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3 Intel Fortran Language Reference REAL(16) Constants A REAL(16) constant has more than four times the accuracy of a REAL(4) number, and a greater range. A REAL(16) constant occupies 16 bytes of memory. The number of digits that precede the exponent is unlimited, but typically only the leftmost 33 digits are significant. IEEE X_floating format is used. Examples The following examples show valid and invalid REAL(16) constants: Valid 123456789Q4000 –1.23Q–400 +2.72Q0 1.88_16 Invalid Explanation 1.Q5000 Too large. 1.Q–5000 Too small. See Also • “General Rules for Real Constants” • Building Applications for details on the format and range of REAL(16) data Complex Data Types Complex data types can be specified as follows: COMPLEX COMPLEX([KIND=]n) COMPLEX*s DOUBLE COMPLEX n Is kind 4, 8, or 16. s Is 8, 16, or 32. COMPLEX(4) is specified as COMPLEX*8; COMPLEX(8) is specified as COMPLEX*16; COMPLEX(16) is specified as COMPLEX*32. 3-10
Data Types, Constants, and Variables 3 If a kind parameter is specified, the complex constant has the kind specified. If no kind parameter is specified, the kind of both parts is default real, and the constant is of type default complex. Default complex is COMPLEX(4). You can change the default behavior by specifying the compiler option that controls the default real kind. DOUBLE COMPLEX is COMPLEX(8). No kind parameter is permitted for data declared with type DOUBLE COMPLEX. General Rules for Complex Constants A complex constant approximates the value of a mathematical complex number. The constant is a pair of real or integer values, separated by a comma, and enclosed in parentheses. The first constant represents the real part of that number; the second constant represents the imaginary part. The following is the general form of a complex constant: (c,c) c Is as follows: • For COMPLEX(4) constants, c is an integer or REAL(4) constant. • For COMPLEX(8) constants, c is an integer, REAL(4) constant, or DOUBLE PRECISION (REAL(8)) constant. At least one of the pair must be DOUBLE PRECISION. • For COMPLEX(16) constants, c is an integer, REAL(4) constant, REAL(8) constant, or REAL(16) constant. At least one of the pair must be a REAL(16) constant. Note that the comma and parentheses are required. COMPLEX(4) Constants A COMPLEX(4) constant is a pair of integer or single-precision real constants that represent a complex number. A COMPLEX(4) constant occupies eight bytes of memory and is interpreted as a complex number. If the real and imaginary part of a complex literal constant are both real, the kind parameter value is that of the part with the greater decimal precision. The rules for REAL(4) constants apply to REAL(4) constants used in COMPLEX constants. (See “General Rules for Real Constants” and “REAL(4) Constants” for the rules on forming REAL(4) constants.) The REAL(4) constants in a COMPLEX constant have IEEE S_floating format. Examples The following examples show valid and invalid COMPLEX(4) constants: 3-11
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Intel ® Fortran Language Reference
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Contents About This Manual Product
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Contents Variables ................
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Contents Chapter 6 Chapter 7 Dynami
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Contents %LOC Function ............
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Contents DREAL ....................
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Contents MINLOC ...................
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Contents Chapter 10 Data Transfer I
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Contents SP Editing................
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Page 25 and 26: About This Manual This manual conta
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Page 35 and 36: Overview 1 This chapter discusses I
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Specification Statements 5 A specif
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Specification Statements 5 An objec
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Specification Statements 5 Table 5-
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Specification Statements 5 Named co
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Specification Statements 5 As a For
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Specification Statements 5 EQUIVALE
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Specification Statements 5 INTEGER(
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Specification Statements 5 Table 5-
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Specification Statements 5 CHARACTE
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Specification Statements 5 Figure 5
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Specification Statements 5 Examples
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Specification Statements 5 IMPLICIT
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Specification Statements 5 INTENT(I
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Specification Statements 5 NAMELIST
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Specification Statements 5 For exam
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Specification Statements 5 Examples
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Specification Statements 5 MODULE S
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Specification Statements 5 When a S
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VOLATILE Attribute and Statement Sp
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Dynamic Allocation 6 Data objects c
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Dynamic Allocation 6 See Also •
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Dynamic Allocation 6 In contrast to
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Dynamic Allocation 6 Note that when
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Dynamic Allocation 6 After these st
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Execution Control 7 A program norma
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Execution Control 7 label Is the la
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Execution Control 7 ... ASSIGN 10 T
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Execution Control 7 If the Value of
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Execution Control 7 INTEGER L(20) C
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Execution Control 7 • When the ca
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Execution Control 7 You cannot use
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Execution Control 7 CALL SUB_A(Y) E
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Execution Control 7 END DO The DO b
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Execution Control 7 DO 100 K=1,50,2
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Execution Control 7 In a nested DO
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Execution Control 7 You can include
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Execution Control 7 Form Example bl
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Execution Control 7 Effect on Linux
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Execution Control 7 • Appendix A,
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Program Units and Procedures 8 A Fo
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Program Units and Procedures 8 [PRO
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Program Units and Procedures 8 An a
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Program Units and Procedures 8 If a
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Program Units and Procedures 8 •
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Program Units and Procedures 8 BLOC
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Program Units and Procedures 8 Rule
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Program Units and Procedures 8 See
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Program Units and Procedures 8 The
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Program Units and Procedures 8 RESU
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Program Units and Procedures 8 Stat
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Program Units and Procedures 8 Exte
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Program Units and Procedures 8 Opti
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Program Units and Procedures 8 Exam
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Program Units and Procedures 8 INTE
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Program Units and Procedures 8 INTE
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CONTAINS Statement Program Units an
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Program Units and Procedures 8 ENTR
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Intrinsic Procedures 9 Intrinsic pr
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Intrinsic Procedures 9 This chapter
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Intrinsic Procedures 9 Table 9-2 Ca
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Intrinsic Procedures 9 Table 9-4 Sp
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Intrinsic Procedures 9 Negative int
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Intrinsic Procedures 9 Class: Argum
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Intrinsic Procedures 9 Specific Nam
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Intrinsic Procedures 9 Arguments: R
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Intrinsic Procedures 9 Syntax: resu
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Intrinsic Procedures 9 PTR => TAR P
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Intrinsic Procedures 9 ATAN2D ATAND
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Intrinsic Procedures 9 CEILING CHAR
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Intrinsic Procedures 9 Examples If
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Intrinsic Procedures 9 Arguments: x
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Intrinsic Procedures 9 CPU_TIME Exa
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Intrinsic Procedures 9 time (opt) z
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Intrinsic Procedures 9 Syntax: Clas
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Intrinsic Procedures 9 Results: If
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Intrinsic Procedures 9 EOF Descript
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Intrinsic Procedures 9 GETARG retur
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Intrinsic Procedures 9 value (opt)
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Intrinsic Procedures 9 j Must be of
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Intrinsic Procedures 9 LEN Descript
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Intrinsic Procedures 9 The result i
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Intrinsic Procedures 9 MAXEXPONENT
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Intrinsic Procedures 9 The result i
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Intrinsic Procedures 9 PRECISION De
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Intrinsic Procedures 9 Examples PRO
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Intrinsic Procedures 9 QFLOAT Descr
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Intrinsic Procedures 9 RESHAPE Desc
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Intrinsic Procedures 9 Example SHAP
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Intrinsic Procedures 9 SIN Descript
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Intrinsic Procedures 9 123 C is the
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Intrinsic Procedures 9 TAND Descrip
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Intrinsic Procedures 9 Element (i,
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Data Transfer I/O Statements 10 Inp
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Data Transfer I/O Statements 10 io-
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Data Transfer I/O Statements 10 If
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Data Transfer I/O Statements 10 I/O
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Data Transfer I/O Statements 10 I/O
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Data Transfer I/O Statements 10 •
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Data Transfer I/O Statements 10 Exa
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Data Transfer I/O Statements 10 —
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Data Transfer I/O Statements 10 gro
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Data Transfer I/O Statements 10 Arr
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I/O Formatting 11 A format appearin
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I/O Formatting 11 When a formatted
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I/O Formatting 11 PRINT '("NUM can'
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I/O Formatting 11 In input records,
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I/O Formatting 11 Format Value Outp
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I/O Formatting 11 EN Editing The EN
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I/O Formatting 11 Table 11-2 Effect
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I/O Formatting 11 Table 11-3 Size L
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I/O Formatting 11 Variable Format E
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I/O Formatting 11 Table 11-5 Contro
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I/O Formatting 11 Example 11-1 Inte
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File Operation I/O Statements 12 Th
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File Operation I/O Statements 12
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INQUIRE Statement File Operation I/
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Compilation Control Statements 13 I
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Compilation Control Statements 13 E
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Directive Enhanced Compilation 14 D
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Directive Enhanced Compilation 14 O
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Directive Enhanced Compilation 14 A
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Directive Enhanced Compilation 14 M
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Directive Enhanced Compilation 14 I
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Directive Enhanced Compilation 14 !
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Directive Enhanced Compilation 14 T
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Scope and Association 15 Scope Prog
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Scope and Association 14 Table 15-1
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Scope and Association 14 • Within
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Scope and Association 14 Table 15-2
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Deleted and Obsolescent Language Fe
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Deleted and Obsolescent Language Fe
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Additional Language Features B To f
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Additional Language Features B Exam
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Additional Language Features B FIND
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Additional Language Features B EXTE
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Additional Language Features B expr
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Alternative Syntax for the DELETE S
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Additional Language Features B •
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Additional Language Features B Stru
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Additional Language Features B Figu
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Additional Language Features B See
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Additional Language Features B You
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Additional Language Features B Exam
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The ASCII Character Set for Linux S
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The ASCII Character Set for Linux S
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Data Representation Models D Severa
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Data Representation Models D i= (-
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Run-Time Library Routines E Intel®
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Run-Time Library Routines E Table E
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Run-Time Library Routines E QuickWi
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Run-Time Library Routines E USE IFA
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Summary of Language Extensions F Th
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Summary of Language Extensions F
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Summary of Language Extensions F JI
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Glossary This glossary contains ter
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Glossary array pointer A pointer to
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Glossary compilation unit The sourc
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Glossary derived type A data type t
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Glossary end-of-file The condition
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Glossary file access The way record
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Glossary H handle A value (often, b
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Glossary interface block The sequen
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Glossary listing A printed copy of
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Glossary • A constant subobject (
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Glossary • For a data object, the
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Glossary seed A value (which can be
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Glossary statement keyword A word t
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Glossary substring A contiguous por
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Glossary use association The proces
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Index Symbols ! See Exclamation poi
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Index ALIGN option for ATTRIBUTES d
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Index ARRAY_VISUALIZER option for A
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Index ATAN2 function, 9-30 ATAN2D f
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Index Block IF statement, 7-26 See
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Index cDEC$ VECTOR UNALIGNED direct
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Index scope of, 15-2 variables in,
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Index integer, 3-4 literal, 3-1 log
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Index Data abstraction example of,
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Index union, B-19 DECLARE directive
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Index logical, 11-25 real and compl
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Index EXTERNAL attribute and statem
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Index definition of, 11-2 examples
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Index VECTOR ALWAYS (i32), 14-42 VE
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Index definition of, 10-4 inquiring
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Index NAMED specifier in, 12-15 NEX
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Index scope of, 15-2 Internal READ
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Index KIDNNT function, 9-116 KIEOR
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Index Logical I/O units, 10-4 See a
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Index MODULE statement, 8-4 example
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Index Nonexecutable statements, 2-2
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Index data scope attribute clauses
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Index assigning values to targets o
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Index Pure procedures, 8-14 example
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Index EN, 11-19 ES, 11-20 F, 11-15
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Index Result variables in ENTRY sta
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Index SHARED specifier in OPEN stat
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Index EQUIVALENCE, 5-29 executable
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Index See also Internal subprograms
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Index pointer NULL, 9-118 TRANSPOSE
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Index VECTOR UNALIGNED directive (i
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