINE qes_reset_atomic_constraints
SUBROUTINE qes_write_BerryPhaseOutput(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(BerryPhaseOutput_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_polarization(xp, obj%totalPolarization)
!
CALL qes_write_phase(xp, obj%totalPhase)
!
DO i = 1, obj%ndim_ionicPolarization
CALL qes_write_ionicPolarization(xp, obj%ionicPolarization(i))
!
END DO
DO i = 1, obj%ndim_electronicPolarization
CALL qes_write_electronicPolarization(xp, obj%electronicPolarization(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_BerryPhaseOutput
SUBROUTINE qes_init_BerryPhaseOutput(obj, tagname, totalPolarization, totalPhase, &
ndim_ionicPolarization, ionicPolarization, &
ndim_electronicPolarization, electronicPolarization)
IMPLICIT NONE
TYPE(BerryPhaseOutput_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(polarization_type) :: totalPolarization
TYPE(phase_type) :: totalPhase
INTEGER :: ndim_ionicPolarization
TYPE(ionicPolarization_type ), DIMENSION( ndim_ionicPolarization ) :: ionicPolarization
INTEGER :: ndim_electronicPolarization
TYPE(electronicPolarization_type ), DIMENSION( ndim_electronicPolarization ) :: electronicPolarization
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%totalPolarization = totalPolarization
obj%totalPhase = totalPhase
ALLOCATE(obj%ionicPolarization(SIZE(ionicPolarization)))
DO i = 1, SIZE(ionicPolarization)
obj%ionicPolarization(i) = ionicPolarization(i)
ENDDO
obj%ndim_ionicPolarization = ndim_ionicPolarization
ALLOCATE(obj%electronicPolarization(SIZE(electronicPolarization)))
DO i = 1, SIZE(electronicPolarization)
obj%electronicPolarization(i) = electronicPolarization(i)
ENDDO
obj%ndim_electronicPolarization = ndim_electronicPolarization
END SUBROUTINE qes_init_BerryPhaseOutput
SUBROUTINE qes_reset_BerryPhaseOutput(obj)
IMPLICIT NONE
TYPE(BerryPhaseOutput_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_polarization(obj%totalPolarization)
CALL qes_reset_phase(obj%totalPhase)
DO i = 1, SIZE(obj%ionicPolarization)
CALL qes_reset_ionicPolarization(obj%ionicPolarization(i))
ENDDO
IF (ALLOCATED(obj%ionicPolarization)) DEALLOCATE(obj%ionicPolarization)
DO i = 1, SIZE(obj%electronicPolarization)
CALL qes_reset_electronicPolarization(obj%electronicPolarization(i))
ENDDO
IF (ALLOCATED(obj%electronicPolarization)) DEALLOCATE(obj%electronicPolarization)
END SUBROUTINE qes_reset_BerryPhaseOutput
SUBROUTINE qes_write_convergence_info(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(convergence_info_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_scf_conv(xp, obj%scf_conv)
!
IF(obj%opt_conv_ispresent) THEN
CALL qes_write_opt_conv(xp, obj%opt_conv)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_convergence_info
SUBROUTINE qes_init_convergence_info(obj, tagname, scf_conv, opt_conv_ispresent, opt_conv)
IMPLICIT NONE
TYPE(convergence_info_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(scf_conv_type) :: scf_conv
LOGICAL :: opt_conv_ispresent
TYPE(opt_conv_type) :: opt_conv
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%scf_conv = scf_conv
obj%opt_conv_ispresent = opt_conv_ispresent
IF(obj%opt_conv_ispresent) THEN
obj%opt_conv = opt_conv
ENDIF
END SUBROUTINE qes_init_convergence_info
SUBROUTINE qes_reset_convergence_info(obj)
IMPLICIT NONE
TYPE(convergence_info_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_scf_conv(obj%scf_conv)
IF(obj%opt_conv_ispresent) THEN
CALL qes_reset_opt_conv(obj%opt_conv)
obj%opt_conv_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_convergence_info
SUBROUTINE qes_write_symmetries(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(symmetries_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'nsym' )
CALL xml_addCharacters(xp, obj%nsym)
CALL xml_EndElement(xp, 'nsym')
CALL xml_NewElement(xp, 'nrot' )
CALL xml_addCharacters(xp, obj%nrot)
CALL xml_EndElement(xp, 'nrot')
CALL xml_NewElement(xp, 'space_group' )
CALL xml_addCharacters(xp, obj%space_group)
CALL xml_EndElement(xp, 'space_group')
DO i = 1, obj%ndim_symmetry
CALL qes_write_symmetry(xp, obj%symmetry(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_symmetries
SUBROUTINE qes_init_symmetries(obj, tagname, nsym, nrot, space_group, ndim_symmetry, &
symmetry)
IMPLICIT NONE
TYPE(symmetries_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: nsym
INTEGER :: nrot
INTEGER :: space_group
INTEGER :: ndim_symmetry
TYPE(symmetry_type ), DIMENSION( ndim_symmetry ) :: symmetry
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%nsym = nsym
obj%nrot = nrot
obj%space_group = space_group
ALLOCATE(obj%symmetry(SIZE(symmetry)))
DO i = 1, SIZE(symmetry)
obj%symmetry(i) = symmetry(i)
ENDDO
obj%ndim_symmetry = ndim_symmetry
END SUBROUTINE qes_init_symmetries
SUBROUTINE qes_reset_symmetries(obj)
IMPLICIT NONE
TYPE(symmetries_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
DO i = 1, SIZE(obj%symmetry)
CALL qes_reset_symmetry(obj%symmetry(i))
ENDDO
IF (ALLOCATED(obj%symmetry)) DEALLOCATE(obj%symmetry)
END SUBROUTINE qes_reset_symmetries
SUBROUTINE qes_write_band_structure(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(band_structure_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'lsda' )
CALL xml_addCharacters(xp, obj%lsda)
CALL xml_EndElement(xp, 'lsda')
CALL xml_NewElement(xp, 'noncolin' )
CALL xml_addCharacters(xp, obj%noncolin)
CALL xml_EndElement(xp, 'noncolin')
CALL xml_NewElement(xp, 'spinorbit' )
CALL xml_addCharacters(xp, obj%spinorbit)
CALL xml_EndElement(xp, 'spinorbit')
CALL xml_NewElement(xp, 'nbnd')
CALL xml_addCharacters(xp, obj%nbnd)
CALL xml_EndElement(xp, 'nbnd')
IF(obj%nbnd_up_ispresent) THEN
CALL xml_NewElement(xp, 'nbnd_up')
CALL xml_addCharacters(xp, obj%nbnd_up)
CALL xml_EndElement(xp, 'nbnd_up')
ENDIF
!
IF(obj%nbnd_dw_ispresent) THEN
CALL xml_NewElement(xp, 'nbnd_dw')
CALL xml_addCharacters(xp, obj%nbnd_dw)
CALL xml_EndElement(xp, 'nbnd_dw')
ENDIF
!
CALL xml_NewElement(xp, 'nelec')
CALL xml_addCharacters(xp, obj%nelec, fmt = 's16')
CALL xml_EndElement(xp, 'nelec')
IF(obj%num_of_atomic_wfc_ispresent) THEN
CALL xml_NewElement(xp, 'num_of_atomic_wfc')
CALL xml_addCharacters(xp, obj%num_of_atomic_wfc)
CALL xml_EndElement(xp, 'num_of_atomic_wfc')
ENDIF
!
CALL xml_NewElement(xp, 'wf_collected' )
CALL xml_addCharacters(xp, obj%wf_collected)
CALL xml_EndElement(xp, 'wf_collected')
IF(obj%fermi_energy_ispresent) THEN
CALL xml_NewElement(xp, 'fermi_energy')
CALL xml_addCharacters(xp, obj%fermi_energy, fmt = 's16')
CALL xml_EndElement(xp, 'fermi_energy')
ENDIF
!
IF(obj%highestOccupiedLevel_ispresent) THEN
CALL xml_NewElement(xp, 'highestOccupiedLevel')
CALL xml_addCharacters(xp, obj%highestOccupiedLevel, fmt = 's16')
CALL xml_EndElement(xp, 'highestOccupiedLevel')
ENDIF
!
IF(obj%two_fermi_energies_ispresent) THEN
CALL xml_NewElement(xp,'two_fermi_energies')
CALL xml_addCharacters(xp, obj%two_fermi_energies, fmt = 's16')
CALL xml_EndElement(xp,'two_fermi_energies')
!
ENDIF
!
CALL qes_write_k_points_IBZ(xp, obj%starting_k_points)
!
CALL xml_NewElement(xp, 'nks')
CALL xml_addCharacters(xp, obj%nks)
CALL xml_EndElement(xp, 'nks')
CALL qes_write_occupations(xp, obj%occupations_kind)
!
IF(obj%smearing_ispresent) THEN
CALL qes_write_smearing(xp, obj%smearing)
!
ENDIF
!
DO i = 1, obj%ndim_ks_energies
CALL qes_write_ks_energies(xp, obj%ks_energies(i))
!
END DO
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_band_structure
SUBROUTINE qes_init_band_structure(obj, tagname, lsda, noncolin, spinorbit, nbnd, &
nbnd_up_ispresent, nbnd_up, nbnd_dw_ispresent, nbnd_dw, &
nelec, num_of_atomic_wfc_ispresent, num_of_atomic_wfc, &
wf_collected, fermi_energy_ispresent, fermi_energy, &
highestOccupiedLevel_ispresent, highestOccupiedLevel, &
two_fermi_energies_ispresent, two_fermi_energies, &
starting_k_points, nks, occupations_kind, smearing_ispresent, &
smearing, ndim_ks_energies, ks_energies)
IMPLICIT NONE
TYPE(band_structure_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: lsda
LOGICAL :: noncolin
LOGICAL :: spinorbit
INTEGER :: nbnd
LOGICAL :: nbnd_up_ispresent
INTEGER :: nbnd_up
LOGICAL :: nbnd_dw_ispresent
INTEGER :: nbnd_dw
REAL(DP) :: nelec
LOGICAL :: num_of_atomic_wfc_ispresent
INTEGER :: num_of_atomic_wfc
LOGICAL :: wf_collected
LOGICAL :: fermi_energy_ispresent
REAL(DP) :: fermi_energy
LOGICAL :: highestOccupiedLevel_ispresent
REAL(DP) :: highestOccupiedLevel
LOGICAL :: two_fermi_energies_ispresent
INTEGER :: ndim_two_fermi_energies
REAL(DP), DIMENSION(2) :: two_fermi_energies
TYPE(k_points_IBZ_type) :: starting_k_points
INTEGER :: nks
TYPE(occupations_type) :: occupations_kind
LOGICAL :: smearing_ispresent
TYPE(smearing_type) :: smearing
INTEGER :: ndim_ks_energies
TYPE(ks_energies_type ), DIMENSION( ndim_ks_energies ) :: ks_energies
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%lsda = lsda
obj%noncolin = noncolin
obj%spinorbit = spinorbit
obj%nbnd = nbnd
obj%nbnd_up_ispresent = nbnd_up_ispresent
IF(obj%nbnd_up_ispresent) THEN
obj%nbnd_up = nbnd_up
ENDIF
obj%nbnd_dw_ispresent = nbnd_dw_ispresent
IF(obj%nbnd_dw_ispresent) THEN
obj%nbnd_dw = nbnd_dw
ENDIF
obj%nelec = nelec
obj%num_of_atomic_wfc_ispresent = num_of_atomic_wfc_ispresent
IF(obj%num_of_atomic_wfc_ispresent) THEN
obj%num_of_atomic_wfc = num_of_atomic_wfc
ENDIF
obj%wf_collected = wf_collected
obj%fermi_energy_ispresent = fermi_energy_ispresent
IF(obj%fermi_energy_ispresent) THEN
obj%fermi_energy = fermi_energy
ENDIF
obj%highestOccupiedLevel_ispresent = highestOccupiedLevel_ispresent
IF(obj%highestOccupiedLevel_ispresent) THEN
obj%highestOccupiedLevel = highestOccupiedLevel
ENDIF
obj%two_fermi_energies_ispresent = two_fermi_energies_ispresent
IF(obj%two_fermi_energies_ispresent) THEN
obj%two_fermi_energies(:) = two_fermi_energies(:)
ENDIF
obj%starting_k_points = starting_k_points
obj%nks = nks
obj%occupations_kind = occupations_kind
obj%smearing_ispresent = smearing_ispresent
IF(obj%smearing_ispresent) THEN
obj%smearing = smearing
ENDIF
ALLOCATE(obj%ks_energies(SIZE(ks_energies)))
DO i = 1, SIZE(ks_energies)
obj%ks_energies(i) = ks_energies(i)
ENDDO
obj%ndim_ks_energies = ndim_ks_energies
END SUBROUTINE qes_init_band_structure
SUBROUTINE qes_reset_band_structure(obj)
IMPLICIT NONE
TYPE(band_structure_type) :: obj
INTEGER :: i
obj%tagname = ""
IF(obj%nbnd_up_ispresent) THEN
obj%nbnd_up_ispresent = .FALSE.
ENDIF
IF(obj%nbnd_dw_ispresent) THEN
obj%nbnd_dw_ispresent = .FALSE.
ENDIF
IF(obj%num_of_atomic_wfc_ispresent) THEN
obj%num_of_atomic_wfc_ispresent = .FALSE.
ENDIF
IF(obj%fermi_energy_ispresent) THEN
obj%fermi_energy_ispresent = .FALSE.
ENDIF
IF(obj%highestOccupiedLevel_ispresent) THEN
obj%highestOccupiedLevel_ispresent = .FALSE.
ENDIF
IF(obj%two_fermi_energies_ispresent) THEN
obj%two_fermi_energies_ispresent = .FALSE.
ENDIF
CALL qes_reset_k_points_IBZ(obj%starting_k_points)
CALL qes_reset_occupations(obj%occupations_kind)
IF(obj%smearing_ispresent) THEN
CALL qes_reset_smearing(obj%smearing)
obj%smearing_ispresent = .FALSE.
ENDIF
DO i = 1, SIZE(obj%ks_energies)
CALL qes_reset_ks_energies(obj%ks_energies(i))
ENDDO
IF (ALLOCATED(obj%ks_energies)) DEALLOCATE(obj%ks_energies)
END SUBROUTINE qes_reset_band_structure
SUBROUTINE qes_write_input(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(input_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_control_variables(xp, obj%control_variables)
!
CALL qes_write_atomic_species(xp, obj%atomic_species)
!
CALL qes_write_atomic_structure(xp, obj%atomic_structure)
!
CALL qes_write_dft(xp, obj%dft)
!
CALL qes_write_spin(xp, obj%spin)
!
CALL qes_write_bands(xp, obj%bands)
!
CALL qes_write_basis(xp, obj%basis)
!
CALL qes_write_electron_control(xp, obj%electron_control)
!
CALL qes_write_k_points_IBZ(xp, obj%k_points_IBZ)
!
CALL qes_write_ion_control(xp, obj%ion_control)
!
CALL qes_write_cell_control(xp, obj%cell_control)
!
IF(obj%symmetry_flags_ispresent) THEN
CALL qes_write_symmetry_flags(xp, obj%symmetry_flags)
!
ENDIF
!
IF(obj%boundary_conditions_ispresent) THEN
CALL qes_write_boundary_conditions(xp, obj%boundary_conditions)
!
ENDIF
!
IF(obj%ekin_functional_ispresent) THEN
CALL qes_write_ekin_functional(xp, obj%ekin_functional)
!
ENDIF
!
IF(obj%external_atomic_forces_ispresent) THEN
CALL qes_write_matrix(xp, obj%external_atomic_forces)
!
ENDIF
!
IF(obj%free_positions_ispresent) THEN
CALL qes_write_integerMatrix(xp, obj%free_positions)
!
ENDIF
!
IF(obj%starting_atomic_velocities_ispresent) THEN
CALL qes_write_matrix(xp, obj%starting_atomic_velocities)
!
ENDIF
!
IF(obj%electric_field_ispresent) THEN
CALL qes_write_electric_field(xp, obj%electric_field)
!
ENDIF
!
IF(obj%atomic_constraints_ispresent) THEN
CALL qes_write_atomic_constraints(xp, obj%atomic_constraints)
!
ENDIF
!
IF(obj%spin_constraints_ispresent) THEN
CALL qes_write_spin_constraints(xp, obj%spin_constraints)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_input
SUBROUTINE qes_init_input(obj, tagname, control_variables, atomic_species, &
atomic_structure, dft, spin, bands, basis, electron_control, &
k_points_IBZ, ion_control, cell_control, &
symmetry_flags_ispresent, symmetry_flags, &
boundary_conditions_ispresent, boundary_conditions, &
ekin_functional_ispresent, ekin_functional, &
external_atomic_forces_ispresent, external_atomic_forces, &
free_positions_ispresent, free_positions, &
starting_atomic_velocities_ispresent, &
starting_atomic_velocities, electric_field_ispresent, &
electric_field, atomic_constraints_ispresent, &
atomic_constraints, spin_constraints_ispresent, &
spin_constraints)
IMPLICIT NONE
TYPE(input_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(control_variables_type) :: control_variables
TYPE(atomic_species_type) :: atomic_species
TYPE(atomic_structure_type) :: atomic_structure
TYPE(dft_type) :: dft
TYPE(spin_type) :: spin
TYPE(bands_type) :: bands
TYPE(basis_type) :: basis
TYPE(electron_control_type) :: electron_control
TYPE(k_points_IBZ_type) :: k_points_IBZ
TYPE(ion_control_type) :: ion_control
TYPE(cell_control_type) :: cell_control
LOGICAL :: symmetry_flags_ispresent
TYPE(symmetry_flags_type) :: symmetry_flags
LOGICAL :: boundary_conditions_ispresent
TYPE(boundary_conditions_type) :: boundary_conditions
LOGICAL :: ekin_functional_ispresent
TYPE(ekin_functional_type) :: ekin_functional
LOGICAL :: external_atomic_forces_ispresent
TYPE(matrix_type) :: external_atomic_forces
LOGICAL :: free_positions_ispresent
TYPE(integerMatrix_type) :: free_positions
LOGICAL :: starting_atomic_velocities_ispresent
TYPE(matrix_type) :: starting_atomic_velocities
LOGICAL :: electric_field_ispresent
TYPE(electric_field_type) :: electric_field
LOGICAL :: atomic_constraints_ispresent
TYPE(atomic_constraints_type) :: atomic_constraints
LOGICAL :: spin_constraints_ispresent
TYPE(spin_constraints_type) :: spin_constraints
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%control_variables = control_variables
obj%atomic_species = atomic_species
obj%atomic_structure = atomic_structure
obj%dft = dft
obj%spin = spin
obj%bands = bands
obj%basis = basis
obj%electron_control = electron_control
obj%k_points_IBZ = k_points_IBZ
obj%ion_control = ion_control
obj%cell_control = cell_control
obj%symmetry_flags_ispresent = symmetry_flags_ispresent
IF(obj%symmetry_flags_ispresent) THEN
obj%symmetry_flags = symmetry_flags
ENDIF
obj%boundary_conditions_ispresent = boundary_conditions_ispresent
IF(obj%boundary_conditions_ispresent) THEN
obj%boundary_conditions = boundary_conditions
ENDIF
obj%ekin_functional_ispresent = ekin_functional_ispresent
IF(obj%ekin_functional_ispresent) THEN
obj%ekin_functional = ekin_functional
ENDIF
obj%external_atomic_forces_ispresent = external_atomic_forces_ispresent
IF(obj%external_atomic_forces_ispresent) THEN
obj%external_atomic_forces = external_atomic_forces
ENDIF
obj%free_positions_ispresent = free_positions_ispresent
IF(obj%free_positions_ispresent) THEN
obj%free_positions = free_positions
ENDIF
obj%starting_atomic_velocities_ispresent = starting_atomic_velocities_ispresent
IF(obj%starting_atomic_velocities_ispresent) THEN
obj%starting_atomic_velocities = starting_atomic_velocities
ENDIF
obj%electric_field_ispresent = electric_field_ispresent
IF(obj%electric_field_ispresent) THEN
obj%electric_field = electric_field
ENDIF
obj%atomic_constraints_ispresent = atomic_constraints_ispresent
IF(obj%atomic_constraints_ispresent) THEN
obj%atomic_constraints = atomic_constraints
ENDIF
obj%spin_constraints_ispresent = spin_constraints_ispresent
IF(obj%spin_constraints_ispresent) THEN
obj%spin_constraints = spin_constraints
ENDIF
END SUBROUTINE qes_init_input
SUBROUTINE qes_reset_input(obj)
IMPLICIT NONE
TYPE(input_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_control_variables(obj%control_variables)
CALL qes_reset_atomic_species(obj%atomic_species)
CALL qes_reset_atomic_structure(obj%atomic_structure)
CALL qes_reset_dft(obj%dft)
CALL qes_reset_spin(obj%spin)
CALL qes_reset_bands(obj%bands)
CALL qes_reset_basis(obj%basis)
CALL qes_reset_electron_control(obj%electron_control)
CALL qes_reset_k_points_IBZ(obj%k_points_IBZ)
CALL qes_reset_ion_control(obj%ion_control)
CALL qes_reset_cell_control(obj%cell_control)
IF(obj%symmetry_flags_ispresent) THEN
CALL qes_reset_symmetry_flags(obj%symmetry_flags)
obj%symmetry_flags_ispresent = .FALSE.
ENDIF
IF(obj%boundary_conditions_ispresent) THEN
CALL qes_reset_boundary_conditions(obj%boundary_conditions)
obj%boundary_conditions_ispresent = .FALSE.
ENDIF
IF(obj%ekin_functional_ispresent) THEN
CALL qes_reset_ekin_functional(obj%ekin_functional)
obj%ekin_functional_ispresent = .FALSE.
ENDIF
IF(obj%external_atomic_forces_ispresent) THEN
CALL qes_reset_matrix(obj%external_atomic_forces)
obj%external_atomic_forces_ispresent = .FALSE.
ENDIF
IF(obj%free_positions_ispresent) THEN
CALL qes_reset_integerMatrix(obj%free_positions)
obj%free_positions_ispresent = .FALSE.
ENDIF
IF(obj%starting_atomic_velocities_ispresent) THEN
CALL qes_reset_matrix(obj%starting_atomic_velocities)
obj%starting_atomic_velocities_ispresent = .FALSE.
ENDIF
IF(obj%electric_field_ispresent) THEN
CALL qes_reset_electric_field(obj%electric_field)
obj%electric_field_ispresent = .FALSE.
ENDIF
IF(obj%atomic_constraints_ispresent) THEN
CALL qes_reset_atomic_constraints(obj%atomic_constraints)
obj%atomic_constraints_ispresent = .FALSE.
ENDIF
IF(obj%spin_constraints_ispresent) THEN
CALL qes_reset_spin_constraints(obj%spin_constraints)
obj%spin_constraints_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_input
SUBROUTINE qes_write_step(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(step_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
CALL xml_addAttribute( xp, 'n_step', obj%n_step)
!
CALL qes_write_scf_conv(xp, obj%scf_conv)
!
CALL qes_write_atomic_structure(xp, obj%atomic_structure)
!
CALL qes_write_total_energy(xp, obj%total_energy)
!
CALL qes_write_matrix(xp, obj%forces)
!
IF(obj%stress_ispresent) THEN
CALL qes_write_matrix(xp, obj%stress)
!
ENDIF
!
IF(obj%FCP_force_ispresent) THEN
CALL xml_NewElement(xp, 'FCP_force')
CALL xml_addCharacters(xp, obj%FCP_force, fmt = 's16')
CALL xml_EndElement(xp, 'FCP_force')
ENDIF
!
IF(obj%FCP_tot_charge_ispresent) THEN
CALL xml_NewElement(xp, 'FCP_tot_charge')
CALL xml_addCharacters(xp, obj%FCP_tot_charge, fmt = 's16')
CALL xml_EndElement(xp, 'FCP_tot_charge')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_step
SUBROUTINE qes_init_step(obj, tagname, n_step, scf_conv, atomic_structure, total_energy, &
forces, stress_ispresent, stress, FCP_force_ispresent, &
FCP_force, FCP_tot_charge_ispresent, FCP_tot_charge)
IMPLICIT NONE
TYPE(step_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
INTEGER :: n_step
TYPE(scf_conv_type) :: scf_conv
TYPE(atomic_structure_type) :: atomic_structure
TYPE(total_energy_type) :: total_energy
TYPE(matrix_type) :: forces
LOGICAL :: stress_ispresent
TYPE(matrix_type) :: stress
LOGICAL :: FCP_force_ispresent
REAL(DP) :: FCP_force
LOGICAL :: FCP_tot_charge_ispresent
REAL(DP) :: FCP_tot_charge
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%n_step = n_step
obj%scf_conv = scf_conv
obj%atomic_structure = atomic_structure
obj%total_energy = total_energy
obj%forces = forces
obj%stress_ispresent = stress_ispresent
IF(obj%stress_ispresent) THEN
obj%stress = stress
ENDIF
obj%FCP_force_ispresent = FCP_force_ispresent
IF(obj%FCP_force_ispresent) THEN
obj%FCP_force = FCP_force
ENDIF
obj%FCP_tot_charge_ispresent = FCP_tot_charge_ispresent
IF(obj%FCP_tot_charge_ispresent) THEN
obj%FCP_tot_charge = FCP_tot_charge
ENDIF
END SUBROUTINE qes_init_step
SUBROUTINE qes_reset_step(obj)
IMPLICIT NONE
TYPE(step_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_scf_conv(obj%scf_conv)
CALL qes_reset_atomic_structure(obj%atomic_structure)
CALL qes_reset_total_energy(obj%total_energy)
CALL qes_reset_matrix(obj%forces)
IF(obj%stress_ispresent) THEN
CALL qes_reset_matrix(obj%stress)
obj%stress_ispresent = .FALSE.
ENDIF
IF(obj%FCP_force_ispresent) THEN
obj%FCP_force_ispresent = .FALSE.
ENDIF
IF(obj%FCP_tot_charge_ispresent) THEN
obj%FCP_tot_charge_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_step
SUBROUTINE qes_write_outputElectricField(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(outputElectricField_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
IF(obj%BerryPhase_ispresent) THEN
CALL qes_write_BerryPhaseOutput(xp, obj%BerryPhase)
!
ENDIF
!
IF(obj%finiteElectricFieldInfo_ispresent) THEN
CALL qes_write_finiteFieldOut(xp, obj%finiteElectricFieldInfo)
!
ENDIF
!
IF(obj%dipoleInfo_ispresent) THEN
CALL qes_write_dipoleOutput(xp, obj%dipoleInfo)
!
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_outputElectricField
SUBROUTINE qes_init_outputElectricField(obj, tagname, BerryPhase_ispresent, BerryPhase, &
finiteElectricFieldInfo_ispresent, finiteElectricFieldInfo, &
dipoleInfo_ispresent, dipoleInfo)
IMPLICIT NONE
TYPE(outputElectricField_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
LOGICAL :: BerryPhase_ispresent
TYPE(BerryPhaseOutput_type) :: BerryPhase
LOGICAL :: finiteElectricFieldInfo_ispresent
TYPE(finiteFieldOut_type) :: finiteElectricFieldInfo
LOGICAL :: dipoleInfo_ispresent
TYPE(dipoleOutput_type) :: dipoleInfo
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%BerryPhase_ispresent = BerryPhase_ispresent
IF(obj%BerryPhase_ispresent) THEN
obj%BerryPhase = BerryPhase
ENDIF
obj%finiteElectricFieldInfo_ispresent = finiteElectricFieldInfo_ispresent
IF(obj%finiteElectricFieldInfo_ispresent) THEN
obj%finiteElectricFieldInfo = finiteElectricFieldInfo
ENDIF
obj%dipoleInfo_ispresent = dipoleInfo_ispresent
IF(obj%dipoleInfo_ispresent) THEN
obj%dipoleInfo = dipoleInfo
ENDIF
END SUBROUTINE qes_init_outputElectricField
SUBROUTINE qes_reset_outputElectricField(obj)
IMPLICIT NONE
TYPE(outputElectricField_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
IF(obj%BerryPhase_ispresent) THEN
CALL qes_reset_BerryPhaseOutput(obj%BerryPhase)
obj%BerryPhase_ispresent = .FALSE.
ENDIF
IF(obj%finiteElectricFieldInfo_ispresent) THEN
CALL qes_reset_finiteFieldOut(obj%finiteElectricFieldInfo)
obj%finiteElectricFieldInfo_ispresent = .FALSE.
ENDIF
IF(obj%dipoleInfo_ispresent) THEN
CALL qes_reset_dipoleOutput(obj%dipoleInfo)
obj%dipoleInfo_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_outputElectricField
SUBROUTINE qes_write_outputPBC(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(outputPBC_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL xml_NewElement(xp, 'assume_isolated' )
CALL xml_addCharacters(xp, TRIM(obj%assume_isolated))
CALL xml_EndElement(xp, 'assume_isolated')
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_outputPBC
SUBROUTINE qes_init_outputPBC(obj, tagname, assume_isolated)
IMPLICIT NONE
TYPE(outputPBC_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
CHARACTER(len=*) :: assume_isolated
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%assume_isolated = assume_isolated
END SUBROUTINE qes_init_outputPBC
SUBROUTINE qes_reset_outputPBC(obj)
IMPLICIT NONE
TYPE(outputPBC_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite =.FALSE.
END SUBROUTINE qes_reset_outputPBC
SUBROUTINE qes_write_output(xp, obj)
IMPLICIT NONE
TYPE(xmlf_t) :: xp
TYPE(output_type) :: obj
!
INTEGER :: i
IF (.NOT. obj%lwrite) RETURN
!
CALL xml_NewElement(xp, TRIM(obj%tagname))
!
CALL qes_write_convergence_info(xp, obj%convergence_info)
!
CALL qes_write_algorithmic_info(xp, obj%algorithmic_info)
!
CALL qes_write_atomic_species(xp, obj%atomic_species)
!
CALL qes_write_atomic_structure(xp, obj%atomic_structure)
!
IF(obj%symmetries_ispresent) THEN
CALL qes_write_symmetries(xp, obj%symmetries)
!
ENDIF
!
CALL qes_write_basis_set(xp, obj%basis_set)
!
CALL qes_write_dft(xp, obj%dft)
!Tsoh
IF(obj%boundary_conditions_ispresent) THEN
CALL qes_write_outputPBC(xp,obj%boundary_conditions)
ENDIF
!
CALL qes_write_magnetization(xp, obj%magnetization)
!
CALL qes_write_total_energy(xp, obj%total_energy)
!
CALL qes_write_band_structure(xp, obj%band_structure)
!
IF(obj%forces_ispresent) THEN
CALL qes_write_matrix(xp, obj%forces)
!
ENDIF
!
IF(obj%stress_ispresent) THEN
CALL qes_write_matrix(xp, obj%stress)
!
ENDIF
!
IF(obj%electric_field_ispresent) THEN
CALL qes_write_outputElectricField(xp, obj%electric_field)
!
ENDIF
!
IF(obj%FCP_force_ispresent) THEN
CALL xml_NewElement(xp, 'FCP_force')
CALL xml_addCharacters(xp, obj%FCP_force, fmt = 's16')
CALL xml_EndElement(xp, 'FCP_force')
ENDIF
!
IF(obj%FCP_tot_charge_ispresent) THEN
CALL xml_NewElement(xp, 'FCP_tot_charge')
CALL xml_addCharacters(xp, obj%FCP_tot_charge, fmt = 's16')
CALL xml_EndElement(xp, 'FCP_tot_charge')
ENDIF
!
CALL xml_EndElement(xp, TRIM(obj%tagname))
!
END SUBROUTINE qes_write_output
SUBROUTINE qes_init_output(obj, tagname, convergence_info, algorithmic_info, &
atomic_species, atomic_structure, symmetries_ispresent, &
symmetries, basis_set, dft, magnetization, total_energy, &
band_structure, forces_ispresent, forces, stress_ispresent, &
stress, electric_field_ispresent, electric_field, &
FCP_force_ispresent, FCP_force, FCP_tot_charge_ispresent, &
FCP_tot_charge,boundary_conditions_ispresent, boundary_conditions)
IMPLICIT NONE
TYPE(output_type) :: obj
CHARACTER(len=*) :: tagname
INTEGER :: i
TYPE(convergence_info_type) :: convergence_info
TYPE(algorithmic_info_type) :: algorithmic_info
TYPE(atomic_species_type) :: atomic_species
TYPE(atomic_structure_type) :: atomic_structure
LOGICAL :: symmetries_ispresent
TYPE(symmetries_type) :: symmetries
TYPE(basis_set_type) :: basis_set
TYPE(dft_type) :: dft
LOGICAL :: boundary_conditions_ispresent
TYPE(outputPBC_type) :: boundary_conditions
TYPE(magnetization_type) :: magnetization
TYPE(total_energy_type) :: total_energy
TYPE(band_structure_type) :: band_structure
LOGICAL :: forces_ispresent
TYPE(matrix_type) :: forces
LOGICAL :: stress_ispresent
TYPE(matrix_type) :: stress
LOGICAL :: electric_field_ispresent
TYPE(outputElectricField_type) :: electric_field
LOGICAL :: FCP_force_ispresent
REAL(DP) :: FCP_force
LOGICAL :: FCP_tot_charge_ispresent
REAL(DP) :: FCP_tot_charge
obj%tagname = TRIM(tagname)
obj%lwrite = .TRUE.
obj%lread = .TRUE.
obj%convergence_info = convergence_info
obj%algorithmic_info = algorithmic_info
obj%atomic_species = atomic_species
obj%atomic_structure = atomic_structure
obj%symmetries_ispresent = symmetries_ispresent
IF(obj%symmetries_ispresent) THEN
obj%symmetries = symmetries
ENDIF
obj%basis_set = basis_set
obj%dft = dft
IF(obj%boundary_conditions_ispresent) THEN
obj%boundary_conditions=boundary_conditions
ENDIF
obj%magnetization = magnetization
obj%total_energy = total_energy
obj%band_structure = band_structure
obj%forces_ispresent = forces_ispresent
IF(obj%forces_ispresent) THEN
obj%forces = forces
ENDIF
obj%stress_ispresent = stress_ispresent
IF(obj%stress_ispresent) THEN
obj%stress = stress
ENDIF
obj%electric_field_ispresent = electric_field_ispresent
IF(obj%electric_field_ispresent) THEN
obj%electric_field = electric_field
ENDIF
obj%FCP_force_ispresent = FCP_force_ispresent
IF(obj%FCP_force_ispresent) THEN
obj%FCP_force = FCP_force
ENDIF
obj%FCP_tot_charge_ispresent = FCP_tot_charge_ispresent
IF(obj%FCP_tot_charge_ispresent) THEN
obj%FCP_tot_charge = FCP_tot_charge
ENDIF
END SUBROUTINE qes_init_output
SUBROUTINE qes_reset_output(obj)
IMPLICIT NONE
TYPE(output_type) :: obj
INTEGER :: i
obj%tagname = ""
obj%lwrite = .FALSE.
CALL qes_reset_convergence_info(obj%convergence_info)
CALL qes_reset_algorithmic_info(obj%algorithmic_info)
CALL qes_reset_atomic_species(obj%atomic_species)
CALL qes_reset_atomic_structure(obj%atomic_structure)
IF(obj%symmetries_ispresent) THEN
CALL qes_reset_symmetries(obj%symmetries)
obj%symmetries_ispresent = .FALSE.
ENDIF
CALL qes_reset_basis_set(obj%basis_set)
CALL qes_reset_dft(obj%dft)
CALL qes_reset_magnetization(obj%magnetization)
CALL qes_reset_total_energy(obj%total_energy)
CALL qes_reset_band_structure(obj%band_structure)
IF(obj%forces_ispresent) THEN
CALL qes_reset_matrix(obj%forces)
obj%forces_ispresent = .FALSE.
ENDIF
IF(obj%stress_ispresent) THEN
CALL qes_reset_matrix(obj%stress)
obj%stress_ispresent = .FALSE.
ENDIF
IF(obj%boundary_conditions_ispresent) THEN
CALL qes_reset_outputPBC(obj%boundary_conditions)
obj%boundary_conditions_ispresent=.FALSE.
ENDIF
IF(obj%electric_field_ispresent) THEN
CALL qes_reset_outputElectricField(obj%electric_field)
obj%electric_field_ispresent = .FALSE.
ENDIF
IF(obj%FCP_force_ispresent) THEN
obj%FCP_force_ispresent = .FALSE.
ENDIF
IF(obj%FCP_tot_charge_ispresent) THEN
obj%FCP_tot_charge_ispresent = .FALSE.
ENDIF
END SUBROUTINE qes_reset_output
END MODULE qes_libs_module
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