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cosolver/FM/FMquad/TestFMquadInt.f95
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TestFMquadInt.f95
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! This is a test program for module FM_QUAD_INT, which contains the interface routines allowing
! quadruple-length integer variables in the user's program to be used in assignments, arithmetic,
! and comparisons involving type (fm), (im), and (zm) variables. The same operations are
! provided as those in the basic module FMZM for single or double precision variables.
! All of the routines in module FM_QUAD_INT are tested, and if all tests are completed
! successfully, this line is printed:
! 280 cases tested. No errors were found.
MODULE TEST_VARS
USE FMVALS
USE FMZM
USE FM_QUAD_INT
TYPE (FM), SAVE :: M_A, MFM1, MFM2, MFM3, MFM4, MFM6, &
MFMV1(3), MFMV2(3), &
MFMA(3,3), MFMB(3,3)
TYPE (IM), SAVE :: M_J, MIM1, MIM2, MIM3, MIM4, MIM5
TYPE (IM), SAVE, DIMENSION(3) :: MIMV1, MIMV2
TYPE (IM), SAVE, DIMENSION(3,3) :: MIMA2, MIMB2
TYPE (ZM), SAVE :: M_Z, MZM1, MZM2, MZM3, MZM4, MZM5, &
MZMV1(3), MZMV2(3), &
MZMA2(3,3), MZMB2(3,3)
INTEGER (QUAD_INT), SAVE :: QI1, QI2, QI3, QI4, QI5, QIV(3), QIV2(3,3)
REAL, SAVE :: RV(3), RV2(3,3)
DOUBLE PRECISION, SAVE :: DV(3), DV2(3,3)
COMPLEX, SAVE :: CV(3), CV2(3,3)
COMPLEX (KIND(0.0D0)), SAVE :: CDV(3), CDV2(3,3)
INTEGER, SAVE :: J, K, KLOG, KWSAVE, NCASE, NERROR
REAL, SAVE :: TIME1, TIME2
END MODULE TEST_VARS
MODULE TEST_A
USE TEST_VARS
CONTAINS
SUBROUTINE TEST1
! Test the = assignment interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type = interface.')")
NCASE = 1
QI4 = MFM1
IF (QI4 /= 581) CALL PRTERR(KW)
NCASE = 2
QI4 = MIM1
IF (QI4 /= 661) CALL PRTERR(KW)
NCASE = 3
QI4 = MZM1
IF (QI4 /= 731) CALL PRTERR(KW)
NCASE = 4
MFM3 = QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_SUB(MFM3,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
CALL FM_ABS(MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMPARE(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 5
MFM3 = QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_SUB(MFM3,MFM4,MFM6)
CALL FM_EQU(MFM6,MFM4,NDIG,NDIG)
CALL FM_ABS(MFM4,MFM6)
CALL FM_EQU(MFM6,MFM4,NDIG,NDIG)
CALL FM_ST2M('0',MFM3)
IF (FM_COMPARE(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 6
MFM3 = QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_SUB_R2(MFM3,MFM4)
CALL FM_ABS(MFM4,MFM6)
CALL FM_EQU(MFM6,MFM4,NDIG,NDIG)
CALL FM_ST2M('0',MFM3)
IF (FM_COMPARE(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 7
MFM3 = QI2
MFM4 = TO_QUAD_INT(MFM3)
CALL FM_SUB_R2(MFM3,MFM4)
CALL FM_ABS(MFM4,MFM6)
CALL FM_EQU(MFM6,MFM4,NDIG,NDIG)
CALL FM_ST2M('0',MFM3)
IF (FM_COMPARE(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 8
MFM3 = QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_EQU(MFM3,MFM6,NDIG,NDIG)
CALL FM_SUB_R1(MFM6,MFM4)
CALL FM_EQU(MFM6,MFM4,NDIG,NDIG)
CALL FM_ABS(MFM4,MFM6)
CALL FM_EQU_R1(MFM6,NDIG,NDIG)
CALL FM_EQ(MFM6,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMPARE(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 9
MIM3 = QI2
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_SUB(MIM3,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
CALL IM_ST2M('0',MIM3)
IF (IM_COMPARE(MIM4,'GT',MIM3)) CALL PRTERR(KW)
NCASE = 10
MIM3 = TO_IM(QI2)
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_SUB(MIM3,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
CALL IM_ST2M('0',MIM3)
IF (IM_COMPARE(MIM4,'GT',MIM3)) CALL PRTERR(KW)
NCASE = 11
MIM3 = TO_IM(QI2)
MIM4 = TO_QUAD_INT(MIM3)
CALL IM_SUB(MIM3,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
CALL IM_ST2M('0',MIM3)
IF (IM_COMPARE(MIM4,'GT',MIM3)) CALL PRTERR(KW)
NCASE = 12
MZM3 = QI2
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_SUB(MZM3,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
CALL ZM_ABS(MZM4,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMP(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 13
MZM3 = TO_ZM(QI2)
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_SUB(MZM3,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
CALL ZM_ABS(MZM4,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMP(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 14
MZM3 = TO_ZM(QI2)
MZM4 = TO_QUAD_INT(MZM3)
CALL ZM_SUB(MZM3,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
CALL ZM_ABS(MZM4,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMP(MFM4,'GT',MFM3)) CALL PRTERR(KW)
NCASE = 15
QI1 = 123
MZM3 = TO_ZM(QI1,QI2)
CALL ZM_ST2M('123 + 123456789012345678901234567 i',MZM4)
CALL ZM_SUB(MZM3,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
CALL ZM_ABS(MZM4,MFM4)
CALL FM_ST2M('0',MFM3)
IF (FM_COMP(MFM4,'GT',MFM3)) CALL PRTERR(KW)
END SUBROUTINE TEST1
SUBROUTINE TEST2
! Test the derived type == interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type == interface.')")
NCASE = 16
QI1 = 123
M_A = QI1
IF (.NOT.(M_A == QI1)) THEN
CALL ERRPRT_FM(' == ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 17
QI1 = 123
M_A = QI1
IF (.NOT.(QI1 == M_A)) THEN
CALL ERRPRT_FM(' == ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 18
QI1 = 123
M_J = QI1
IF (.NOT.(M_J == QI1)) THEN
CALL ERRPRT_IM(' == ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 19
QI1 = 123
M_J = QI1
IF (.NOT.(QI1 == M_J)) THEN
CALL ERRPRT_IM(' == ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 20
QI1 = 123
M_Z = QI1
IF (.NOT.(M_Z == QI1)) THEN
CALL ERRPRT_ZM(' == ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 21
QI1 = 123
M_Z = ( 123.0 , 34.5 )
IF (M_Z == QI1) THEN
CALL ERRPRT_ZM(' == ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 22
QI1 = 123
M_Z = QI1
IF (.NOT.(QI1 == M_Z)) THEN
CALL ERRPRT_ZM(' == ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 23
QI1 = 123
M_Z = ( 123.0 , 34.5 )
IF (QI1 == M_Z) THEN
CALL ERRPRT_ZM(' == ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
RETURN
END SUBROUTINE TEST2
SUBROUTINE TEST3
! Test the derived type /= interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type /= interface.')")
NCASE = 24
QI1 = 123
M_A = 1 + QI1
IF (.NOT.(M_A /= QI1)) THEN
CALL ERRPRT_FM(' /= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 25
QI1 = 123
M_A = 1 + QI1
IF (.NOT.(QI1 /= M_A)) THEN
CALL ERRPRT_FM(' /= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 26
QI1 = 123
M_J = 1 + QI1
IF (.NOT.(M_J /= QI1)) THEN
CALL ERRPRT_IM(' /= ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 27
QI1 = 123
M_J = 1 + QI1
IF (.NOT.(QI1 /= M_J)) THEN
CALL ERRPRT_IM(' /= ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 28
QI1 = 123
M_Z = 1 + QI1
IF (.NOT.(M_Z /= QI1)) THEN
CALL ERRPRT_ZM(' /= ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 29
QI1 = 123
M_Z = ( 123.0 , 34.5 )
IF (.NOT.(M_Z /= QI1)) THEN
CALL ERRPRT_ZM(' /= ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 30
QI1 = 123
M_Z = 1 + QI1
IF (.NOT.(QI1 /= M_Z)) THEN
CALL ERRPRT_ZM(' /= ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
NCASE = 31
QI1 = 123
M_Z = ( 123.0 , 34.5 )
IF (.NOT.(QI1 /= M_Z)) THEN
CALL ERRPRT_ZM(' /= ',M_Z,'M_Z',M_Z,'M_Z',M_Z,'M_Z')
ENDIF
RETURN
END SUBROUTINE TEST3
SUBROUTINE TEST4
! Test the derived type > interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type > interface.')")
NCASE = 32
QI1 = 123
M_A = QI1 + 1
IF (.NOT.(M_A > QI1)) THEN
CALL ERRPRT_FM(' > ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 33
QI1 = 123
M_A = QI1 - 1
IF (.NOT.(QI1 > M_A)) THEN
CALL ERRPRT_FM(' > ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 34
QI1 = 123
M_J = QI1 + 1
IF (.NOT.(M_J > QI1)) THEN
CALL ERRPRT_IM(' > ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 35
QI1 = 123
M_J = QI1 - 1
IF (.NOT.(QI1 > M_J)) THEN
CALL ERRPRT_IM(' > ',M_J,'M_J',M_J,'M_J')
ENDIF
RETURN
END SUBROUTINE TEST4
SUBROUTINE TEST5
! Test the derived type >= interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type >= interface.')")
NCASE = 36
QI1 = 123
M_A = QI1 + 1
IF (.NOT.(M_A >= QI1)) THEN
CALL ERRPRT_FM(' >= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 37
QI1 = 123
M_A = QI1 - 1
IF (.NOT.(QI1 >= M_A)) THEN
CALL ERRPRT_FM(' >= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 38
QI1 = 123
M_J = QI1 + 1
IF (.NOT.(M_J >= QI1)) THEN
CALL ERRPRT_IM(' >= ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 39
QI1 = 123
M_J = QI1 - 1
IF (.NOT.(QI1 >= M_J)) THEN
CALL ERRPRT_IM(' >= ',M_J,'M_J',M_J,'M_J')
ENDIF
RETURN
END SUBROUTINE TEST5
SUBROUTINE TEST6
! Test the derived type < interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type < interface.')")
NCASE = 40
QI1 = 123
M_A = QI1 - 2
IF (.NOT.(M_A < QI1)) THEN
CALL ERRPRT_FM(' < ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 41
QI1 = 123
M_A = QI1 + 2
IF (.NOT.(QI1 < M_A)) THEN
CALL ERRPRT_FM(' < ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 42
QI1 = 123
M_J = QI1 - 2
IF (.NOT.(M_J < QI1)) THEN
CALL ERRPRT_IM(' < ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 43
QI1 = 123
M_J = QI1 + 2
IF (.NOT.(QI1 < M_J)) THEN
CALL ERRPRT_IM(' < ',M_J,'M_J',M_J,'M_J')
ENDIF
RETURN
END SUBROUTINE TEST6
SUBROUTINE TEST7
! Test the derived type <= interface.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type <= interface.')")
NCASE = 44
QI1 = 123
M_A = QI1 - 2
IF (.NOT.(M_A <= QI1)) THEN
CALL ERRPRT_FM(' <= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 45
QI1 = 123
M_A = QI1 + 2
IF (.NOT.(QI1 <= M_A)) THEN
CALL ERRPRT_FM(' <= ',M_A,'M_A',M_A,'M_A',M_A,'M_A')
ENDIF
NCASE = 46
QI1 = 123
M_J = QI1 - 2
IF (.NOT.(M_J <= QI1)) THEN
CALL ERRPRT_IM(' <= ',M_J,'M_J',M_J,'M_J')
ENDIF
NCASE = 47
QI1 = 123
M_J = QI1 + 2
IF (.NOT.(QI1 <= M_J)) THEN
CALL ERRPRT_IM(' <= ',M_J,'M_J',M_J,'M_J')
ENDIF
RETURN
END SUBROUTINE TEST7
SUBROUTINE TEST8
! Test the '+' arithmetic operator.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type + interface.')")
NCASE = 48
MFM3 = QI2 + MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_ADD(MFM4,MFM1,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 49
MFM3 = QI2 + MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_ADD_R1(MFM4,MFM1)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 50
MFM3 = QI2 + MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_ADD_R2(MFM1,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 51
MIM3 = QI2 + MIM1
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_ADD(MIM4,MIM1,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 52
MZM3 = QI2 + MZM1
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_ADD(MZM4,MZM1,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
NCASE = 53
MFM3 = MFM1 + QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_ADD(MFM1,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 54
MIM3 = MIM1 + QI2
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_ADD(MIM1,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 55
MZM3 = MZM1 + QI2
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_ADD(MZM1,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
END SUBROUTINE TEST8
SUBROUTINE TEST9
! Test the '-' arithmetic operator.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type - interface.')")
NCASE = 56
MFM3 = QI2 - MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_SUB(MFM4,MFM1,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 57
MIM3 = QI2 - MIM1
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_SUB(MIM4,MIM1,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 58
MZM3 = QI2 - MZM1
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_SUB(MZM4,MZM1,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
NCASE = 59
MFM3 = MFM1 - QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_SUB(MFM1,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 60
MIM3 = MIM1 - QI2
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_SUB(MIM1,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 61
MZM3 = MZM1 - QI2
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_SUB(MZM1,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
END SUBROUTINE TEST9
END MODULE TEST_A
MODULE TEST_B
USE TEST_VARS
CONTAINS
SUBROUTINE TEST10
! Test the '*' arithmetic operator.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type * interface.')")
NCASE = 62
MFM3 = QI2 * MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_MPY(MFM4,MFM1,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 63
MFM3 = QI2 * MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_MPY_R1(MFM4,MFM1)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 64
MFM3 = QI2 * MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_MPY_R2(MFM1,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 65
MFM3 = QI2 * MFM1
MFM4 = MFM1 * TO_FM('123456789012345678901234567')
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 66
MIM3 = QI2 * MIM1
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_MPY(MIM4,MIM1,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 67
MZM3 = QI2 * MZM1
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_MPY(MZM4,MZM1,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
NCASE = 68
MFM3 = MFM1 * QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_MPY(MFM1,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 69
MIM3 = MIM1 * QI2
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_MPY(MIM1,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 70
MZM3 = MZM1 * QI2
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_MPY(MZM1,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
END SUBROUTINE TEST10
SUBROUTINE TEST11
! Test the '/' arithmetic operator.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type / interface.')")
NCASE = 71
MFM3 = QI2 / MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_DIV(MFM4,MFM1,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 72
MFM3 = QI2 / MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_EQ(MFM1,MFM6)
CALL FM_DIV_R2(MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 73
MIM3 = QI2 / MIM1
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_DIV(MIM4,MIM1,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 74
MZM3 = QI2 / MZM1
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_DIV(MZM4,MZM1,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
NCASE = 75
MFM3 = MFM1 / QI2
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_DIV(MFM1,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 76
MIM3 = MIM1 / QI2
CALL IM_ST2M('123456789012345678901234567',MIM4)
CALL IM_DIV(MIM1,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 77
MZM3 = MZM1 / QI2
CALL ZM_ST2M('123456789012345678901234567',MZM4)
CALL ZM_DIV(MZM1,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
END SUBROUTINE TEST11
SUBROUTINE TEST12
! Test the '**' arithmetic operator.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type ** interface.')")
NCASE = 78
MFM3 = QI2 ** MFM1
CALL FM_ST2M('123456789012345678901234567',MFM4)
CALL FM_POWER(MFM4,MFM1,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 79
QI4 = 2
MIM3 = QI4 ** MIM1
CALL IM_ST2M('2',MIM4)
CALL IM_POWER(MIM4,MIM1,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 80
QI4 = 23
MZM3 = QI4 ** MZM1
MZM4 = QI4
CALL ZM_POWER(MZM4,MZM1,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
NCASE = 81
QI4 = 2345
MFM3 = MFM1 ** QI4
MFM4 = QI4
CALL FM_POWER(MFM1,MFM4,MFM6)
CALL FM_EQ(MFM6,MFM4)
IF (.NOT.(MFM3 == MFM4)) CALL PRTERR(KW)
NCASE = 82
QI4 = 17
MIM3 = MIM1 ** QI4
CALL IM_ST2M('17',MIM4)
CALL IM_POWER(MIM1,MIM4,MIM5)
CALL IM_EQ(MIM5,MIM4)
IF (.NOT.(MIM3 == MIM4)) CALL PRTERR(KW)
NCASE = 83
QI4 = 179
MZM3 = MZM1 ** QI4
MZM4 = QI4
CALL ZM_POWER(MZM1,MZM4,MZM5)
CALL ZM_EQ(MZM5,MZM4)
IF (.NOT.(MZM3 == MZM4)) CALL PRTERR(KW)
END SUBROUTINE TEST12
SUBROUTINE TEST13
! Test functions TO_FM, TO_IM, TO_ZM, ..., TO_QUAD_INT.
IMPLICIT NONE
WRITE (KW,"(/' Testing the derived type TO_FM, ..., TO_QUAD_INT interfaces.')")
NCASE = 84
QIV = (/ 123, -432, 567 /)
MFMV1 = TO_FM(QIV)
MFMV2 = QIV
DO J = 1, 3
IF (.NOT.(MFMV1(J) == MFMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 85
QI3 = 123
MFMV1 = QI3
MFMV2 = 123
DO J = 1, 3
IF (.NOT.(MFMV1(J) == MFMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 86
QIV = (/ 123, -432, 567 /)
MFMV1 = TO_FM(QIV)
QIV = TO_QUAD_INT(MFMV1)
MFMV2 = QIV
DO J = 1, 3
IF (.NOT.(MFMV1(J) == MFMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 87
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFMA = TO_FM(QIV2)
MFMB = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MFMA(J,K) == MFMB(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 88
QI3 = 1234
MFMA = QI3
MFMB = 1234
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MFMA(J,K) == MFMB(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 89
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFMA = TO_FM(QIV2)
QIV2 = TO_QUAD_INT(MFMA)
MFMB = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MFMA(J,K) == MFMB(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 90
QIV = (/ 123, -432, 567 /)
MIMV1 = TO_IM(QIV)
MIMV2 = QIV
DO J = 1, 3
IF (.NOT.(MIMV1(J) == MIMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 91
QI3 = 1234
MIMV1 = QI3
MIMV2 = 1234
DO J = 1, 3
IF (.NOT.(MIMV1(J) == MIMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 92
QIV = (/ 123, -432, 567 /)
MIMV1 = TO_IM(QIV)
QIV = TO_QUAD_INT(MIMV1)
MIMV2 = QIV
DO J = 1, 3
IF (.NOT.(MIMV1(J) == MIMV2(J))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 93
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = TO_IM(QIV2)
MIMB2 = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MIMA2(J,K) == MIMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 94
QI3 = 1234
MIMA2 = QI3
MIMB2 = 1234
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MIMA2(J,K) == MIMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 95
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = TO_IM(QIV2)
QIV2 = TO_QUAD_INT(MIMA2)
MIMB2 = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MIMA2(J,K) == MIMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 96
QIV = (/ 123, -432, 567 /)
MZMV1 = TO_ZM(QIV)
MZMV2 = QIV
DO J = 1, 3
IF (ABS(MZMV1(J)-MZMV2(J)) /= 0) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 97
QI3 = 1234
MZMV1 = QI3
MZMV2 = 1234
DO J = 1, 3
IF (ABS(MZMV1(J)-MZMV2(J)) /= 0) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 98
QIV = (/ 123, -432, 567 /)
MZMV1 = TO_ZM(QIV)
QIV = TO_QUAD_INT(MZMV1)
MZMV2 = QIV
DO J = 1, 3
IF (ABS(MZMV1(J)-MZMV2(J)) /= 0) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
NCASE = 99
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZMA2 = TO_ZM(QIV2)
MZMB2 = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MZMA2(J,K) == MZMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 100
QI3 = 1234
MZMA2 = QI3
MZMB2 = 1234
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MZMA2(J,K) == MZMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 101
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZMA2 = TO_ZM(QIV2)
QIV2 = TO_QUAD_INT(MZMA2)
MZMB2 = QIV2
DO J = 1, 3
DO K = 1, 3
IF (.NOT.(MZMA2(J,K) == MZMB2(J,K))) THEN
CALL PRTERR(KW)
EXIT
ENDIF
ENDDO
ENDDO
NCASE = 102
CALL FMM2QI(MFM1%MFM,QI3)
IF (TO_INT(MFM1) /= QI3) CALL PRTERR(KW)
NCASE = 103
CALL IMM2QI(MIM1%MIM,QI3)
IF (TO_INT(MIM1) /= QI3) CALL PRTERR(KW)
NCASE = 104
CALL FMM2QI(MZM1%MZM(1),QI3)
IF (TO_INT(MZM1) /= QI3) CALL PRTERR(KW)
END SUBROUTINE TEST13
SUBROUTINE TEST14
! Test the derived-type interface routines that are not used elsewhere in this program.
IMPLICIT NONE
NCASE = 105
QI4 = MFM1
CALL FMM2QI(MFM1%MFM,QI5)
IF (QI4 /= QI5) CALL PRTERR(KW)
NCASE = 106
MIM3 = MIM1 / 13
QI5 = MIM1
QI5 = QI5 / 13
IF (.NOT.(MIM3 == QI5)) CALL PRTERR(KW)
NCASE = 107
QI4 = MOD(MIM1,TO_IM(13))
QI5 = MOD(TO_QUAD_INT(MIM1),13_QUAD_INT)
IF (QI4 /= QI5) CALL PRTERR(KW)
NCASE = 108
QI4 = MIM1
CALL IMM2QI(MIM1%MIM,QI5)
IF (QI4 /= QI5) CALL PRTERR(KW)
NCASE = 109
QI4 = MZM1
CALL FMM2QI(MZM1%MZM(1),QI5)
IF (QI4 /= QI5) CALL PRTERR(KW)
END SUBROUTINE TEST14
END MODULE TEST_B
MODULE TEST_C
USE TEST_VARS
CONTAINS
SUBROUTINE TEST15
! Test type (FM) array equal assignments.
IMPLICIT NONE
WRITE (KW,"(/' Testing derived-type array operations.')")
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
CALL FMSETVAR(' NTRACE = 0 ')
NCASE = 110
MFM3 = TO_FM('234.56')
QIV = MFM3
QI5 = 0
DO J = 1, 3
QI5 = QI5 + ABS(QIV(J) - 234)
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 111
QIV = (/ 12, -34, 56 /)
MFMV1 = QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV1(J) - QIV(J))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 112
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
QIV = MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(QIV(J) - INT(MFMV1(J)))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST15
SUBROUTINE TEST16
! Test type (IM) array equal assignments.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 113
MIM1 = TO_FM('234.56')
QIV = MIM1
QI5 = 0
DO J = 1, 3
QI5 = QI5 + ABS(QIV(J) - 234)
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 114
QIV = (/ 12, -34, 56 /)
MIMV1 = QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV1(J) - QIV(J))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 115
RV = (/ 12.1, -34.2, 56.3 /)
MIMV1 = RV
MFM3 = 0
QIV = RV
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV1(J) - QIV(J))
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 116
DV = (/ 12.1123456789D0, -34.2123456789D0, 56.3123456789D0 /)
MIMV1 = DV
MFM3 = 0
QIV = DV
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV1(J) - QIV(J))
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 117
CV = (/ (12.1,65.4) , (-34.2,54.3) , (56.3,-84.5) /)
MIMV1 = CV
MFM3 = 0
QIV = CV
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV1(J) - QIV(J))
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 118
CDV = (/ (12.1123456789D0,34.57D0) , (-34.2123456789D0,987.43D0) , &
(56.3123456789D0,-465.84D0) /)
MIMV1 = CDV
MFM3 = 0
QIV = CDV
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV1(J) - QIV(J))
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 119
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
QIV = MIMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(QIV(J) - INT(MIMV1(J)))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 120
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MIMV1 = MZMV1
MFM3 = 0
QIV = (/ 12, -34, 56 /)
DO J = 1, 3
MFM3 = MFM3 + ABS(QIV(J) - MIMV1(J))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST16
SUBROUTINE TEST17
! Test type (ZM) array equal assignments.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 121
MZM1 = TO_ZM('234.56 - 65.32 i')
QIV = MZM1
QI5 = 0
DO J = 1, 3
QI5 = QI5 + ABS(QIV(J) - 234)
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 122
QIV = (/ 12, -34, 56 /)
MZMV1 = QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV1(J) - QIV(J))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 123
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
QIV = MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(QIV(J) - REAL(INT(MZMV1(J))))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST17
SUBROUTINE TEST18
! Test type (FM) array equal assignments.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
CALL FMSETVAR(' NTRACE = 0 ')
NCASE = 124
MFM3 = TO_FM('234.56')
QIV2 = MFM3
QI5 = 0
DO J = 1, 3
DO K = 1, 3
QI5 = QI5 + ABS(QIV2(J,K) - 234)
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 125
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFMA = QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMA(J,K) - QIV2(J,K))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST18
END MODULE TEST_C
MODULE TEST_D
USE TEST_VARS
CONTAINS
SUBROUTINE TEST19
! Test type (IM) array equal assignments.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 126
MIM1 = TO_FM('234.56')
QIV2 = MIM1
QI5 = 0
DO J = 1, 3
DO K = 1, 3
QI5 = QI5 + ABS(QIV2(J,K) - 234)
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 127
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 128
RV2 = RESHAPE( (/(11.345+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = RV2
MFM3 = 0
QIV2 = RV2
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 129
DV2 = RESHAPE( (/(12.3456789D0+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = DV2
MFM3 = 0
QIV2 = DV2
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 130
DO J = 1, 3
DO K = 1, 3
CV2(J,K) = CMPLX(12.3+3*(J+3*(K-1)),-32.4+7*(J+3*(K-1)))
ENDDO
ENDDO
MIMA2 = CV2
MFM3 = 0
QIV2 = CV2
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 131
CDV2 = RESHAPE( (/(CMPLX(13.3D0+3*J,-22.4D0+7*J,KIND(1.0D0)),J=1,9)/) , SHAPE = (/ 3,3 /) )
MIMA2 = CDV2
MFM3 = 0
QIV2 = CDV2
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
IF (.NOT.(MFM3 == 0)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 132
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
QIV2 = MIMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(QIV2(J,K) - INT(MIMA2(J,K)))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 133
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MIMA2 = MZMA2
MFM3 = 0
QIV2 = RESHAPE( (/(62.3+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(QIV2(J,K) - MIMA2(J,K))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST19
END MODULE TEST_D
MODULE TEST_E
USE TEST_VARS
CONTAINS
SUBROUTINE TEST20
! Test type (ZM) array equal assignments.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 134
MZM1 = TO_ZM('234.56 - 65.32 i')
QIV2 = MZM1
QI5 = 0
DO J = 1, 3
DO K = 1, 3
QI5 = QI5 + ABS(QIV2(J,K) - 234)
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(TO_FM(QI5) <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 135
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZMA2 = QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMA2(J,K) - QIV2(J,K))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 136
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
QIV2 = MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(QIV2(J,K) - REAL(INT(MZMA2(J,K))))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST20
SUBROUTINE TEST21
! Test type (FM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 137
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = MFM4 + QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFM4 + QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 138
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = QIV + MFM4
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) + MFM4 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST21
SUBROUTINE TEST22
! Test type (FM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 139
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QIV + MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) + MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 140
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QI3 + MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QI3 + MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 141
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 + QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) + QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 142
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 + QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) + QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST22
SUBROUTINE TEST23
! Test type (IM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 143
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = MIM2 + QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( MIM2 + QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 144
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = QIV + MIM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( QIV(J) + MIM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST23
SUBROUTINE TEST24
! Test type (IM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 145
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = QIV + MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QIV(J) + MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 146
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = QI3 + MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QI3 + MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 147
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = MIMV1 + QI3
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) + QI3 ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 148
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = MIMV1 + QIV
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) + QIV(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST24
SUBROUTINE TEST25
! Test type (ZM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 149
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = MZM2 + QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZM2 + QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 150
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = QIV + MZM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) + MZM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST25
SUBROUTINE TEST26
! Test type (ZM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 151
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QIV + MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) + MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 152
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QI3 + MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QI3 + MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 153
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 + QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) + QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 154
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 + QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) + QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST26
SUBROUTINE TEST27
! Test type (FM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 155
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = MFM4 + QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFM4 + QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 156
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = QIV2 + MFM4
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) + MFM4 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST27
SUBROUTINE TEST28
! Test type (FM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 157
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QIV2 + MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) + MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 158
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QI3 + MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QI3 + MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 159
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA + QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) + QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 160
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA + QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) + QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST28
SUBROUTINE TEST29
! Test type (IM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 161
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = MIM2 + QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( MIM2 + QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 162
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = QIV2 + MIM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( QIV2(J,K) + MIM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST29
SUBROUTINE TEST30
! Test type (IM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 163
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QIV2 + MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QIV2(J,K) + MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 164
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 + QIV2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) + QIV2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 165
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QI3 + MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QI3 + MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 166
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 + QI3
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) + QI3 ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST30
SUBROUTINE TEST31
! Test type (ZM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 167
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = MZM2 + QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZM2 + QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 168
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = QIV2 + MZM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) + MZM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST31
END MODULE TEST_E
MODULE TEST_F
USE TEST_VARS
CONTAINS
SUBROUTINE TEST32
! Test type (ZM) array addition operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 169
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QIV2 + MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) + MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 170
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 + QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) + QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 171
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QI3 + MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QI3 + MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 172
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 + QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) + QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST32
SUBROUTINE TEST33
! Test type (FM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 173
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = MFM4 - QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFM4 - QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 174
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = QIV - MFM4
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) - MFM4 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST33
SUBROUTINE TEST34
! Test type (FM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 175
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QIV - MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) - MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 176
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 - QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) - QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 177
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QI3 - MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QI3 - MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 178
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 - QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) - QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 179
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QI3 - MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QI3 - MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 180
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA - QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) - QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST34
SUBROUTINE TEST35
! Test type (IM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 181
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = MIM2 - QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( MIM2 - QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 182
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = QIV - MIM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( QIV(J) - MIM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST35
SUBROUTINE TEST36
! Test type (IM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 183
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = QIV - MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QIV(J) - MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 184
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = MIMV1 - QIV
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) - QIV(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 185
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = QI3 - MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QI3 - MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 186
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = MIMV1 - QI3
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) - QI3 ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 187
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QI3 - MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QI3 - MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 188
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 - QI3
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) - QI3 ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST36
SUBROUTINE TEST37
! Test type (ZM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 189
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = MZM2 - QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZM2 - QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 190
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = QIV - MZM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) - MZM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST37
SUBROUTINE TEST38
! Test type (ZM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 191
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QIV - MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) - MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 192
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 - QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) - QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 193
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QI3 - MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QI3 - MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 194
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 - QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) - QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 195
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QI3 - MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QI3 - MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 196
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 - QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) - QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST38
SUBROUTINE TEST39
! Test type (FM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 197
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = MFM4 - QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFM4 - QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 198
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = QIV2 - MFM4
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) - MFM4 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST39
SUBROUTINE TEST40
! Test type (FM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 199
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QIV2 - MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) - MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 200
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA - QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) - QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST40
SUBROUTINE TEST41
! Test type (IM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 201
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = MIM2 - QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( MIM2 - QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 202
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = QIV2 - MIM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( QIV2(J,K) - MIM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST41
SUBROUTINE TEST42
! Test type (IM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 203
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QIV2 - MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QIV2(J,K) - MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 204
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 - QIV2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) - QIV2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST42
SUBROUTINE TEST43
! Test type (ZM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 205
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = MZM2 - QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZM2 - QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 206
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = QIV2 - MZM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) - MZM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST43
END MODULE TEST_F
MODULE TEST_G
USE TEST_VARS
CONTAINS
SUBROUTINE TEST44
! Test type (ZM) array subtraction operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 207
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QIV2 - MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) - MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 208
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 - QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) - QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST44
SUBROUTINE TEST45
! Test type (FM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 209
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = MFM4 * QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFM4 * QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 210
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = QIV * MFM4
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) * MFM4 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST45
SUBROUTINE TEST46
! Test type (FM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 211
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QIV * MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) * MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 212
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 * QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) * QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 213
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QI3 * MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QI3 * MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 214
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 * QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) * QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 215
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QI3 * MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QI3 * MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 216
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA * QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) * QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST46
SUBROUTINE TEST47
! Test type (IM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 217
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = MIM2 * QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( MIM2 * QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 218
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = QIV * MIM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( QIV(J) * MIM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST47
SUBROUTINE TEST48
! Test type (IM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 219
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = QIV * MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QIV(J) * MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 220
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = MIMV1 * QIV
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) * QIV(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 221
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = QI3 * MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QI3 * MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 222
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = MIMV1 * QI3
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) * QI3 ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 223
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QI3 * MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QI3 * MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 224
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 * QI3
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) * QI3 ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST48
SUBROUTINE TEST49
! Test type (ZM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 225
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = MZM2 * QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZM2 * QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 226
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = QIV * MZM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) * MZM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST49
SUBROUTINE TEST50
! Test type (ZM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 227
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QIV * MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) * MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 228
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 * QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) * QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 229
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QI3 * MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QI3 * MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 230
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 * QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) * QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 231
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QI3 * MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QI3 * MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 232
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 * QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) * QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST50
SUBROUTINE TEST51
! Test type (FM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 233
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = MFM4 * QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFM4 * QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 234
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = QIV2 * MFM4
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) * MFM4 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST51
SUBROUTINE TEST52
! Test type (FM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 235
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QIV2 * MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) * MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 236
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA * QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) * QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST52
SUBROUTINE TEST53
! Test type (IM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 237
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = MIM2 * QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( MIM2 * QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 238
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = QIV2 * MIM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( QIV2(J,K) * MIM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST53
SUBROUTINE TEST54
! Test type (IM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 239
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QIV2 * MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QIV2(J,K) * MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 240
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 * QIV2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) * QIV2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST54
SUBROUTINE TEST55
! Test type (ZM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 241
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = MZM2 * QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZM2 * QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 242
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = QIV2 * MZM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) * MZM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST55
SUBROUTINE TEST56
! Test type (ZM) array multiplication operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 243
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QIV2 * MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) * MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 244
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 * QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) * QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST56
END MODULE TEST_G
MODULE TEST_H
USE TEST_VARS
CONTAINS
SUBROUTINE TEST57
! Test type (FM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 245
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = MFM4 / QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFM4 / QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 246
QIV = (/ 12, -34, 56 /)
MFM4 = TO_FM('12.1123456789')
MFMV2 = QIV / MFM4
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) / MFM4 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST57
SUBROUTINE TEST58
! Test type (FM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 247
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QIV / MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QIV(J) / MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 248
QIV = (/ 12, -34, 56 /)
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 / QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) / QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 249
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = QI3 / MFMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( QI3 / MFMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 250
QI3 = 1234
MFMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MFMV2 = MFMV1 / QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MFMV2(J) - ( MFMV1(J) / QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 251
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QI3 / MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QI3 / MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 252
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA / QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) / QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST58
SUBROUTINE TEST59
! Test type (IM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 253
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = MIM2 / QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( MIM2 / QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 254
QIV = (/ 12, -34, 56 /)
MIM2 = TO_FM('12.1123456789')
MIMV2 = QIV / MIM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MIMV2(J) - ( QIV(J) / MIM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST59
SUBROUTINE TEST60
! Test type (IM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 255
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = QIV / MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QIV(J) / MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 256
QIV = (/ 12, -34, 56 /)
MIMV1 = (/ TO_FM('12.1123456789') , TO_FM('-34.2123456789') , TO_FM('56.3123456789') /)
MIMV2 = MIMV1 / QIV
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) / QIV(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 257
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = QI3 / MIMV1
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( QI3 / MIMV1(J) ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 258
QI3 = 1234
MIMV1 = (/ TO_IM('121123456789') , TO_IM('-342123456789') , TO_IM('563123456789') /)
MIMV2 = MIMV1 / QI3
MIM1 = 0
DO J = 1, 3
MIM1 = MIM1 + ABS(MIMV2(J) - ( MIMV1(J) / QI3 ))
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 259
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QI3 / MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QI3 / MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 260
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 / QI3
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) / QI3 ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST60
SUBROUTINE TEST61
! Test type (ZM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 261
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = MZM2 / QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZM2 / QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 262
QIV = (/ 12, -34, 56 /)
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMV2 = QIV / MZM2
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) / MZM2 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST61
SUBROUTINE TEST62
! Test type (ZM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 263
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QIV / MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QIV(J) / MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 264
QIV = (/ 12, -34, 56 /)
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 / QIV
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) / QIV(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 265
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = QI3 / MZMV1
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( QI3 / MZMV1(J) ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 266
QI3 = 1234
MZMV1 = (/ TO_ZM('12.1123456789 + 9.574635 i') , TO_ZM('-34.2123456789 - 5.4 i') , &
TO_ZM('56.3123456789 + 0.000345 i') /)
MZMV2 = MZMV1 / QI3
MFM3 = 0
DO J = 1, 3
MFM3 = MFM3 + ABS(MZMV2(J) - ( MZMV1(J) / QI3 ))
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 267
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QI3 / MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QI3 / MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 268
QI3 = 1234
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 / QI3
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) / QI3 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST62
SUBROUTINE TEST63
! Test type (FM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 269
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = MFM4 / QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFM4 / QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 270
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MFM4 = TO_FM('12.1123456789')
MFMB = QIV2 / MFM4
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) / MFM4 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST63
SUBROUTINE TEST64
! Test type (FM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 271
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = QIV2 / MFMA
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( QIV2(J,K) / MFMA(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 272
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MFMA(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MFMB = MFMA / QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MFMB(J,K) - ( MFMA(J,K) / QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST64
SUBROUTINE TEST65
! Test type (IM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 273
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = MIM2 / QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( MIM2 / QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 274
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MIM2 = TO_FM('12.1123456789')
MIMB2 = QIV2 / MIM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MIMB2(J,K) - ( QIV2(J,K) / MIM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST65
SUBROUTINE TEST66
! Test type (IM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 275
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = QIV2 / MIMA2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( QIV2(J,K) / MIMA2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 276
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MIMA2(J,K) = TO_FM(25+3*(J+3*(K-1)))/3
ENDDO
ENDDO
MIMB2 = MIMA2 / QIV2
MIM1 = 0
DO J = 1, 3
DO K = 1, 3
MIM1 = MIM1 + ABS(MIMB2(J,K) - ( MIMA2(J,K) / QIV2(J,K) ))
ENDDO
ENDDO
CALL IM_ST2M(' 0 ',MIM2)
IF (.NOT.(MIM1 <= MIM2)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST66
SUBROUTINE TEST67
! Test type (ZM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 277
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = MZM2 / QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZM2 / QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 278
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
MZM2 = TO_ZM('12.1123456789 - 53.837465 i')
MZMB2 = QIV2 / MZM2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) / MZM2 ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST67
SUBROUTINE TEST68
! Test type (ZM) array division operations.
IMPLICIT NONE
KWSAVE = KW
CALL FMSETVAR(' KW = 22 ')
NCASE = 279
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = QIV2 / MZMA2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( QIV2(J,K) / MZMA2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
NCASE = 280
QIV2 = RESHAPE( (/(11+3*J,J=1,9)/) , SHAPE = (/ 3,3 /) )
DO J = 1, 3
DO K = 1, 3
MZMA2(J,K) = CMPLX(TO_FM('62.3')+3*(J+3*(K-1)), TO_FM('-72.4')+7*(J+3*(K-1)))
ENDDO
ENDDO
MZMB2 = MZMA2 / QIV2
MFM3 = 0
DO J = 1, 3
DO K = 1, 3
MFM3 = MFM3 + ABS(MZMB2(J,K) - ( MZMA2(J,K) / QIV2(J,K) ))
ENDDO
ENDDO
CALL FM_ST2M(' 1.0E-45 ',MFM4)
IF (.NOT.(MFM3 <= MFM4)) THEN
CALL PRTERR(KWSAVE)
ENDIF
KW = KWSAVE
RETURN
END SUBROUTINE TEST68
END MODULE TEST_H
PROGRAM TEST
USE TEST_VARS
USE TEST_A
USE TEST_B
USE TEST_C
USE TEST_D
USE TEST_E
USE TEST_F
USE TEST_G
USE TEST_H
IMPLICIT NONE
! Write output to the standard FM output (unit KW, defined in subroutine FMSET),
! and also to the file TestFMquadInt.out.
KLOG = 18
OPEN (KLOG,FILE='TestFMquadInt.out')
KWSAVE = KW
KW = KLOG
! Set precision to give at least 50 significant digits and initialize the FM package.
! This call also checks many of the initialization values used in module FMVALS
! (file FMSAVE.f95). Set KW = KLOG for this call so that any messages concerning these
! values will appear in file TestFMquadInt.out.
CALL FM_SET(50)
KW = KWSAVE
! Write output for testing error messages to the file FMerrmsgQI.OUT.
OPEN (22,FILE='FMerrmsgQI.OUT')
WRITE (22,*) ' '
WRITE (22,*) ' This file is produced by the TestFMquadInt program while testing'
WRITE (22,*) ' error messages and trace output options.'
WRITE (22,*) ' '
KW = 22
CALL FMVARS
WRITE (KW,*) ' RADIX(1_QUAD_INT) = ',RADIX(1_QUAD_INT), &
' DIGITS(1_QUAD_INT) = ',DIGITS(1_QUAD_INT)
WRITE (KW,*) ' HUGE(1_QUAD_INT) = ',HUGE(1_QUAD_INT)
KW = KWSAVE
CALL CPU_TIME(TIME1)
! Initialize some of the test variables.
QI2 = 123456789012345678901234567_QUAD_INT
CALL FM_ST2M('581.21',MFM1)
CALL FM_ST2M('-572.42',MFM2)
CALL IM_ST2M('661',MIM1)
CALL IM_ST2M('-602',MIM2)
CALL ZM_ST2M('731.51 + 711.41 i',MZM1)
CALL ZM_ST2M('-762.12 - 792.42 i',MZM2)
! NERROR is the number of errors found.
NERROR = 0
! Test the derived type = interface.
CALL TEST1
! Test the derived type == interface.
CALL TEST2
! Test the derived type /= interface.
CALL TEST3
! Test the derived type > interface.
CALL TEST4
! Test the derived type >= interface.
CALL TEST5
! Test the derived type < interface.
CALL TEST6
! Test the derived type <= interface.
CALL TEST7
! Test the derived type + interface.
CALL TEST8
! Test the derived type - interface.
CALL TEST9
! Test the derived type * interface.
CALL TEST10
! Test the derived type / interface.
CALL TEST11
! Test the derived type ** interface.
CALL TEST12
! Test the derived type functions TO_FM, TO_IM, TO_ZM, ..., TO_DPZ interface.
CALL TEST13
! Test the derived type functions ADDI, ..., Z2M interface.
CALL TEST14
! Test derived-type array equal assignments.
CALL TEST15
CALL TEST16
CALL TEST17
CALL TEST18
CALL TEST19
CALL TEST20
! Test derived-type array addition operations.
CALL TEST21
CALL TEST22
CALL TEST23
CALL TEST24
CALL TEST25
CALL TEST26
CALL TEST27
CALL TEST28
CALL TEST29
CALL TEST30
CALL TEST31
CALL TEST32
! Test derived-type array subtraction operations.
CALL TEST33
CALL TEST34
CALL TEST35
CALL TEST36
CALL TEST37
CALL TEST38
CALL TEST39
CALL TEST40
CALL TEST41
CALL TEST42
CALL TEST43
CALL TEST44
! Test derived-type array multiplication operations.
CALL TEST45
CALL TEST46
CALL TEST47
CALL TEST48
CALL TEST49
CALL TEST50
CALL TEST51
CALL TEST52
CALL TEST53
CALL TEST54
CALL TEST55
CALL TEST56
! Test derived-type array division operations.
CALL TEST57
CALL TEST58
CALL TEST59
CALL TEST60
CALL TEST61
CALL TEST62
CALL TEST63
CALL TEST64
CALL TEST65
CALL TEST66
CALL TEST67
CALL TEST68
! End of tests.
CALL CPU_TIME(TIME2)
IF (NERROR == 0) THEN
WRITE (KW, "(///1X,I5,' cases tested. No errors were found.'/)" ) NCASE
WRITE (KLOG, "(///1X,I5,' cases tested. No errors were found.'/)" ) NCASE
ELSE IF (NERROR == 1) THEN
WRITE (KW, "(///1X,I5,' cases tested. 1 error was found.'/)" ) NCASE
WRITE (KLOG, "(///1X,I5,' cases tested. 1 error was found.'/)" ) NCASE
ELSE
WRITE (KW, "(///1X,I5,' cases tested.',I4,' errors were found.'/)" ) NCASE,NERROR
WRITE (KLOG, "(///1X,I5,' cases tested.',I4,' errors were found.'/)" ) NCASE,NERROR
ENDIF
IF (NERROR >= 1) THEN
KWSAVE = KW
KW = KLOG
! Write some of the variables in module FMVALS.
CALL FPVARS
KW = KWSAVE
ENDIF
WRITE (KW,*) ' '
WRITE (KW,"(F10.2,A)") TIME2-TIME1,' Seconds for TestFMquadInt.'
WRITE (KW,*) ' '
WRITE (KLOG,*) ' '
WRITE (KLOG,"(F10.2,A)") TIME2-TIME1,' Seconds for TestFMquadInt.'
WRITE (KLOG,*) ' '
WRITE (KW,*)' End of run.'
STOP
END PROGRAM TEST
SUBROUTINE ERRPRTFM(NROUT,M1,NAME1,M2,NAME2,M3,NAME3)
! Print error messages for testing of real (FM) routines.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using FMST2M.
! M3 is ABS(M1-M2), and ERRPRT is called if this is too big.
! NAME1,NAME2,NAME3 are strings identifying which variables in the calling routine
! correspond to M1,M2,M3.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
INTEGER :: M1,M2,M3
CHARACTER(2) :: NAME1,NAME2,NAME3
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so FMPRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL FMPRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL FMPRINT(M2)
WRITE (KLOG,"(1X,A,' =')") NAME3
CALL FMPRINT(M3)
KW = KWSAVE
RETURN
END SUBROUTINE ERRPRTFM
SUBROUTINE ERRPRTIM(NROUT,M1,NAME1,M2,NAME2)
! Print error messages for testing of integer (IM) routines.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using IMST2M.
! NAME1,NAME2 are strings identifying which variables in the calling routine correspond to M1,M2.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
INTEGER :: M1,M2
CHARACTER(2) :: NAME1,NAME2
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so IMPRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL IMPRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL IMPRINT(M2)
KW = KWSAVE
END SUBROUTINE ERRPRTIM
SUBROUTINE ERRPRTZM(NROUT,M1,NAME1,M2,NAME2,M3,NAME3)
! Print error messages.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using ZMST2M.
! M3 is ABS(M1-M2), and ERRPRTZM is called if this is too big.
! NAME1,NAME2,NAME3 are strings identifying which variables in the calling routine correspond
! to M1,M2,M3.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
INTEGER :: M1(2),M2(2),M3(2)
CHARACTER(2) :: NAME1,NAME2,NAME3
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The routine',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so ZMPRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL ZMPRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL ZMPRINT(M2)
WRITE (KLOG,"(1X,A,' =')") NAME3
CALL ZMPRINT(M3)
KW = KWSAVE
END SUBROUTINE ERRPRTZM
SUBROUTINE ERRPRT_FM(NROUT,M1,NAME1,M2,NAME2,M3,NAME3)
! Print error messages for testing of TYPE (FM) interface routines.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using FMST2M.
! M3 is ABS(M1-M2), and ERRPRT_FM is called if this is too big.
! NAME1,NAME2,NAME3 are strings identifying which variables in the calling routine correspond
! to M1,M2,M3.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
TYPE (FM) :: M1, M2, M3
CHARACTER(3) :: NAME1,NAME2,NAME3
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so FM_PRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL FM_PRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL FM_PRINT(M2)
WRITE (KLOG,"(1X,A,' =')") NAME3
CALL FM_PRINT(M3)
KW = KWSAVE
END SUBROUTINE ERRPRT_FM
SUBROUTINE ERRPRT_IM(NROUT,M1,NAME1,M2,NAME2)
! Print error messages for testing of TYPE (IM) interface routines.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using IMST2M.
! NAME1,NAME2 are strings identifying which variables in the calling routine correspond to M1,M2.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
TYPE (IM) :: M1, M2
CHARACTER(3) :: NAME1,NAME2
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so IM_PRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL IM_PRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL IM_PRINT(M2)
KW = KWSAVE
END SUBROUTINE ERRPRT_IM
SUBROUTINE ERRPRT_ZM(NROUT,M1,NAME1,M2,NAME2,M3,NAME3)
! Print error messages for testing of TYPE (ZM) interface routines.
! M1 is the value to be tested, as computed by the routine named NROUT.
! M2 is the reference value, usually converted using ZMST2M.
! M3 is ABS(M1-M2), and ERRPRT_ZM is called if this is too big.
! NAME1,NAME2,NAME3 are strings identifying which variables in the calling routine correspond
! to M1,M2,M3.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
TYPE (ZM) :: M1, M2, M3
CHARACTER(3) :: NAME1,NAME2,NAME3
CHARACTER(6) :: NROUT
NERROR = NERROR + 1
WRITE (KW, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
WRITE (KLOG, &
"(//' Error in case',I5,'. The interface',' being tested was ',A6)" &
) NCASE,NROUT
! Temporarily change KW to KLOG so ZM_PRINT will write to the log file.
KWSAVE = KW
KW = KLOG
WRITE (KLOG,"(1X,A,' =')") NAME1
CALL ZM_PRINT(M1)
WRITE (KLOG,"(1X,A,' =')") NAME2
CALL ZM_PRINT(M2)
WRITE (KLOG,"(1X,A,' =')") NAME3
CALL ZM_PRINT(M3)
KW = KWSAVE
END SUBROUTINE ERRPRT_ZM
SUBROUTINE ERRPRT_STR(STRING1,STRING2)
! Print error messages for testing of output formatting routines.
! STRING1 is the output string, formatted by FM_FORM
! STRING2 is the reference string to be compared to STRING1.
USE FMVALS
USE FMZM
USE TEST_VARS
IMPLICIT NONE
CHARACTER(80) :: STRING1, STRING2
NERROR = NERROR + 1
WRITE (KW,*) ' Error in case ',NCASE,' during input/output testing.'
WRITE (KLOG,*) ' Error in case ',NCASE,' during input/output testing.'
WRITE (KLOG,*) ' STRING1 = ',TRIM(STRING1)
WRITE (KLOG,*) ' STRING2 = ',TRIM(STRING2)
END SUBROUTINE ERRPRT_STR
SUBROUTINE PRTERR(KW2)
USE TEST_VARS
IMPLICIT NONE
INTEGER :: KW2
WRITE (KW2,*) ' Error in case ',NCASE
WRITE (KLOG,*) ' '
WRITE (KLOG,*) ' Error in case ',NCASE
NERROR = NERROR + 1
END SUBROUTINE PRTERR
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