1834 lines
76 KiB
C
1834 lines
76 KiB
C
/****************************************************************
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* *
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* Copyright 2001, 2012 Fidelity Information Services, Inc *
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* *
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* This source code contains the intellectual property *
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* of its copyright holder(s), and is made available *
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* under a license. If you do not know the terms of *
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* the license, please stop and do not read further. *
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* *
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****************************************************************/
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#ifndef MDEF_included
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#define MDEF_included
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/* mstr needs to be defined before including "mdefsp.h". */
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typedef int mstr_len_t;
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#ifndef __vms
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typedef struct
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{
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unsigned int char_len; /* Character length */
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mstr_len_t len;
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char *addr;
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} mstr;
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# define MSTR_CONST(name, string) mstr name = {0, LEN_AND_LIT(string)}
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# define MSTR_DEF(name, length, string) mstr name = {0, length, string}
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# define MIDENT_CONST(name, string) mident name = {0, LEN_AND_LIT(string)}
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# define MIDENT_DEF(name, length, string) mident name = {0, length, string}
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#else
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typedef struct
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{
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mstr_len_t len; /* Byte length */
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char *addr;
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} mstr;
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# define MSTR_CONST(name, string) mstr name = {LEN_AND_LIT(string)}
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# define MSTR_DEF(name, length, string) mstr name = {length, string}
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# define MIDENT_CONST(name, string) mident name = {LEN_AND_LIT(string)}
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# define MIDENT_DEF(name, length, string) mident name = {length, string}
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#endif
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#define GET_MSTR_LEN(X, Y) GET_ULONG(X, Y)
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#define PUT_MSTR_LEN(X, Y) PUT_ULONG(X, Y)
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#define MEMVCMP(STR1, STR1LEN, STR2, STR2LEN, RESULT) \
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{ \
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int lcl_str1Len, lcl_str2Len; \
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int lcl_minLen, lcl_retVal, lcl_retVal2; \
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\
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lcl_str1Len = STR1LEN; \
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lcl_str2Len = STR2LEN; \
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if (lcl_str1Len < lcl_str2Len) \
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{ \
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lcl_minLen = lcl_str1Len; \
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lcl_retVal = -1; \
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} else if (lcl_str1Len > lcl_str2Len) \
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{ \
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lcl_minLen = lcl_str2Len; \
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lcl_retVal = 1; \
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} else \
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{ \
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lcl_minLen = lcl_str1Len; \
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lcl_retVal = 0; \
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} \
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RESULT = (0 == (lcl_retVal2 = memcmp(STR1, STR2, lcl_minLen))) ? lcl_retVal : lcl_retVal2; \
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}
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/* There are 2 MSTR*CMP macros. One is if the parameters are available as MSTRs and another if the parameters
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* are available as MSTR pointers. Use whichever is appropriate as it saves cycles.
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*/
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#define MSTRP_CMP(x, y, result) MEMVCMP((x)->addr, (x)->len, (y)->addr, (y)->len, result)
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#define MSTR_CMP(x, y, result) MEMVCMP((x).addr, (x).len, (y).addr, (y).len, result)
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#define MSTR_EQ(x, y) (((x)->len == (y)->len) && !memcmp((x)->addr, (y)->addr, (x)->len))
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#include <sys/types.h>
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typedef int int4; /* 4-byte signed integer */
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typedef unsigned int uint4; /* 4-byte unsigned integer */
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#define sssize_t size_t
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#define SHMDT(X) shmdt((void *)(X))
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/* constant needed for FIFO - OS390 redefines in mdefsp.h */
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#define FIFO_PERMISSION 010666 /* fifo with RW permissions for owner, group, other */
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#include <inttypes.h>
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#include "mdefsa.h"
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#include "mdefsp.h"
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#include "gtm_sizeof.h"
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#include "gtm_threadgbl.h"
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/* Anchor for thread-global structure rather than individual global vars */
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GBLREF void *gtm_threadgbl; /* Accessed through TREF macro in gtm_threadgbl.h */
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#ifdef DEBUG
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error_def(ERR_ASSERT);
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#define assert(x) ((x) ? 1 : rts_error(VARLSTCNT(7) ERR_ASSERT, 5, LEN_AND_LIT(__FILE__), __LINE__, (SIZEOF(#x) - 1), (#x)))
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#else
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#define assert(x)
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#endif
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#ifdef GTM64
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# define lvaddr "%016lx"
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#else
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# define lvaddr "%08lx"
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#endif
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/* Define GT.M interlude functions for open, close, pipe, creat and dup system calls. This lets GT.M trace through all file
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* descriptor activity (needed for D9I11-002714). Do this on all Unix platforms. Note that only the macro GTM_FD_TRACE is
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* defined here. gtm_unistd.h and gtm_fcntl.h define the actual GT.M interlude functions based on this macro.
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*/
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#if defined(UNIX)
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# define GTM_FD_TRACE
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# define GTM_FD_TRACE_ONLY(X) X
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#else
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# define GTM_FD_TRACE_ONLY(X)
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#endif
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/* Define what is an invalid file descriptor in Unix and VMS. */
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#if defined(UNIX)
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# define FD_INVALID -1 /* fd of -1 is invalid in Unix posix calls */
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# define FD_INVALID_NONPOSIX FD_INVALID
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#else
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# define FD_INVALID -1 /* fd of -1 is invalid in VMS if using POSIX interface (open/close etc.) */
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# define FD_INVALID_NONPOSIX 0 /* fd of 0 is invalid in VMS if using RMS sys$open calls (non-posix interface) */
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#endif
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/* Now that mdefsp.h is included, GBLDEF should have been #defined. Use it to define STATICDEF for variables
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* and STATICFNDEF, STATICFNDCL for functions. Define STATICDEF to "GBLDEF". This way we know such usages are intended
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* to be "static" but yet can effectively debug these variables since they are externally visible.
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* For functions, do not use the "static" keyword to make them externally visible.
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* Note that a STATICREF for variables does not make sense since statics are supposed to be used only within one module.
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*/
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#define STATICDEF GBLDEF
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#define STATICFNDCL extern
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#define STATICFNDEF
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/* INTPTR_T is an integer that has the same length as a pointer on each platform. Its basic use is for arithmetic
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or generic parameters. For all platforms except Tru64/VMS (alpha platforms), the [U]INTPTR_T types will be
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equivalenced to [u]intptr_t. But since this type is used for alignment and other checking, and since Tru64/VMS
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(implemented as a 32 bit platform) unconditionally sets this type to its 8 char variant, on Tru64/VMS we will
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explicitly make [U]INTPTR_T a 4 byte creature.
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*/
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#if !defined(__alpha)
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typedef intptr_t INTPTR_T;
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typedef uintptr_t UINTPTR_T;
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#else
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typedef int INTPTR_T;
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typedef unsigned int UINTPTR_T;
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#endif
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/* The intszofptr_t type is defined to be basically the same size as an address on the platforms it runs on. So it
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is the same size as INTPTR_T without the connotation of being a pointer. This is used in places where size_t
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or ssize_t would normally be used except they can't be used because they are the wrong size on Alpha systems.
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Classic usage is in places where need consistant integer and pointer sized elements like constructed parameter
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lists or other arrays.
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*/
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typedef INTPTR_T intszofptr_t;
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typedef UINTPTR_T uintszofptr_t;
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#ifdef GTM64
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# define USER_STACK_SIZE 8192
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# define GTM64_ONLY(X) X
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# define NON_GTM64_ONLY(X)
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# define VA_ARG_TYPE long
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# define VA_ARG_TYPE_BOOL int
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# define GTM_IS_64BIT TRUE
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# define GTM_BITNESS_THIS "64-bit"
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# define GTM_BITNESS_OTHER "32-bit"
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#else
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# define USER_STACK_SIZE 4096
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# define GTM64_ONLY(X)
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# define NON_GTM64_ONLY(X) X
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# define VA_ARG_TYPE int
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# define VA_ARG_TYPE_BOOL int
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# define GTM_IS_64BIT FALSE
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# define GTM_BITNESS_THIS "32-bit"
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# define GTM_BITNESS_OTHER "64-bit"
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#endif /* GTM64 */
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#ifdef __CYGWIN__
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# define CYGWIN_ONLY(X) X
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#else
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# define CYGWIN_ONLY(X)
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#endif
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#ifdef __linux__
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# define LINUX_ONLY(X) X
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# define NON_LINUX_ONLY(X)
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#else
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# define LINUX_ONLY(X)
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# define NON_LINUX_ONLY(X) X
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#endif
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#ifdef __MVS__
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# define ZOS_ONLY(X) X
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#else
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# define ZOS_ONLY(X)
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#endif
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#ifdef Linux390
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# define Linux390_ONLY(X) X
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#else
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# define Linux390_ONLY(X)
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#endif
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#if !defined(__alpha) && !defined(__sparc) && !defined(__hpux) && !defined(mips) && !defined(__ia64)
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# define UNALIGNED_ACCESS_SUPPORTED
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#endif
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#if defined(__ia64)
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# define IA64_ONLY(X) X
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# define NON_IA64_ONLY(X)
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# ifdef DEBUG
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# define IA64_DEBUG_ONLY(X) X
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# else
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# define IA64_DEBUG_ONLY(X)
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# endif /* DEBUG */
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#else
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# define IA64_ONLY(X)
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# define NON_IA64_ONLY(X) X
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# define IA64_DEBUG_ONLY(X)
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#endif/* __ia64 */
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#if defined(__ia64) || defined(__MVS__)
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# define INTCAST(X) ((int)(X))
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# define UINTCAST(X) ((uint4)(X))
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# define STRLEN(X) ((int)(strlen(X)))
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# define USTRLEN(X) ((unsigned int)(strlen(X)))
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# define OFFSETOF(X,Y) ((int)(offsetof(X,Y)))
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#else
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# define INTCAST(X) X
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# define UINTCAST(X) X
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# define STRLEN(X) strlen(X)
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# define USTRLEN(X) strlen(X)
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# define OFFSETOF(X,Y) offsetof(X,Y)
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#endif
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/* macro to check that the OFFSET & SIZE of TYPE1.MEMBER1 is identical to that of TYPE2.MEMBER2 */
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#define IS_OFFSET_AND_SIZE_MATCH(TYPE1, MEMBER1, TYPE2, MEMBER2) \
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(SIZEOF(((TYPE1 *)NULL)->MEMBER1) == SIZEOF(((TYPE2 *)NULL)->MEMBER2)) \
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&& (OFFSETOF(TYPE1, MEMBER1) == OFFSETOF(TYPE2, MEMBER2))
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#define IS_OFFSET_MATCH(TYPE1, MEMBER1, TYPE2, MEMBER2) (OFFSETOF(TYPE1, MEMBER1) == OFFSETOF(TYPE2, MEMBER2))
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#define ARRAYSIZE(arr) SIZEOF(arr)/SIZEOF(arr[0]) /* # of elements defined in the array */
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#define ARRAYTOP(arr) (&arr[0] + ARRAYSIZE(arr)) /* address of the TOP of the array (first byte AFTER array limits).
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* use &arr[0] + size instead of &arr[size] to avoid compiler warning.
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*/
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#ifdef __x86_64__
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#define X86_64_ONLY(x) x
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#define NON_X86_64_ONLY(x)
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#else
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#define X86_64_ONLY(x)
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#define NON_X86_64_ONLY(x) x
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#endif /* __x86_64__ */
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#if defined(__i386) || defined(__x86_64__) || defined(__ia64) || defined(__MVS__) || defined(Linux390)
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#define NON_RISC_ONLY(x) x
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#define RISC_ONLY(x)
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#elif defined(__sparc) || defined(_AIX) || defined(__hppa) || defined(__alpha)
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#define RISC_ONLY(x) x
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#define NON_RISC_ONLY(x)
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#endif
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#ifdef _AIX
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# define AIX_ONLY(X) X
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#else
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# define AIX_ONLY(X)
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#endif
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#ifdef __sparc
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# define SPARC_ONLY(X) X
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#else
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#define SPARC_ONLY(X)
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#endif
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#define BITS_PER_UCHAR 8 /* note, C does not require this to be 8, see <limits.h> for definitions of CHAR_BIT and UCHAR_MAX */
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#define MAXPOSINT4 ((int4)0x7fffffff)
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#define MAX_DIGITS_IN_INT 10 /* maximum number of decimal digits in a 4-byte integer */
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#define MAX_DIGITS_IN_INT8 20 /* maximum number of decimal digits in an 8-byte integer */
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#define MAX_HEX_DIGITS_IN_INT 8 /* maximum number of hexadecimal digits in a 4-byte integer */
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#define MAX_HEX_DIGITS_IN_INT8 16 /* maximum number of hexadecimal digits in an 8-byte integer */
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#define MAX_DIGITS_IN_EXP 2 /* maximum number of decimal digits in an exponent */
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#define MAX_HOST_NAME_LEN 256
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#define MAX_LONG_IN_DOUBLE 0xFFFFFFFFFFFFF /*Max Fraction part in IEEE double format*/
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#ifndef _AIX
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# ifndef __sparc
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typedef int boolean_t;
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# endif
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#endif
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typedef char bool;
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typedef unsigned char mreg;
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typedef int4 mint;
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#define PRE_V5_MAX_MIDENT_LEN 8 /* Maximum length of an mident/mname before GT.M V5.0 */
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typedef struct
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{ /* The old mident structure used before V50FT01 */
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char c[PRE_V5_MAX_MIDENT_LEN];
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} pre_v5_mident;
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#define MAX_MIDENT_LEN 31 /* Maximum length of an mident/mname */
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typedef mstr mident;
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typedef struct
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{ /* Although we use 31 chars, the extra byte is to keep things aligned */
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char c[MAX_MIDENT_LEN + 1];
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} mident_fixed;
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#define mid_len(name) strlen(&(name)->c[0]) /* callers of mid_len should include gtm_string.h as well */
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#define MIDENT_CMP(x,y,result) MSTRP_CMP(x, y, result)
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#define MIDENT_EQ(x,y) MSTR_EQ(x, y)
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#ifdef INT8_NATIVE
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# define NATIVE_WSIZE 8
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#else
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# define NATIVE_WSIZE 4
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#endif
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/* Maximum length of entry reference of the form "label+offset^routine" */
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#define MAX_ENTRYREF_LEN (2 * MAX_MIDENT_LEN + MAX_DIGITS_IN_INT + STR_LIT_LEN("+^"))
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/* M name entry used in various structures - variable table (rtnhdr.h), hash table (hashtab_def.h) and
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* global variable (gv_namehead in gdsfhead.h) */
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typedef struct
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{
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mident var_name; /* var_name.addr points to the actual variable name */
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uint4 hash_code; /* hash (scrambled) value of the variable name text */
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boolean_t marked; /* Used when in hashtable entry for xkill (at least) */
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} mname_entry;
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/* The M stack frame on all platforms that follow pv-based linkage model (alpha model)
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* contains a pointer to the base of routine's literal section. All such platforms
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* must define HAS_LITERAL_SECT so that the routines that create a new stack frame
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* initialize literal_ptr field apppropriately.
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*
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*/
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#if defined(__alpha) || defined(_AIX) || defined(__hpux) || defined(__sparc) || defined(__MVS__) || (defined(__linux__) && \
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(defined(__ia64) || defined(__x86_64__) || defined(__s390__)))
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# define HAS_LITERAL_SECT
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#endif
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typedef long ulimit_t; /* NOT int4; the Unix ulimit function returns a value of type long */
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/* Bit definitions for mval type (mvtype) */
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#define MV_NM 1 /* 0x0001 */
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#define MV_INT 2 /* 0x0002
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* Note: this bit is set for integers and non-integers with <= 3 digits after the decimal point */
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#define MV_NUM_MASK 3 /* 0x0003 (MV_NM | MV_INT) */
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#define MV_STR 4 /* 0x0004 */
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#define MV_NUM_APPROX 8 /* 0x0008 */ /* bit set implies value is guaranteed to be part number, part string */
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#define MV_CANONICAL 16 /* 0x0010
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* Note: this bit is set currently only for mvals corresponding to local variable subscripts
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* in lv_tree.c/lv_tree.h. This bit should not be examined/relied-upon anywhere outside lv_tree.c
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*/
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#define MV_SYM 32 /* 0x0020 */
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#define MV_SUBLIT 64 /* 0x0040 */
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#define MV_RETARG 128 /* 0x0080 */
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#define MV_UTF_LEN 256 /* 0x0100 */
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#define MV_ALIASCONT 512 /* 0x0200 */
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#define MV_INT_OFF ~(MV_INT) /* Mask to turn off MV_INT */
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#define MV_STR_OFF ~(MV_STR) /* Mask to turn off MV_STR */
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#define MV_CANONICAL_OFF ~(MV_CANONICAL) /* Mask to turn off MV_CANONICAL */
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#define MV_UTF_LEN_OFF ~(MV_UTF_LEN) /* Mask to turn off MV_UTF_LEN */
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#define MV_EXT_NUM_MASK (MV_NM | MV_INT | MV_CANONICAL)
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/* Special definition used when an xnew'd lv_val is moved from a popped symtab to an earlier
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* one so it can be preserved. This flag marks the lv_val as a pointer to the new symtab so
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* multiple references to it can be resolved.
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*/
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#define MV_LVCOPIED 0xf000
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/* A few more special definitions */
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#define MV_LV_TREE 0xf001 /* An "lvTree" structure has its "ident" field set to this special value */
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#define MV_XBIAS 62
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#define MV_XZERO 0
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#define MV_BIAS 1000
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#define MV_BIAS_PWR 3
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#define NR_REG 16
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#ifndef TRUE
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# define TRUE 1
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#endif
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#ifndef FALSE
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# define FALSE 0
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#endif
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#ifndef NULL
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# define NULL ((void *) 0)
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#endif
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#define NUL 0x00
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#define SP 0x20
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#define DEL 0x7f
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#define MAX_STRLEN_32K 32767
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/* MAX_STRLEN for local variable is changed from 32767 to 1048576 (1 MB) */
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#define MAX_STRLEN (1 * 1024 * 1024) /*maximum GT.M string size (1 MB)*/
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#define MAX_DBSTRLEN (32 * 1024 - 1) /* Maximum database string size */
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/* Initial buffer size allocated for a GT.M string which can geometrically be increased upto the size enough to fit in MAX_STRLEN */
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#define MAX_STRBUFF_INIT (32 * 1024)
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#define MAX_NUM_SIZE 64
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#define MAX_FORM_NUM_SUBLEN 128 /* this is enough to hold the largest numeric subscript */
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#define PERIODIC_FLUSH_CHECK_INTERVAL (30 * 1000)
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#define MAX_ARGS 256 /* in formallist */
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#define MAX_KEY_SZ 255 /* maximum database key size */
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/* The macro ZWR_EXP_RATIO returns the inflated length when converting the internal subscript
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* representation (byte) length to ZWR representation.
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* In "M" mode,
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* Worst case is every other character is non-graphic. e.g. $C(128)_"A"_$C(128).
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* In "UTF-8" mode,
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* Worst case is with a non-graphic character and every other character is an illegal
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* character. Here are the expansion ratios for different ranges of characters.
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* ------------------------------------------------------------------------------
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* Byte pattern max. expanded input byte ratio
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* output length length
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* ------------------------------------------------------------------------------
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* $C(129)_$ZCH(128)_ 18 2 9
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* $C(1536)_$ZCH(128)_ 19 3 7
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* $C(65279)_$ZCH(128)_ 20 4 5
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* $C(917585)_$ZCH(128)_ 21 5 6
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* $C(1114111)_$ZCH(128)_ 22 5 6
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* ------------------------------------------------------------------------------
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* To cover cases of odd numbers of characters, add some buffer.
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*
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* MAX_ZWR_KEY_SZ, on the other hand, needs to be a compile-time constant since it's used in
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* temporary allocation on the stack
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*/
|
|
GBLREF boolean_t gtm_utf8_mode;
|
|
#ifdef UNICODE_SUPPORTED
|
|
# define ZWR_EXP_RATIO(X) ((!gtm_utf8_mode) ? (((X) * 6 + 7)) : ((X) * 9 + 11))
|
|
# define MAX_ZWR_KEY_SZ (MAX_KEY_SZ * 9 + 11)
|
|
# define MAX_ZWR_EXP_RATIO 9
|
|
#else
|
|
# define ZWR_EXP_RATIO(X) ((X) * 6 + 7)
|
|
# define MAX_ZWR_KEY_SZ (MAX_KEY_SZ * 6 + 7)
|
|
# define MAX_ZWR_EXP_RATIO 6
|
|
#endif
|
|
|
|
#define MAX_SYSERR 1000000
|
|
|
|
unsigned char *n2s(mval *mv_ptr);
|
|
char *s2n(mval *u);
|
|
mval *underr (mval *start, ...);
|
|
|
|
#ifdef DEBUG
|
|
# define DBG_ASSERT(X) assert(X),
|
|
#else
|
|
# define DBG_ASSERT(X)
|
|
#endif
|
|
|
|
/* Use the "D" format of these MV_FORCE macros only in those places where there is no possibility of the input being undefined */
|
|
#define MV_FORCE_STR(X) (MV_FORCE_DEFINED(X), MV_FORCE_STRD(X))
|
|
#define MV_FORCE_STRD(X) (DBG_ASSERT(MV_DEFINED(X)) (0 == ((X)->mvtype & MV_STR)) ? n2s(X) : NULL)
|
|
#define MV_FORCE_NUM(X) (MV_FORCE_DEFINED(X), MV_FORCE_NUMD(X))
|
|
#define MV_FORCE_NUMD(X) (DBG_ASSERT(MV_DEFINED(X)) (0 == ((X)->mvtype & MV_NM )) ? s2n(X) : NULL)
|
|
#define MV_FORCE_BOOL(X) (MV_FORCE_NUM(X), (X)->m[1] ? TRUE : FALSE)
|
|
#define MV_FORCE_INT(M) (MV_FORCE_DEFINED(M), MV_FORCE_INTD(M))
|
|
#define MV_FORCE_INTD(M) (DBG_ASSERT(MV_DEFINED(M)) (M)->mvtype & MV_INT ? (M)->m[1]/MV_BIAS : mval2i(M))
|
|
#define MV_FORCE_UMVAL(M,I) (((I) >= 1000000) ? i2usmval((M),(int)(I)) : \
|
|
(void)( (M)->mvtype = MV_NM | MV_INT , (M)->m[1] = (int)(I)*MV_BIAS ))
|
|
#define MV_FORCE_MVAL(M,I) (((I) >= 1000000 || (I) <= -1000000) ? i2mval((M),(int)(I)) : \
|
|
(void)( (M)->mvtype = MV_NM | MV_INT , (M)->m[1] = (int)(I)*MV_BIAS ))
|
|
#ifdef GTM64
|
|
#define MV_FORCE_ULMVAL(M,L) (((L) >= 1000000) ? ul2mval((M),(unsigned long)(L)) : \
|
|
(void)( (M)->mvtype = MV_NM | MV_INT , (M)->m[1] = (int)(L)*MV_BIAS ))
|
|
#define MV_FORCE_LMVAL(M,L) (((L) >= 1000000 || (L) <= -1000000) ? l2mval((M),(long)(L)) : \
|
|
(void)( (M)->mvtype = MV_NM | MV_INT , (M)->m[1] = (int)(L)*MV_BIAS ))
|
|
#else
|
|
#define MV_FORCE_ULMVAL MV_FORCE_UMVAL
|
|
#define MV_FORCE_LMVAL MV_FORCE_MVAL
|
|
#endif
|
|
#define MV_FORCE_DEFINED(X) ((!MV_DEFINED(X)) ? (X) = underr(X) : (X))
|
|
/* Note MV_FORCE_CANONICAL currently only used in op_add() when vars are known to be defined so no MV_FORCE_DEFINED()
|
|
macro has been added. If uses are added, this needs to be revisited. 01/2008 se
|
|
*/
|
|
#define MV_FORCE_CANONICAL(X) ((((X)->mvtype & MV_NM) == 0 ? s2n(X) : 0 ) \
|
|
,((X)->mvtype & MV_NUM_APPROX ? (X)->mvtype &= MV_NUM_MASK : 0 ))
|
|
#define MV_IS_NUMERIC(X) (((X)->mvtype & MV_NM) != 0)
|
|
#define MV_IS_INT(X) (((X)->mvtype & MV_INT) != 0) /* returns TRUE if input has MV_INT bit set */
|
|
#define MV_IS_TRUEINT(X, INTVAL_P) (isint(X, INTVAL_P)) /* returns TRUE if input is a true integer (no fractions) */
|
|
#define MV_IS_STRING(X) (((X)->mvtype & MV_STR) != 0)
|
|
#define MV_DEFINED(X) (((X)->mvtype & (MV_STR | MV_NM)) != 0)
|
|
#define MV_IS_CANONICAL(X) (((X)->mvtype & MV_NM) ? (((X)->mvtype & MV_NUM_APPROX) == 0) : (boolean_t)val_iscan(X))
|
|
#define MV_INIT(X) ((X)->mvtype = 0, (X)->fnpc_indx = 0xff)
|
|
#define MV_INIT_STRING(X, LEN, ADDR) ((X)->mvtype = MV_STR, (X)->fnpc_indx = 0xff, \
|
|
(X)->str.len = INTCAST(LEN), (X)->str.addr = (char *)ADDR)
|
|
|
|
/* The MVTYPE_IS_* macros are similar to the MV_IS_* macros except that the input is an mvtype instead of an "mval *".
|
|
* In the caller, use appropriate macro depending on available input. Preferable to use the MVTYPE_IS_* variant to avoid
|
|
* the (X)->mvtype dereference */
|
|
#define MVTYPE_IS_NUMERIC(X) (0 != ((X) & MV_NM))
|
|
#define MVTYPE_IS_INT(X) (0 != ((X) & MV_INT))
|
|
#define MVTYPE_IS_NUM_APPROX(X) (0 != ((X) & MV_NUM_APPROX))
|
|
#define MVTYPE_IS_STRING(X) (0 != ((X) & MV_STR))
|
|
|
|
/* DEFINE_MVAL_LITERAL is intended to be used to define a string mval where the string is a literal or defined with type
|
|
* "readonly". In other words, the value of the string does not change. Since we expect all callers of this macro to use
|
|
* ASCII literals, the MV_UTF_LEN bit is set in the type, and the character length is set to the same value as the byte length.
|
|
*/
|
|
#define DEFINE_MVAL_LITERAL(TYPE, EXPONENT, SIGN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
DEFINE_MVAL_COMMON(TYPE | MV_UTF_LEN, EXPONENT, SIGN, LENGTH, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH)
|
|
|
|
/* DEFINE_MVAL_STRING is intended to be used to define a string mval where the value of the string can change */
|
|
#define DEFINE_MVAL_STRING(TYPE, EXPONENT, SIGN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, 0, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH)
|
|
|
|
#ifdef VMS
|
|
#define DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, UTF_LEN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
{TYPE, EXPONENT, SIGN, 0xff, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH}
|
|
#else
|
|
#ifdef BIGENDIAN
|
|
#ifdef UNICODE_SUPPORTED
|
|
#define DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, UTF_LEN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
{TYPE, SIGN, EXPONENT, 0xff, MANT_LOW, MANT_HIGH, UTF_LEN, LENGTH, ADDRESS}
|
|
#else
|
|
#define DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, UTF_LEN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
{TYPE, SIGN, EXPONENT, 0xff, MANT_LOW, MANT_HIGH, LENGTH, ADDRESS}
|
|
#endif
|
|
#else /* BIGENDIAN */
|
|
#ifdef UNICODE_SUPPORTED
|
|
#define DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, UTF_LEN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
{TYPE, EXPONENT, SIGN, 0xff, MANT_LOW, MANT_HIGH, UTF_LEN, LENGTH, ADDRESS}
|
|
#else
|
|
#define DEFINE_MVAL_COMMON(TYPE, EXPONENT, SIGN, UTF_LEN, LENGTH, ADDRESS, MANT_LOW, MANT_HIGH) \
|
|
{TYPE, EXPONENT, SIGN, 0xff, MANT_LOW, MANT_HIGH, LENGTH, ADDRESS}
|
|
#endif /* UNICODE */
|
|
#endif /* BIGENDIAN */
|
|
#endif /* VMS */
|
|
|
|
#define ASCII_MAX (unsigned char)0x7F
|
|
#define IS_ASCII(X) ((uint4)(X) <= ASCII_MAX) /* X can be greater than 255 hence the typecast to uint4 */
|
|
|
|
#ifdef UNICODE_SUPPORTED
|
|
# define MV_FORCE_LEN(X) ((!((X)->mvtype & MV_UTF_LEN)) \
|
|
? (utf8_len(&(X)->str), ((X)->mvtype |= MV_UTF_LEN), (X)->str.char_len) \
|
|
: (X)->str.char_len)
|
|
|
|
/* MV_FORCE_LEN_STRICT() is used to ensure that mval is valid in addition to computing the char_len.
|
|
* Note that the validation is always forced even if MV_UTF_LEN is set since the previously computed
|
|
* char_len might have been evaluated in VIEW "NOBADCHAR" setting. */
|
|
# define MV_FORCE_LEN_STRICT(X) (((X)->str.char_len = UTF8_LEN_STRICT((X)->str.addr, (X)->str.len)), \
|
|
((X)->mvtype |= MV_UTF_LEN), (X)->str.char_len)
|
|
|
|
# define MV_IS_SINGLEBYTE(X) (((X)->mvtype & MV_UTF_LEN) && ((X)->str.len == (X)->str.char_len))
|
|
#else
|
|
# define MV_FORCE_LEN(X) ((X)->str.len)
|
|
# define MV_FORCE_LEN_STRICT(X) ((X)->str.len)
|
|
# define MV_IS_SINGLEBYTE(X) (TRUE) /* all characters are single-byte in non-Unicode platforms */
|
|
#endif
|
|
|
|
#define DISK_BLOCK_SIZE 512
|
|
#define LOG2_DISK_BLOCK_SIZE 9
|
|
|
|
#define DIVIDE_ROUND_UP(VALUE, MODULUS) (((VALUE) + ((MODULUS) - 1)) / (MODULUS))
|
|
#define DIVIDE_ROUND_DOWN(VALUE, MODULUS) ((VALUE) / (MODULUS))
|
|
#define ROUND_UP(VALUE, MODULUS) (DIVIDE_ROUND_UP(VALUE, MODULUS) * (MODULUS))
|
|
#define ROUND_DOWN(VALUE, MODULUS) (DIVIDE_ROUND_DOWN(VALUE, MODULUS) * (MODULUS))
|
|
|
|
#ifdef DEBUG
|
|
# define CHECKPOT(MODULUS) ((MODULUS) & ((MODULUS) - 1)) ? GTMASSERT, 0 :
|
|
# define BREAK_IN_PRO__CONTINUE_IN_DBG continue
|
|
# define DEBUG_ONLY(statement) statement
|
|
# define DEBUG_ONLY_COMMA(statement) statement,
|
|
# define PRO_ONLY(statement)
|
|
#else
|
|
# define CHECKPOT(MODULUS)
|
|
# define BREAK_IN_PRO__CONTINUE_IN_DBG break
|
|
# define DEBUG_ONLY(statement)
|
|
# define DEBUG_ONLY_COMMA(statement)
|
|
# define PRO_ONLY(statement) statement
|
|
#endif
|
|
|
|
/* These are the analogs of the preceding, but are more efficient when the MODULUS is a Power Of Two.
|
|
* One thing to watch for is that VALUE could be 8-byte and MODULUS could be 4-bytes. In that case, we
|
|
* want to return an 8-byte value. So need to typecast MODULUS to 8-bytes before we do "& ~(MODULUS -1)"
|
|
* or else that will be a 4-byte value and cause a bitwise & with an 8-byte value resulting in a truncated
|
|
* 8-byte return value (loss of high order bits). We choose sm_long_t to reflect that type as it is 8-bytes
|
|
* on the 64-bit platforms and 4-bytes on the 32-bit platforms. Choosing gtm_uint64_t unconditionally will
|
|
* make it 8-bytes on the 32-bit platforms too and result in warnings due to the 8-byte value eventually being
|
|
* truncated to 4-bytes by the caller after the return from the below macro.
|
|
*/
|
|
#define ROUND_UP2(VALUE, MODULUS) (CHECKPOT(MODULUS) ((VALUE) + ((MODULUS) - 1)) & ~(((sm_long_t)MODULUS) - 1))
|
|
#define ROUND_DOWN2(VALUE, MODULUS) (CHECKPOT(MODULUS) (VALUE) & ~(((sm_long_t)MODULUS) - 1))
|
|
|
|
/* Length needed to pad out to a given power of 2 boundary */
|
|
#define PADLEN(value, bndry) (int)(ROUND_UP2((sm_long_t)(value), bndry) - (sm_long_t)(value))
|
|
|
|
/* LOG2_OF_INTEGER returns the ceiling of log (base 2) of number */
|
|
#define LOG2_OF_INTEGER(number, log2_of_number) \
|
|
{ \
|
|
int temp = (number) - 1; \
|
|
for (log2_of_number = 0; 0 < temp; log2_of_number++) \
|
|
temp = (temp) >> 1; \
|
|
}
|
|
|
|
#define CALLFROM LEN_AND_LIT(__FILE__), __LINE__
|
|
void gtm_assert(int file_name_len, char file_name[], int line_no);
|
|
int gtm_assert2(int condlen, char *condtext, int file_name_len, char file_name[], int line_no);
|
|
#define GTMASSERT (gtm_assert(CALLFROM))
|
|
#define assertpro(x) ((x) ? 1 : gtm_assert2((SIZEOF(#x) - 1), (#x), CALLFROM))
|
|
#ifdef UNIX
|
|
int rts_error(int argcnt, ...);
|
|
void dec_err(uint4 argcnt, ...);
|
|
#elif defined(VMS)
|
|
void dec_err(int4 msgnum, ...);
|
|
#else
|
|
#error unsupported platform
|
|
#endif
|
|
void stx_error(int in_error, ...);
|
|
void ins_errtriple(int4 in_error);
|
|
|
|
int4 timeout2msec(int4 timeout);
|
|
|
|
/* the RTS_ERROR_TEXT macro will stay till all existing references to it have been renamed to RTS_ERROR_{LITERAL,STRING} */
|
|
#define RTS_ERROR_TEXT(STRING) LENGTH_AND_STRING(STRING)
|
|
|
|
/* for those who prefer not remembering the order of the length and the literal/string in the rts_error command line */
|
|
#define RTS_ERROR_LITERAL(LITERAL) LENGTH_AND_LITERAL(LITERAL)
|
|
#define RTS_ERROR_STRING(STRING) LENGTH_AND_STRING(STRING)
|
|
|
|
/* the LITERAL version of the macro should be used over STRING whenever possible for efficiency reasons */
|
|
#define STR_LIT_LEN(LITERAL) (SIZEOF(LITERAL) - 1)
|
|
#define LITERAL_AND_LENGTH(LITERAL) (LITERAL), (SIZEOF(LITERAL) - 1)
|
|
#define LENGTH_AND_LITERAL(LITERAL) (SIZEOF(LITERAL) - 1), (LITERAL)
|
|
#define STRING_AND_LENGTH(STRING) (STRING), (STRLEN((char *)(STRING)))
|
|
#define LENGTH_AND_STRING(STRING) (strlen((char *)(STRING))), (STRING)
|
|
|
|
#define LEN_AND_LIT(LITERAL) LENGTH_AND_LITERAL(LITERAL)
|
|
#define LIT_AND_LEN(LITERAL) LITERAL_AND_LENGTH(LITERAL)
|
|
#define STR_AND_LEN(STRING) STRING_AND_LENGTH(STRING)
|
|
#define LEN_AND_STR(STRING) LENGTH_AND_STRING(STRING)
|
|
|
|
#define MEMCMP_LIT(SOURCE, LITERAL) memcmp(SOURCE, LITERAL, SIZEOF(LITERAL) - 1)
|
|
#define MEMCPY_LIT(TARGET, LITERAL) memcpy(TARGET, LITERAL, SIZEOF(LITERAL) - 1)
|
|
|
|
#define SET_PROCESS_EXITING_TRUE \
|
|
{ \
|
|
GBLREF int process_exiting; \
|
|
\
|
|
process_exiting = TRUE; \
|
|
}
|
|
|
|
/* Macro to copy a source string to a malloced area that is set to the destination pointer.
|
|
* Since it is possible that DST might have multiple pointer dereferences in its usage, we
|
|
* use a local pointer variable and finally assign it to DST thereby avoiding duplication of
|
|
* those pointer dereferences (one for the malloc and one for the strcpy).
|
|
* There are two macros depending on whether a string or literal is passed.
|
|
*/
|
|
#define MALLOC_CPY_STR(DST, SRC) \
|
|
{ \
|
|
char *mcs_ptr; \
|
|
int mcs_len; \
|
|
\
|
|
mcs_len = STRLEN(SRC) + 1; \
|
|
mcs_ptr = malloc(mcs_len); \
|
|
memcpy(mcs_ptr, SRC, mcs_len); \
|
|
DST = mcs_ptr; \
|
|
}
|
|
|
|
#define MALLOC_CPY_LIT(DST, SRC) \
|
|
{ \
|
|
char *mcs_ptr; \
|
|
int mcs_len; \
|
|
\
|
|
mcs_len = SIZEOF(SRC); \
|
|
mcs_ptr = malloc(mcs_len); \
|
|
memcpy(mcs_ptr, SRC, mcs_len); \
|
|
DST = mcs_ptr; \
|
|
}
|
|
|
|
#define MALLOC_INIT(DST, SIZ) \
|
|
{ \
|
|
void *lcl_ptr; \
|
|
\
|
|
lcl_ptr = malloc(SIZ); \
|
|
memset(lcl_ptr, 0, SIZ); \
|
|
DST = lcl_ptr; \
|
|
}
|
|
|
|
/* *********************************************************************************************************** */
|
|
/* Frequently used len + str combinations in macro form. */
|
|
/* *********************************************************************************************************** */
|
|
#define DB_STR_LEN(reg) (reg)->dyn.addr->fname, (reg)->dyn.addr->fname_len
|
|
#define DB_LEN_STR(reg) (reg)->dyn.addr->fname_len, (reg)->dyn.addr->fname
|
|
#define REG_STR_LEN(reg) (reg)->rname, (reg)->rname_len
|
|
#define REG_LEN_STR(reg) (reg)->rname_len, (reg)->rname
|
|
#define JNL_STR_LEN(csd) (csd)->jnl_file_name, (csd)->jnl_file_len
|
|
#define JNL_LEN_STR(csd) (csd)->jnl_file_len, (csd)->jnl_file_name
|
|
|
|
#define FAB_LEN_STR(fab) (fab)->fab$b_fns, (fab)->fab$l_fna
|
|
/* *********************************************************************************************************** */
|
|
|
|
|
|
#ifdef DEBUG
|
|
/* Original debug code has been removed since it was superfluous and did not work on all platforms. SE 03/01 */
|
|
# define SET_TRACEABLE_VAR(var,value) var = value;
|
|
#else
|
|
# define SET_TRACEABLE_VAR(var,value) var = value;
|
|
#endif
|
|
|
|
/* If this is unix, we have a faster sleep for short sleeps ( < 1 second) than doing a hiber start.
|
|
* Take this chance to define UNIX_ONLY and VMS_ONLY macros.
|
|
*/
|
|
int m_usleep(int useconds);
|
|
#ifdef UNIX
|
|
# define SHORT_SLEEP(x) {assert(1000 > (x)); m_usleep((x) * 1000);}
|
|
#else
|
|
# define SHORT_SLEEP(x) hiber_start(x);
|
|
#endif
|
|
|
|
/* The following "MSYNC" defines are for the MM access method
|
|
* NO_MSYNC -- minimum number of msyncs -- only in run down
|
|
* UNTARGETED_MSYNC -- msync the entire file
|
|
* TARGETED_MSYNC -- keep track of changed buffers and only msync them
|
|
* REGULAR_MSYNC -- do regular file I/O on the mapped file (ignoring the fact it is mapped)
|
|
*
|
|
* If none of the MSYNCs are explicitly defined, the ifdef and elif defined sequence will fall through
|
|
* to the else case, defining NO_MSYNC as the default.
|
|
*/
|
|
#ifdef UNIX
|
|
# define UNIX_ONLY(X) X
|
|
# define UNIX_ONLY_COMMA(X) X,
|
|
# if defined UNTARGETED_MSYNC
|
|
# define UNTARGETED_MSYNC_ONLY(X) X
|
|
# define NON_UNTARGETED_MSYNC_ONLY(X)
|
|
# define TARGETED_MSYNC_ONLY(X)
|
|
# define NON_TARGETED_MSYNC_ONLY(X) X
|
|
# define REGULAR_MSYNC_ONLY(X)
|
|
# define NON_REGULAR_MSYNC_ONLY(X) X
|
|
# define NO_MSYNC_ONLY(X)
|
|
# define NON_NO_MSYNC_ONLY(X)
|
|
# elif defined TARGETED_MSYNC
|
|
# define UNTARGETED_MSYNC_ONLY(X)
|
|
# define NON_UNTARGETED_MSYNC_ONLY(X) X
|
|
# define TARGETED_MSYNC_ONLY(X) X
|
|
# define NON_TARGETED_MSYNC_ONLY(X)
|
|
# define REGULAR_MSYNC_ONLY(X)
|
|
# define NON_REGULAR_MSYNC_ONLY(X) X
|
|
# define NO_MSYNC_ONLY(X)
|
|
# define NON_NO_MSYNC_ONLY(X)
|
|
# elif defined REGULAR_MSYNC
|
|
# define UNTARGETED_MSYNC_ONLY(X)
|
|
# define NON_UNTARGETED_MSYNC_ONLY(X) X
|
|
# define TARGETED_MSYNC_ONLY(X)
|
|
# define NON_TARGETED_MSYNC_ONLY(X) X
|
|
# define REGULAR_MSYNC_ONLY(X) X
|
|
# define NON_REGULAR_MSYNC_ONLY(X)
|
|
# define NO_MSYNC_ONLY(X)
|
|
# define NON_NO_MSYNC_ONLY(X)
|
|
# else
|
|
# define NO_MSYNC
|
|
# define UNTARGETED_MSYNC_ONLY(X)
|
|
# define NON_UNTARGETED_MSYNC_ONLY(X)
|
|
# define TARGETED_MSYNC_ONLY(X)
|
|
# define NON_TARGETED_MSYNC_ONLY(X)
|
|
# define REGULAR_MSYNC_ONLY(X)
|
|
# define NON_REGULAR_MSYNC_ONLY(X)
|
|
# define NO_MSYNC_ONLY(X) X
|
|
# define NON_NO_MSYNC_ONLY(X)
|
|
# endif
|
|
#else
|
|
# define UNIX_ONLY(X)
|
|
# define UNIX_ONLY_COMMA(X)
|
|
# define UNTARGETED_MSYNC_ONLY(X)
|
|
# define TARGETED_MSYNC_ONLY(X)
|
|
# define REGULAR_MSYNC_ONLY(X)
|
|
# define NON_UNTARGETED_MSYNC_ONLY(X)
|
|
# define NON_TARGETED_MSYNC_ONLY(X)
|
|
# define NON_REGULAR_MSYNC_ONLY(X)
|
|
# define NO_MSYNC_ONLY(X)
|
|
# define NON_NO_MSYNC_ONLY(X)
|
|
#endif
|
|
|
|
/* HP-UX on PA-RISC and z/OS are not able to have dynamic file extensions while running in MM access mode
|
|
* HP-UX:
|
|
* All HP-UX before v3 (PA-RISC and 11i v1 and v2) have distinct memory map buffers and file system buffers with no simple
|
|
* way to map between them. To get around this problem the "Unified File Cache" was implemented in v3 for both Itanium
|
|
* and PA-RISC which solves things. The only way around the limitation in v1 and v2 would be to strategically place calls
|
|
* to "msync" throughout the code to keep the memory maps and file cache buffers in sync. This is too onerous a price
|
|
* to pay.
|
|
* z/OS:
|
|
* If multiple processes are accessing the same mapped file, and one process needs to extend/remap the file,
|
|
* all the other processes must also unmap the file.
|
|
*
|
|
* This same comment is in the test framework in set_gtm_machtype.csh. If this comment is updated, also update the other.
|
|
*/
|
|
#ifdef UNIX
|
|
# if !defined(__hppa) && !defined(__MVS__)
|
|
# define MM_FILE_EXT_OK
|
|
# else
|
|
# undef MM_FILE_EXT_OK
|
|
# endif
|
|
#endif
|
|
|
|
#ifdef VMS
|
|
# define VMS_ONLY(X) X
|
|
# define VMS_ONLY_COMMA(X) X,
|
|
#else
|
|
# define VMS_ONLY(X)
|
|
# define VMS_ONLY_COMMA(X)
|
|
#endif
|
|
|
|
#if (defined(UNIX) || defined(VMS))
|
|
# define UNSUPPORTED_PLATFORM_CHECK
|
|
#else
|
|
# define UNSUPPORTED_PLATFORM_CHECK #error UNSUPPORTED PLATFORM
|
|
#endif
|
|
|
|
/* Note the macros below refer to the UNIX Shared Binary Support. Because the
|
|
support is *specifically* for the Unix platform, "NON_USHBIN_ONLY()" will
|
|
also be true for VMS even though that platform does have shared binary support
|
|
(but it does not have Unix Shared Binary support). Use "NON_USHBIN_UNIX_ONLY()"
|
|
for UNIX platforms that do not support Shared Binaries. */
|
|
#ifdef USHBIN_SUPPORTED
|
|
# define USHBIN_ONLY(X) X
|
|
# define NON_USHBIN_ONLY(X)
|
|
# define NON_USHBIN_UNIX_ONLY(X)
|
|
#else
|
|
# define USHBIN_ONLY(X)
|
|
# define NON_USHBIN_ONLY(X) X
|
|
# ifdef UNIX
|
|
# define NON_USHBIN_UNIX_ONLY(X) X
|
|
# else
|
|
# define NON_USHBIN_UNIX_ONLY(X)
|
|
# endif
|
|
#endif
|
|
|
|
/* Unicode. Although most (all?) Unix platforms currently support Unicode, that may
|
|
not always be the case so a separate contingent is defined.
|
|
*/
|
|
#ifdef UNICODE_SUPPORTED
|
|
# define UNICODE_ONLY(X) X
|
|
# define NON_UNICODE_ONLY(X)
|
|
#else
|
|
# define UNICODE_ONLY(X)
|
|
# define NON_UNICODE_ONLY(X) X
|
|
#endif
|
|
|
|
/* Note: LONG_SLEEP *MUST*NOT* be the sleep() function because use of the sleep() function in
|
|
GT.M causes problems with GT.M's timers on some platforms. Specifically, the sleep() function
|
|
causes the SIGARLM handler to be silently deleted on Solaris systems (through Solaris 9 at least).
|
|
This leads to lost timer pops and has the potential for system hangs.
|
|
*/
|
|
#define LONG_SLEEP(x) hiber_start((x) * 1000)
|
|
|
|
#define OS_PAGE_SIZE gtm_os_page_size
|
|
#define OS_PAGE_SIZE_DECLARE GBLREF int4 gtm_os_page_size;
|
|
#ifdef VMS
|
|
# define MAX_IO_BLOCK_SIZE DISK_BLOCK_SIZE
|
|
#else
|
|
# define MAX_IO_BLOCK_SIZE 65536
|
|
#endif
|
|
|
|
#ifndef GTM_INT64T_DEFINED
|
|
#define GTM_INT64T_DEFINED
|
|
typedef uint64_t gtm_uint64_t;
|
|
typedef int64_t gtm_int64_t;
|
|
#endif
|
|
|
|
typedef INTPTR_T sm_off_t;
|
|
|
|
/* HPPA latches (used by load_and_clear) must be 16 byte aligned.
|
|
* By allocating 16 bytes, the routines and macros used to access the latch can do the alignment.
|
|
* Since nothing else should follow to avoid cache threshing, this doesn't really waste space.
|
|
* Note that the additional space for this latch is only allocated on HPPA. All other platforms
|
|
* have a "sensible" compare-and-swap type lock using the first two words in the latch.
|
|
*/
|
|
typedef struct
|
|
{
|
|
union
|
|
{
|
|
gtm_uint64_t pid_imgcnt; /* Combined atomic (unique) process id used on VMS */
|
|
struct
|
|
{
|
|
volatile int4 latch_pid; /* (Usually) Process id of latch holder or LOCK_AVAILABLE. On VMS
|
|
this word may have other values. */
|
|
volatile int4 latch_word; /* Extra word associated with lock (sometimes bci lock or image cnt
|
|
for VMS) */
|
|
} parts;
|
|
} u;
|
|
#if defined __hppa
|
|
volatile int4 hp_latch_space[4]; /* Used for HP load_and_clear locking instructions per
|
|
HP whitepaper on spinlocks */
|
|
#endif
|
|
} global_latch_t;
|
|
#define latch_image_count latch_word
|
|
|
|
#define GLOBAL_LATCH_HELD_BY_US(latch) (process_id == (latch)->u.parts.latch_pid \
|
|
VMS_ONLY(&& image_count == (latch)->u.parts.latch_image_count))
|
|
|
|
typedef union gtm_time8_struct
|
|
{
|
|
time_t ctime; /* For current GTM code sem_ctime field corresponds to creation time */
|
|
int4 filler[2]; /* Filler to ensure size is 2 words on all platforms */
|
|
} gtm_time8;
|
|
|
|
typedef uint4 gtm_time4_t;
|
|
|
|
typedef struct
|
|
{
|
|
sm_off_t fl; /* forward link - relative offset from beginning of this element to next element in queue */
|
|
sm_off_t bl; /* backward link - relative offset from beginning of this element to previous element in queue */
|
|
} que_ent; /* this structure is intended to be identical to the first two items in a cache_que_head */
|
|
|
|
typedef struct
|
|
{
|
|
sm_off_t fl; /* forward link - relative offset from beginning of this element to next element in queue */
|
|
sm_off_t bl; /* backward link - relative offset from beginning of this element to previous element in queue */
|
|
global_latch_t latch; /* required for platforms without atomic operations to modify both fl and bl concurrently;
|
|
* unused on platforms with such instructions. */
|
|
} que_head, cache_que_head, mmblk_que_head;
|
|
|
|
#define IS_PTR_ALIGNED(ptr, ptr_base, elemSize) \
|
|
(0 == ((((sm_uc_ptr_t)(ptr)) - ((sm_uc_ptr_t)(ptr_base))) % elemSize))
|
|
#define IS_PTR_IN_RANGE(ptr, ptr_lo, ptr_hi) \
|
|
(((sm_uc_ptr_t)(ptr) >= (sm_uc_ptr_t)(ptr_lo)) && ((sm_uc_ptr_t)(ptr) < (sm_uc_ptr_t)(ptr_hi)))
|
|
|
|
#define IS_PTR_2BYTE_ALIGNED(ptr) (0 == (((uintszofptr_t)ptr) % 2))
|
|
#define IS_PTR_4BYTE_ALIGNED(ptr) (0 == (((uintszofptr_t)ptr) % 4))
|
|
#define IS_PTR_8BYTE_ALIGNED(ptr) (0 == (((uintszofptr_t)ptr) % 8))
|
|
|
|
#ifdef DB64
|
|
# ifdef __osf__
|
|
# pragma pointer_size(save)
|
|
# pragma pointer_size(long)
|
|
# else
|
|
# error UNSUPPORTED PLATFORM
|
|
# endif
|
|
#endif
|
|
|
|
typedef que_ent * que_ent_ptr_t;
|
|
typedef que_head * que_head_ptr_t;
|
|
|
|
#ifdef DB64
|
|
# ifdef __osf__
|
|
# pragma pointer_size(restore)
|
|
# endif
|
|
#endif
|
|
|
|
/* Define 8-bytes as a structure containing 2-byte array of uint4s. Overlay this structure upon an 8 byte quantity for easy
|
|
* access to the lower or upper 4 bytes using lsb_index and msb_index respectively.
|
|
*/
|
|
typedef struct
|
|
{
|
|
uint4 value[2];
|
|
} non_native_uint8;
|
|
|
|
# define BIG_ENDIAN_MARKER 'B' /* to denote BIG-ENDIAN machine */
|
|
# define LITTLE_ENDIAN_MARKER 'L' /* to denote LITTLE-ENDIAN machine */
|
|
|
|
#ifdef BIGENDIAN
|
|
# define msb_index 0
|
|
# define lsb_index 1
|
|
# define NODE_ENDIANNESS BIG_ENDIAN_MARKER
|
|
# define ENDIANTHIS "BIG"
|
|
# define ENDIANOTHER "LITTLE"
|
|
# define ENDIANTHISJUSTIFY " BIG" /* right justified */
|
|
# define GTM_IS_LITTLE_ENDIAN FALSE
|
|
# define BIGENDIAN_ONLY(X) X
|
|
# define LITTLEENDIAN_ONLY(X)
|
|
#else
|
|
# define msb_index 1
|
|
# define lsb_index 0
|
|
# define NODE_ENDIANNESS LITTLE_ENDIAN_MARKER
|
|
# define ENDIANTHIS "LITTLE"
|
|
# define ENDIANOTHER "BIG"
|
|
# define ENDIANTHISJUSTIFY "LITTLE" /* right justified */
|
|
# define GTM_IS_LITTLE_ENDIAN TRUE
|
|
# define BIGENDIAN_ONLY(X)
|
|
# define LITTLEENDIAN_ONLY(X) X
|
|
#endif
|
|
|
|
#ifdef INT8_SUPPORTED
|
|
typedef gtm_uint64_t qw_num;
|
|
typedef gtm_uint64_t seq_num; /* Define 8-byte sequence number */
|
|
typedef gtm_uint64_t token_num; /* Define 8-byte token number */
|
|
typedef gtm_uint64_t qw_off_t; /* quad-word offset */
|
|
# define DWASSIGNQW(A,B) (A)=(uint4)(B)
|
|
# define QWASSIGN(A,B) (A)=(B)
|
|
# define QWASSIGNDW(A,B) QWASSIGN((A),(gtm_uint64_t)(B))
|
|
# define QWASSIGN2DW(A,B,C) QWASSIGN((A),(gtm_uint64_t)(B) << 32 | (C))
|
|
# define QWADD(A,B,C) (A)=(B)+(C)
|
|
# define QWSUB(A,B,C) (A)=(B)-(C)
|
|
# define QWADDDW(A,B,C) (A)=(B)+(gtm_uint64_t)(C)
|
|
# define QWSUBDW(A,B,C) (A)=(B)-(gtm_uint64_t)(C)
|
|
# define QWINCRBY(A,B) (A)+=(B)
|
|
# define QWDECRBY(A,B) (A)-=(B)
|
|
# define QWINCRBYDW(A,B) (A)+=(gtm_uint64_t)(B)
|
|
# define QWDECRBYDW(A,B) (A)-=(gtm_uint64_t)(B)
|
|
# define QWMULBYDW(A,B,C) (A)=(B)*(C)
|
|
# define QWDIVIDEBYDW(A,B,Q,R) {(R)=(int)((A)%(B)); (Q)=(A)/(B);}
|
|
# define QWMODDW(A,B) ((A)%(B))
|
|
# define QWLE(A,B) ((A)<=(B))
|
|
# define QWLT(A,B) ((A)<(B))
|
|
# define QWGE(A,B) ((A)>=(B))
|
|
# define QWGT(A,B) ((A)>(B))
|
|
# define QWEQ(A,B) ((A)==(B))
|
|
# define QWNE(A,B) ((A)!=(B))
|
|
# define INT8_PRINT(x) x
|
|
# define INT8_PRINTX(x) x
|
|
# define INT8_ONLY(x) x
|
|
#else
|
|
typedef struct non_native_uint8 qw_num;
|
|
typedef struct non_native_uint8 seq_num;
|
|
typedef struct non_native_uint8 token_num;
|
|
typedef struct non_native_uint8 qw_off_t;
|
|
|
|
# define DWASSIGNQW(A,B) (A)=(B).value[lsb_index]
|
|
# define QWASSIGN(A,B) (A)=(B)
|
|
# define QWASSIGNDW(A,B) {(A).value[msb_index]=0; (A).value[lsb_index]=B;}
|
|
# define QWASSIGN2DW(A,B,C) {(A).value[msb_index]=B; (A).value[lsb_index]=C;}
|
|
# define QWADD(A,B,C) { \
|
|
uint4 temp; \
|
|
temp = (B).value[lsb_index]; \
|
|
(A).value[lsb_index]=(B).value[lsb_index]+(C).value[lsb_index]; \
|
|
(A).value[msb_index]=(B).value[msb_index]+(C).value[msb_index]; \
|
|
if ((A).value[lsb_index] < temp) (A).value[msb_index]++; \
|
|
}
|
|
# define QWSUB(A,B,C) { \
|
|
uint4 temp; \
|
|
temp = (B).value[lsb_index]; \
|
|
(A).value[lsb_index]=(B).value[lsb_index]-(C).value[lsb_index]; \
|
|
(A).value[msb_index]=(B).value[msb_index]-(C).value[msb_index]; \
|
|
if ((A).value[lsb_index] > temp) (A).value[msb_index]--; \
|
|
}
|
|
# define QWADDDW(A,B,C) { \
|
|
uint4 temp; \
|
|
temp = (B).value[lsb_index]; \
|
|
(A).value[lsb_index]=(B).value[lsb_index]+C; \
|
|
(A).value[msb_index]=(B).value[msb_index]; \
|
|
if ((A).value[lsb_index] < temp) (A).value[msb_index]++; \
|
|
}
|
|
# define QWSUBDW(A,B,C) { \
|
|
uint4 temp; \
|
|
temp = (B).value[lsb_index]; \
|
|
(A).value[lsb_index]=(B).value[lsb_index]-(C); \
|
|
(A).value[msb_index]=(B).value[msb_index]; \
|
|
if ((A).value[lsb_index] > temp) (A).value[msb_index]--; \
|
|
}
|
|
# define QWINCRBY(A,B) QWADD(A,A,B)
|
|
# define QWDECRBY(A,B) QWSUB(A,A,B)
|
|
# define QWINCRBYDW(A,B) QWADDDW(A,A,B)
|
|
# define QWDECRBYDW(A,B) QWSUBDW(A,A,B)
|
|
|
|
/* B should be less than 64K for the QWDIDIVEBYDW, QWMODDW macros to work correctly */
|
|
|
|
# define QWMULBYDW(A,B,C) { \
|
|
uint4 bh, bl, ch, cl, temp, temp1, temp2; \
|
|
(A).value[msb_index] = (B).value[msb_index] * (C); \
|
|
bl = (B).value[lsb_index] & 0x0000ffff; \
|
|
bh = ((B).value[lsb_index] & 0xffff0000) >> 16; \
|
|
cl = (C) & 0x0000ffff; \
|
|
ch = ((C) & 0xffff0000) >> 16; \
|
|
(A).value[msb_index] += bh * ch; \
|
|
(A).value[lsb_index] = bl * cl; \
|
|
temp = temp1 = bh * cl; \
|
|
temp += bl * ch; \
|
|
if (temp1 > temp) \
|
|
(A).value[msb_index] += 0x00010000; \
|
|
temp2 = (A).value[lsb_index]; \
|
|
(A).value[lsb_index] += (temp & 0x0000ffff) << 16; \
|
|
if ((A).value[lsb_index] < temp2) \
|
|
(A).value[msb_index] ++; \
|
|
(A).value[msb_index] += (temp & 0xffff0000) >> 16; \
|
|
}
|
|
# define QWDIVIDEBYDW(A,B,Q,R) { \
|
|
uint4 msbr, lsbq, twoq, twor; \
|
|
(R) = (A).value[lsb_index] % (B); \
|
|
lsbq = (A).value[lsb_index] / (B); \
|
|
msbr = A.value[msb_index] % B; \
|
|
(Q).value[msb_index] = (A).value[msb_index] / (B); \
|
|
twoq = ((uint4)-1) / (B); \
|
|
twor = (((uint4)-1) % (B) + 1) % (B); \
|
|
if (0 == twor) \
|
|
twoq++; \
|
|
(Q).value[lsb_index] = lsbq; \
|
|
(Q).value[lsb_index] += twoq * msbr; \
|
|
if ((Q).value[lsb_index] < lsbq) \
|
|
(Q).value[msb_index]++; \
|
|
(R) = (R) + (twor * msbr) % (B); \
|
|
lsbq = (Q).value[lsb_index]; \
|
|
(Q).value[lsb_index] += (twor * msbr) / (B); \
|
|
if ((R) > (B)) \
|
|
{ \
|
|
(R) -= (B); \
|
|
(Q).value[lsb_index]++; \
|
|
} \
|
|
if ((Q).value[lsb_index] < lsbq) \
|
|
(Q).value[msb_index]++; \
|
|
}
|
|
# define QWMODDW(A,B) ((((A).value[msb_index] % (B)) * (((uint4)-1) % (B) + 1) \
|
|
+ (A).value[lsb_index]) % (B))
|
|
# define QWLE(A,B) ((A).value[msb_index] < (B).value[msb_index] || \
|
|
((A).value[msb_index] == (B).value[msb_index] \
|
|
&& (A).value[lsb_index] <= (B).value[lsb_index]))
|
|
# define QWLT(A,B) ((A).value[msb_index] < (B).value[msb_index] || \
|
|
((A).value[msb_index] == (B).value[msb_index] \
|
|
&& (A).value[lsb_index] < (B).value[lsb_index]))
|
|
# define QWGE(A,B) ((A).value[msb_index] > (B).value[msb_index] || \
|
|
((A).value[msb_index] == (B).value[msb_index] \
|
|
&& (A).value[lsb_index] >= (B).value[lsb_index]))
|
|
# define QWGT(A,B) ((A).value[msb_index] > (B).value[msb_index] || \
|
|
((A).value[msb_index] == (B).value[msb_index] \
|
|
&& (A).value[lsb_index] > (B).value[lsb_index]))
|
|
# define QWEQ(A,B) ((A).value[msb_index] == (B).value[msb_index] \
|
|
&& (A).value[lsb_index] == (B).value[lsb_index])
|
|
# define QWNE(A,B) ((A).value[msb_index] != (B).value[msb_index] \
|
|
|| (A).value[lsb_index] != (B).value[lsb_index])
|
|
# define INT8_FMT "%s"
|
|
# define INT8_FMTX "[0x%s]"
|
|
# define INT8_PRINT(x) (seq_num_ptr = i2ascl(seq_num_str, x), \
|
|
seq_num_str[seq_num_ptr - &seq_num_str[0]] = '\0', seq_num_str)
|
|
# define INT8_PRINTX(x) (seq_num_ptrx = i2asclx(seq_num_strx, x), \
|
|
seq_num_strx[seq_num_ptrx - &seq_num_strx[0]] = '\0', seq_num_strx)
|
|
# define INT8_ONLY(x)
|
|
#endif
|
|
|
|
#define MAX_SEQNO ((seq_num)-1) /* actually 0xFFFFFFFFFFFFFFFF (max possible seqno) */
|
|
|
|
|
|
/* The HPUX Itanium compiler is giving warnings whenever a cast is being done and there is a potential alignment change */
|
|
/* The RECAST macro will eliminate these warnings by first casting to (void *) before the doing the ultimate cast */
|
|
|
|
#define RECAST(type) (type)(void_ptr_t)
|
|
|
|
/* Define some basic types for shared memory (sm) access depending on whether the platform we are */
|
|
/* using is capable of supporting 32 or 64 bit pointers or not. */
|
|
|
|
#if defined(DB64) || defined(GTM64)
|
|
# if defined(__osf__) && defined(__alpha)
|
|
# pragma pointer_size(save)
|
|
# pragma pointer_size(long)
|
|
# endif
|
|
typedef char *char_ptr_t; /* Define 64 bit pointer to char */
|
|
typedef unsigned char *uchar_ptr_t; /* Define 64 bit pointer to unsigned char */
|
|
typedef short *short_ptr_t; /* Define 64 bit pointer to short */
|
|
typedef unsigned short *ushort_ptr_t; /* Define 64 bit pointer to unsigned short */
|
|
typedef int4 *int_ptr_t; /* Define 64 bit pointer to int */
|
|
typedef volatile int4 *vint_ptr_t; /* Define 64 bit pointer to volatile int */
|
|
typedef uint4 *uint_ptr_t; /* Define 64 bit pointer to uint */
|
|
typedef volatile uint4 *vuint_ptr_t; /* Define 64 bit pointer to volatile uint */
|
|
typedef void *void_ptr_t; /* Define 64 bit pointer to void */
|
|
typedef qw_num *qw_num_ptr_t; /* Define 64 bit pointer to qw_num */
|
|
typedef latch_t *latch_ptr_t; /* Define 64 bit pointer to latch_t */
|
|
typedef ulatch_t *ulatch_ptr_t; /* Define 64 bit pointer to ulatch_t */
|
|
|
|
/* Shared memory connotation */
|
|
typedef char_ptr_t sm_c_ptr_t; /* Define 64 bit pointer to char */
|
|
typedef uchar_ptr_t sm_uc_ptr_t; /* Define 64 bit pointer to unsigned char */
|
|
typedef short_ptr_t sm_short_ptr_t; /* Define 64 bit pointer to short */
|
|
typedef ushort_ptr_t sm_ushort_ptr_t; /* Define 64 bit pointer to unsigned short */
|
|
typedef int_ptr_t sm_int_ptr_t; /* Define 64 bit pointer to int */
|
|
typedef vint_ptr_t sm_vint_ptr_t; /* Define 64 bit pointer to volatile int */
|
|
typedef uint_ptr_t sm_uint_ptr_t; /* Define 64 bit pointer to uint */
|
|
typedef vuint_ptr_t sm_vuint_ptr_t; /* Define 64 bit pointer to volatile uint */
|
|
typedef gtm_int64_t sm_long_t; /* Define 64 bit integer type */
|
|
typedef gtm_uint64_t sm_ulong_t; /* Define 64 bit unsigned integer type */
|
|
typedef global_latch_t *sm_global_latch_ptr_t; /* Define 64 bit pointer to hp_latch */
|
|
# ifdef __osf__
|
|
# pragma pointer_size(restore)
|
|
# endif
|
|
/* The macro FILL8DCL (explained below) is simple on a 64 bit system since all 64 bits
|
|
will be declared and used. */
|
|
# define FILL8DCL(type,name,fillnum) type name
|
|
#else
|
|
typedef char *char_ptr_t; /* Define 32 bit pointer to char */
|
|
typedef unsigned char *uchar_ptr_t; /* Define 32 bit pointer to unsigned char */
|
|
typedef short *short_ptr_t; /* Define 32 bit pointer to short */
|
|
typedef unsigned short *ushort_ptr_t; /* Define 32 bit pointer to unsigned short */
|
|
typedef int4 *int_ptr_t; /* Define 32 bit pointer to int */
|
|
typedef volatile int4 *vint_ptr_t; /* Define 32 bit pointer to volatile int */
|
|
typedef uint4 *uint_ptr_t; /* Define 32 bit pointer to uint */
|
|
typedef volatile uint4 *vuint_ptr_t; /* Define 32 bit pointer to volatile uint */
|
|
typedef void *void_ptr_t; /* Define 32 bit pointer to void */
|
|
typedef qw_num *qw_num_ptr_t; /* Define 32 bit pointer to qw_num */
|
|
typedef latch_t *latch_ptr_t; /* Define 32 bit pointer to latch_t */
|
|
typedef ulatch_t *ulatch_ptr_t; /* Define 32 bit pointer to ulatch_t */
|
|
|
|
/* Shared memory connotation */
|
|
typedef char_ptr_t sm_c_ptr_t; /* Define 32 bit pointer to char */
|
|
typedef uchar_ptr_t sm_uc_ptr_t; /* Define 32 bit pointer to unsigned char */
|
|
typedef short_ptr_t sm_short_ptr_t; /* Define 32 bit pointer to short */
|
|
typedef ushort_ptr_t sm_ushort_ptr_t; /* Define 32 bit pointer to unsigned short */
|
|
typedef int_ptr_t sm_int_ptr_t; /* Define 32 bit pointer to int */
|
|
typedef vint_ptr_t sm_vint_ptr_t; /* Define 32 bit pointer to volatile int */
|
|
typedef uint_ptr_t sm_uint_ptr_t; /* Define 32 bit pointer to uint */
|
|
typedef vuint_ptr_t sm_vuint_ptr_t; /* Define 32 bit pointer to volatile uint */
|
|
typedef INTPTR_T sm_long_t; /* Define 32 bit integer type */
|
|
typedef UINTPTR_T sm_ulong_t; /* Define 32 bit unsigned integer type */
|
|
typedef global_latch_t *sm_global_latch_ptr_t; /* Define 32 bit pointer to hp_latch */
|
|
/* The macro FILL8DCL is used (on a 32 bit system) to provide a filler area of 32 bits and
|
|
the actual 32 bit declared area. Whether the high order word or the low order word of
|
|
the 64 bit area should be filler depends on the endian mode of the machine. This macro
|
|
will be defined to take care of that for us. */
|
|
# ifdef BIGENDIAN
|
|
# define FILL8DCL(type,name,fillnum) type fill##fillnum,name
|
|
# else
|
|
# define FILL8DCL(type,name,fillnum) type name,fill##fillnum
|
|
# endif
|
|
#endif
|
|
|
|
/* Need to define a type for storing pointer differences */
|
|
typedef INTPTR_T ptroff_t;
|
|
|
|
/* Need to define a consistently sized off_t type. Some platforms it is 4 bytes, others it is
|
|
4 or 8 bytes depending on flags. The following OFF_T macro is setup to allow the size of the
|
|
variable declared by it to always take up 8 bytes for alignment purposes. If the OFF_T_LONG
|
|
value is set, we will expect the size of 'off_t' to be 8 bytes. An assert will be placed in
|
|
gtm.c to verify this. */
|
|
|
|
#ifdef OFF_T_LONG
|
|
# define OFF_T(name,fillnum) off_t name
|
|
#else
|
|
# define OFF_T(name,fillnum) FILL8DCL(off_t,name,fillnum)
|
|
#endif
|
|
|
|
/* Type for offsets in journal files. VMS uses uint4 to get a full 32 bit
|
|
offset for large journal files (OK since doesn't use lseek/etc. for IO.) */
|
|
|
|
#ifdef OFF_T_LONG
|
|
# define JNL_OFF_T(name,fillnum) off_t name
|
|
#else
|
|
# ifdef VMS
|
|
# define JNL_OFF_T(name,fillnum) FILL8DCL(uint4,name,fillnum)
|
|
# else
|
|
# define JNL_OFF_T(name,fillnum) FILL8DCL(off_t,name,fillnum)
|
|
# endif
|
|
#endif
|
|
|
|
/* Need to define a consistently sized counter that is controlled by interlocks. The counter
|
|
will occupy 4 bytes in the file header but on some platforms (currently VAX and AXP VMS),
|
|
these counters need to be shorts whereas other platforms would realize a performance
|
|
improvement if they were 32 bits long. So we create another macro in the spirit of the
|
|
FILL8DCL macro above which will always give us a 32 byte entity but will pad a 2 byte
|
|
addressable entity if necessary. If not specified, the default is for 'short' counters. */
|
|
# ifdef CNTR_WORD_32
|
|
# define FILL4DCL(type,name,fillnum) type name
|
|
# define CNTR4DCL(name,fillnum) int4 name
|
|
# else
|
|
# ifdef BIGENDIAN
|
|
# define FILL4DCL(type,name,fillnum) type fill##fillnum,name
|
|
# else
|
|
# define FILL4DCL(type,name,fillnum) type name,fill##fillnum
|
|
# endif
|
|
# define CNTR4DCL(name,fillnum) FILL4DCL(short,name,fillnum)
|
|
# endif
|
|
|
|
/* For machines with a cache line dependency for locks and such,
|
|
define a macro that can be used to generate padding such that
|
|
fields are in separate cache lines. Note that this macro should
|
|
*NOT* be used in the fileheader as its length expansion is platform
|
|
specific. It should only be used in internal shared memory
|
|
structures that are NOT otherwise placement sensitive.
|
|
A ; is included in the definition instead of when used since an extra ;
|
|
in a structure is not accepted by some compilers.
|
|
*/
|
|
|
|
#ifdef CACHELINE_SIZE
|
|
# define CACHELINE_PAD(fieldSize, fillnum) char fill_cacheline##fillnum[CACHELINE_SIZE - (fieldSize)];
|
|
#else
|
|
# define CACHELINE_PAD(fieldSize, fillnum)
|
|
#endif
|
|
|
|
/* In certain cases we need to conditionally do a CACHELINE pad. For those platforms that
|
|
have load-locked/store-conditional logic, counters that are incremented under interlock
|
|
need to have spacing so they do not interfere with each other. But platforms that do
|
|
NOT have this capability need the spacing on the actual latch used instead. Hence this
|
|
form of padding is conditional.
|
|
*/
|
|
#if defined(__alpha) || defined(_AIX)
|
|
# define CACHELINE_PAD_COND(fieldSize, fillnum) CACHELINE_PAD(fieldSize, fillnum)
|
|
#else
|
|
# define CACHELINE_PAD_COND(fieldSize, fillnum)
|
|
#endif
|
|
|
|
#define MEMCP(dst,src,start,count,limit){ \
|
|
if (start+count > limit) \
|
|
rts_error(VARLSTCNT(1) ERR_CPBEYALLOC); \
|
|
else \
|
|
memcpy(dst+start,src,count); \
|
|
}
|
|
|
|
#ifndef USING_ICONV
|
|
typedef enum
|
|
{
|
|
NO_XLAT = 0,
|
|
EBCDIC_TO_ASCII,
|
|
ASCII_TO_EBCDIC
|
|
} gtm_iconv_t;
|
|
#define iconv_t gtm_iconv_t
|
|
#endif
|
|
|
|
#ifdef _AIX
|
|
# define VSIG_ATOMIC_T sig_atomic_t
|
|
#else
|
|
# define VSIG_ATOMIC_T volatile sig_atomic_t
|
|
#endif
|
|
|
|
/* For copying va_list items - Linux/390 needs __va_copy */
|
|
#ifndef VAR_COPY
|
|
#define VAR_COPY(dst, src) dst = src
|
|
#endif
|
|
|
|
#define NOLICENSE /* cheap way to obsolete it */
|
|
|
|
/* integer conversion functions */
|
|
void i2hex(UINTPTR_T val, uchar_ptr_t dest, int len);
|
|
void i2hexl(qw_num val, uchar_ptr_t dest, int len);
|
|
void i2hex_blkfill(int num, uchar_ptr_t addr, int len);
|
|
void i2hexl_blkfill(qw_num num, uchar_ptr_t addr, int len);
|
|
int i2hex_nofill(int num, uchar_ptr_t addr, int len);
|
|
int i2hexl_nofill(qw_num num, uchar_ptr_t addr, int len);
|
|
|
|
uchar_ptr_t i2ascl(uchar_ptr_t p, qw_num n);
|
|
uchar_ptr_t i2asclx(uchar_ptr_t p, qw_num n);
|
|
uchar_ptr_t i2asc(uchar_ptr_t p, unsigned int n);
|
|
|
|
/* ascii conversion functions */
|
|
int4 asc2i(uchar_ptr_t p, int4 len);
|
|
qw_num asc2l(uchar_ptr_t p, int4 len);
|
|
unsigned int asc_hex2i(char *p, int len);
|
|
|
|
/* This macro converts an integer to a decimal string (a more efficient alternative to i2asc).
|
|
* It is used by format2zwr() which is called a lot during MUPIP EXTRACT (which can be time-consuming
|
|
* for a big database), hence the need to make it efficient.
|
|
*/
|
|
#define I2A(des, des_len, num) \
|
|
{ \
|
|
if ((unsigned)(num) < 1000) \
|
|
{ /* perform light-weight conversion of numbers upto 3 digits */ \
|
|
int n1, n2; /* digits at the 10th and 100th decimal positions respectively */ \
|
|
n2 = ((num) / 100) % 10; \
|
|
if (0 != n2) \
|
|
(des)[(des_len)++] = n2 + '0'; \
|
|
n1 = ((num) / 10) % 10; \
|
|
if (0 != n1 || 0 != n2) \
|
|
(des)[(des_len)++] = n1 + '0'; \
|
|
(des)[(des_len)++] = ((num) % 10) + '0'; \
|
|
} else \
|
|
des_len += (int)(i2asc((uchar_ptr_t)((des) + des_len), num) - (uchar_ptr_t)((des) + des_len)); \
|
|
}
|
|
|
|
/* The following is similar to I2A except that it updates the input pointer directly (no length parameter needed) */
|
|
#define I2A_INLINE(des, num) \
|
|
{ \
|
|
if ((unsigned)(num) < 1000) \
|
|
{ /* perform light-weight conversion of numbers upto 3 digits */ \
|
|
int n1, n2; /* digits at the 10th and 100th decimal positions respectively */ \
|
|
n2 = ((num) / 100) % 10; \
|
|
if (0 != n2) \
|
|
*des++ = n2 + '0'; \
|
|
n1 = ((num) / 10) % 10; \
|
|
if (0 != n1 || 0 != n2) \
|
|
*des++ = n1 + '0'; \
|
|
*des++ = ((num) % 10) + '0'; \
|
|
} else \
|
|
des = (char *)i2asc((uchar_ptr_t)des, num); \
|
|
}
|
|
|
|
/* This macro converts a decimal string to a number (a more efficient alternative to asc2i).
|
|
* It is used by zwr2format() and str2gvargs which is called a lot during MUPIP LOAD (can be time-consuming for a big database).
|
|
*/
|
|
#define A2I(cp, end, num) \
|
|
{ \
|
|
unsigned char *cpbase = (unsigned char*)(cp); \
|
|
char ch; \
|
|
\
|
|
for (num = 0; (cp) < (end) && ('0' <= (ch = *((unsigned char*)cp))) && ('9' >= ch); ++(cp)) \
|
|
num = (num) * 10 + (ch - '0'); \
|
|
if (cpbase == ((unsigned char*)cp)) \
|
|
num = -1; \
|
|
}
|
|
|
|
void double2s(double *dp, mval *v); /* double conversion */
|
|
int skpc(char c, int length, char *string);
|
|
|
|
/* If the below declaration changes, corresponding changes in gtmxc_types.h needs to be done. */
|
|
void *gtm_malloc(size_t size);
|
|
/* If the below declaration changes, corresponding changes in gtmxc_types.h needs to be done. */
|
|
void gtm_free(void *addr);
|
|
int gtm_memcmp (const void *, const void *, size_t);
|
|
DEBUG_ONLY(void printMallocInfo(void);)
|
|
int is_equ(mval *u, mval *v);
|
|
char is_ident(mstr *v);
|
|
int val_iscan(mval *v);
|
|
void mcfree(void);
|
|
int4 getprime(int4 n);
|
|
void push_parm(UNIX_ONLY_COMMA(unsigned int totalcnt) int truth_value, ...);
|
|
void suspend(void);
|
|
mval *push_mval(mval *arg1);
|
|
void mval_lex(mval *v, mstr *output);
|
|
|
|
#define ZTRAP_CODE 0x00000001
|
|
#define ZTRAP_ENTRYREF 0x00000002
|
|
#define ZTRAP_POP 0x00000004
|
|
#define ZTRAP_ADAPTIVE (ZTRAP_CODE | ZTRAP_ENTRYREF)
|
|
|
|
#define GTM_BYTESWAP_16(S) \
|
|
( (((S) & 0xff00) >> 8) \
|
|
| (((S) & 0x00ff) << 8) \
|
|
)
|
|
|
|
#define GTM_BYTESWAP_24(L) \
|
|
( (((L) & 0xff0000) >> 16) \
|
|
| ((L) & 0x00ff00) \
|
|
| (((L) & 0x0000ff) << 16) \
|
|
)
|
|
|
|
#define GTM_BYTESWAP_32(L) \
|
|
( (((L) & 0xff000000) >> 24) \
|
|
| (((L) & 0x00ff0000) >> 8) \
|
|
| (((L) & 0x0000ff00) << 8) \
|
|
| (((L) & 0x000000ff) << 24) \
|
|
)
|
|
|
|
qw_num gtm_byteswap_64(qw_num num64);
|
|
#ifdef INT8_SUPPORTED
|
|
#define GTM_BYTESWAP_64(LL) \
|
|
( (((LL) & 0xff00000000000000ull) >> 56) \
|
|
| (((LL) & 0x00ff000000000000ull) >> 40) \
|
|
| (((LL) & 0x0000ff0000000000ull) >> 24) \
|
|
| (((LL) & 0x000000ff00000000ull) >> 8) \
|
|
| (((LL) & 0x00000000ff000000ull) << 8) \
|
|
| (((LL) & 0x0000000000ff0000ull) << 24) \
|
|
| (((LL) & 0x000000000000ff00ull) << 40) \
|
|
| (((LL) & 0x00000000000000ffull) << 56) \
|
|
)
|
|
#else
|
|
#define GTM_BYTESWAP_64(LL) gtm_byteswap_64(LL)
|
|
#endif
|
|
|
|
#define ZDIR_FORM_FULLPATH 0x00000000
|
|
#define ZDIR_FORM_DIRECTORY 0x00000001
|
|
#define IS_VALID_ZDIR_FORM(zdirform) (ZDIR_FORM_FULLPATH == (zdirform) || ZDIR_FORM_DIRECTORY == (zdirform))
|
|
|
|
#define MAXNUMLEN 128 /* from PV_N2S */
|
|
#define CENTISECONDS 100 /* VMS lib$day returns 1/100s, we want seconds, use this factor to convert b/n the two */
|
|
#define MINUTE 60 /* seconds in a minute */
|
|
#define HOUR 3600 /* one hour in seconds 60 * 60 */
|
|
#define ONEDAY 86400 /* seconds in a day */
|
|
#define MILLISECS_IN_SEC 1000 /* millseconds in a second */
|
|
#define MICROSEC_IN_SEC 1000000 /* microseconds in a second */
|
|
|
|
#define ASSERT_IN_RANGE(low, x, high) assert((low <= x) && (x <= high))
|
|
|
|
#if defined(VMS)
|
|
#define DAYS 6530 /* adjust VMS returned days by this amount; GTM zero time Dec 31, 1840, VMS zero time 7-NOV-1858 */
|
|
#define VARLSTCNT1(CNT) VARLSTCNT(CNT)
|
|
#define PUT_SYS_ERRNO(SYS_ERRNO) SYS_ERRNO
|
|
#elif defined(UNIX)
|
|
#define DAYS 47117 /* adjust Unix returned days (seconds converted to days); Unix zero time 1970 */
|
|
#define VARLSTCNT1(CNT) VARLSTCNT(CNT + 1)
|
|
#define PUT_SYS_ERRNO(SYS_ERRNO) 0, SYS_ERRNO
|
|
#else
|
|
#error Unsupported platform
|
|
#endif
|
|
|
|
#define EXIT_NRM 0
|
|
#define EXIT_INF 1
|
|
#define EXIT_WRN 2
|
|
#define EXIT_ERR 4
|
|
#define EXIT_RDONLY 8
|
|
#define EXIT_MASK 7
|
|
#define MIN_FN_LEN 1
|
|
#define MAX_FN_LEN 255
|
|
#define V4_MAX_FN_LEN 255 /* required for dbcertify.h */
|
|
#define MAX_TRANS_NAME_LEN 257
|
|
|
|
typedef uint4 jnl_tm_t;
|
|
typedef uint4 off_jnl_t;
|
|
typedef gtm_uint64_t gtm_off_t;
|
|
|
|
#define MAXUINT8 ((gtm_uint64_t)-1)
|
|
#define MAXUINT4 ((uint4)-1)
|
|
#define MAXUINT2 ((unsigned short)-1)
|
|
#define MAXINT2 (MAXUINT2/2)
|
|
|
|
/* On platforms that support native 8 byte operations (such as Alpha), an assignment to an 8 byte field is atomic. On other
|
|
* platforms, an 8 byte assignment is a sequence of 4 byte operations. On such platforms, use this macro to determine if the
|
|
* change from the current value to the new value provides a consistent view (entirely the pre read, or entirely the post read,
|
|
* and not in between). Any change that causes the most significant 4 bytes to differ can cause inconsistency. In such cases, it
|
|
* may be necessary to grab crit if modifying a shared field.
|
|
*/
|
|
#ifdef INT8_NATIVE
|
|
#define QWCHANGE_IS_READER_CONSISTENT(FROM8, TO8) (TRUE)
|
|
#else
|
|
/* Note: cannot use this macro when FROM8 or TO8 do not have an lvalue (eg. literal) */
|
|
#define QWCHANGE_IS_READER_CONSISTENT(FROM8, TO8) (((non_native_uint8 *)&(FROM8))->value[msb_index] \
|
|
== ((non_native_uint8 *)&(TO8))->value[msb_index])
|
|
#endif
|
|
|
|
#define MAX_SUPPL_STRMS 16 /* max # of non-supplementary streams that can connect to a supplementary root primary */
|
|
|
|
#ifdef UNIX /* Replication instance file related structures */
|
|
|
|
/* The below macros and typedef are required in "repl_instance.h", "gtmsource.h", "gtmrecv.h" and "repl_msg.h".
|
|
* They are hence included in this common header file
|
|
*/
|
|
#define MAX_INSTNAME_LEN 16 /* Max Length of the replication instance name including terminating null character '\0' */
|
|
#define NUM_GTMSRC_LCL 16 /* max number of source servers that can run on a root primary instance.
|
|
* also the number of gtmsrc_lcl structures in the replication instance file */
|
|
#define NUM_GTMRCV_LCL 16 /* max number of receiver servers that can run at the same time on a supplementary
|
|
* root primary instance. On a non-supplementary instance, only 1 receiver server can run */
|
|
#define INVALID_SUPPL_STRM -1 /* stream #s 0 to 15 are the valid ones */
|
|
#define REPL_INST_HDR_SIZE (SIZEOF(repl_inst_hdr))
|
|
#define GTMSRC_LCL_SIZE (SIZEOF(gtmsrc_lcl) * NUM_GTMSRC_LCL) /* size of the gtmsrc_lcl array */
|
|
#define GTMSOURCE_LOCAL_SIZE (SIZEOF(gtmsource_local_struct) * NUM_GTMSRC_LCL) /* size of the gtmsource_local array */
|
|
#define REPL_INST_HISTINFO_START (REPL_INST_HDR_SIZE + GTMSRC_LCL_SIZE)
|
|
|
|
/* Although we have dedicated 60-bits for the stream specific seqno, it is still a very high value and should not be reached
|
|
* in practice. Therefore, we arbitrarily pick 48-bits as the maximum value for this seqno and assert that the remaining 12 bits
|
|
* are zero in at least our test environments. This way we catch any uninitialized/garbage value usages of this seqno in the code.
|
|
*/
|
|
#define IS_VALID_STRM_SEQNO(SEQNO) (0 == (SEQNO & 0x0FFF000000000000LLU))
|
|
|
|
/* Given a strm_seqno, determine the corresponding stream# by getting the most significant 4 bits of the 64-bit seqno */
|
|
#define GET_STRM_INDEX(SEQNO) (DBG_ASSERT(IS_VALID_STRM_SEQNO(SEQNO)) \
|
|
(((SEQNO) >> 60) & 0xF))
|
|
|
|
/* Given a 64-bit strm_seqno, determine the corresponding 60-bit stream specific seqno. */
|
|
#define GET_STRM_SEQ60(SEQNO) (DBG_ASSERT(IS_VALID_STRM_SEQNO(SEQNO)) \
|
|
((SEQNO) & (0x0FFFFFFFFFFFFFFFLLU)))
|
|
|
|
/* Given a 60-bit strm_seqno and 4-bit stream#, this macro returns a unified 64-bit sequence number */
|
|
#define SET_STRM_INDEX(SEQNO, STRM_NO) (DBG_ASSERT(0 == GET_STRM_INDEX(SEQNO)) \
|
|
DBG_ASSERT((STRM_NO) <= 0xF) \
|
|
((SEQNO) | (((seq_num)STRM_NO) << 60)))
|
|
|
|
#define MAX_NODENAME_LEN 16 /* used by repl_instance.h. A similar macro JPV_LEN_NODE is defined in jnl.h */
|
|
|
|
#define UNKNOWN_INSTNAME "<UNKNOWN>" /* used in places where instance name is not known (e.g. if pre-V51000 version) */
|
|
|
|
/* The following defines the structure holding the instance information in a replication instance file.
|
|
* Any changes to this structure might need changes to the ENDIAN_CONVERT_REPL_INST_UUID macro.
|
|
*/
|
|
typedef struct repl_inst_uuid_struct
|
|
{
|
|
unsigned char created_nodename[MAX_NODENAME_LEN]; /* Nodename on which instance file was created */
|
|
unsigned char this_instname[MAX_INSTNAME_LEN]; /* Instance name that this file corresponds to */
|
|
uint4 created_time; /* Time when this instance file was created */
|
|
uint4 creator_pid; /* Process id that created the instance file */
|
|
} repl_inst_uuid;
|
|
|
|
/* Macro to endian convert an entire "repl_inst_uuid" structure contents given a pointer to the structure */
|
|
#define ENDIAN_CONVERT_REPL_INST_UUID(PTR) \
|
|
{ \
|
|
/* No need to convert "created_nodename" as it is a character array */ \
|
|
/* No need to convert "this_instname" as it is a character array */ \
|
|
/* Endian convert 4-byte "created_time" */ \
|
|
(PTR)->created_time = GTM_BYTESWAP_32((PTR)->created_time); \
|
|
/* Endian convert 4-byte "creator_pid" */ \
|
|
(PTR)->creator_pid = GTM_BYTESWAP_32((PTR)->creator_pid); \
|
|
}
|
|
|
|
/* A NULL UUID is denoted by a 0 value for created_time. In that case, other fields are uninitialized and hence unusable.
|
|
* A non-NULL UUID has a non-zero value for created_time. In that case, other fields are guaranteed to have been initialized.
|
|
*/
|
|
#define IS_REPL_INST_UUID_NULL(UUID) (0 == (UUID).created_time)
|
|
#define IS_REPL_INST_UUID_NON_NULL(UUID) (!IS_REPL_INST_UUID_NULL(UUID))
|
|
#define NULL_INITIALIZE_REPL_INST_UUID(UUID) (UUID).created_time = 0
|
|
|
|
/* Lot of code (e.g. repl_inst_dump) relies on "created_nodename" (which can be a string upto MAX_NODENAME_LEN bytes long)
|
|
* being NOT null-terminated at the (MAX_NODENAME_LEN - 1)th byte ONLY if the node name length is LESS THAN the max length.
|
|
* This lets them avoid a scan of the string (to find the real length) in the null-terminated case and safely pass it to
|
|
* any function (e.g. printf etc.) that expects a null-terminated string. Verify that using the below assert.
|
|
*/
|
|
#ifdef DEBUG
|
|
#define DBG_CHECK_CREATED_NODENAME(PTR) \
|
|
{ \
|
|
int index, last_byte_non_null; \
|
|
char *lclPtr = (char *)PTR; \
|
|
\
|
|
last_byte_non_null = lclPtr[MAX_NODENAME_LEN -1]; \
|
|
if (last_byte_non_null) \
|
|
{ \
|
|
for (index = 0; index < MAX_NODENAME_LEN; index++) \
|
|
{ \
|
|
if (!lclPtr[index]) \
|
|
assert(FALSE); \
|
|
} \
|
|
} \
|
|
}
|
|
#else
|
|
#define DBG_CHECK_CREATED_NODENAME(PTR)
|
|
#endif
|
|
|
|
/* The following macros define what value the "histinfo_type" member of the repl_histinfo structure gets filled in with */
|
|
#define HISTINFO_TYPE_NORMAL 1 /* A history record generated whenever a root primary starts up */
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|
#define HISTINFO_TYPE_UPDRESYNC 2 /* A history record generated when a receiver server starts up with -UPDATERESYNC on
|
|
* a supplementary root primary instance.
|
|
*/
|
|
#define HISTINFO_TYPE_NORESYNC 3 /* A history record generated when a receiver server starts up with -NORESYNC.
|
|
* Used by a propagating primary supplementary instance to know that "prev_histinfo_num"
|
|
* has to be recomputed on the receiver side.
|
|
*/
|
|
|
|
/* The following defines the structure of a history record in the instance file.
|
|
* Any changes to this structure might need changes to the ENDIAN_CONVERT_REPL_HISTINFO macro.
|
|
*/
|
|
typedef struct repl_histinfo_struct
|
|
{ /* Each history record is uniquely defined by the following 5 fields (consider start_seqno and strm_seqno as one field) */
|
|
unsigned char root_primary_instname[MAX_INSTNAME_LEN];/* the root primary instance that generated this history record */
|
|
seq_num start_seqno; /* the first seqno generated in this history record by the
|
|
* root primary. In case of a supplementary instance, this
|
|
* seqno is the unified seqno across all streams.
|
|
*/
|
|
seq_num strm_seqno; /* the stream specific jnl seqno. this will help identify which
|
|
* of the potentially 16 streams (0 for local instance, 1 to 15 for
|
|
* non-local streams) this history record corresponds to.
|
|
*/
|
|
uint4 root_primary_cycle; /* a copy of the "root_primary_cycle" field in the instance file
|
|
* header of the root primary when it generated the seqno
|
|
* "start_seqno". This is needed to distinguish two invocations
|
|
* of the same instance
|
|
*/
|
|
uint4 creator_pid; /* pid on rootprimary instance that wrote this history record */
|
|
uint4 created_time; /* time on rootprimary when this history record was generated */
|
|
int4 histinfo_num; /* = 'n' if this is the n'th history record in the instance file */
|
|
int4 prev_histinfo_num; /* = 'n' if the previous history record corresponding to this
|
|
* stream is the n'th history record in the instance file.
|
|
*/
|
|
char strm_index; /* = 0 by default.
|
|
* = anywhere from 1 to 15 if this history record corresponds to a
|
|
* non-supplementary stream of updates.
|
|
*/
|
|
char history_type; /* can take any one of the HISTINFO_TYPE_* macro values */
|
|
char filler_8[2]; /* Filler for 8-byte alignment */
|
|
repl_inst_uuid lms_group; /* Non-null only if this instance file is supplementary AND if
|
|
* the history record has "strm_index" greater than 0.
|
|
* Null otherwise. In the non-null case, this field stores
|
|
* the lms group uuid for this particular non-supplementary
|
|
* stream. The "created_time" field will be non-zero in this case
|
|
* else zero (this field will be used to determine whether the
|
|
* "lms_group" member is valid or not given a history record).
|
|
*/
|
|
int4 last_histinfo_num[MAX_SUPPL_STRMS]; /* a copy of the last_histinfo_num[] array from the instance file
|
|
* header BEFORE this history record was added to the instance file.
|
|
*/
|
|
} repl_histinfo;
|
|
|
|
/* Macro to endian convert an entire "repl_inst_uuid" structure contents given a pointer to the structure */
|
|
#define ENDIAN_CONVERT_REPL_HISTINFO(PTR) \
|
|
{ \
|
|
/* No need to convert "root_primary_instname" as it is a character array */ \
|
|
/* Endian convert 8-byte "start_seqno" */ \
|
|
(PTR)->start_seqno = GTM_BYTESWAP_64((PTR)->start_seqno); \
|
|
/* Endian convert 8-byte "strm_seqno" */ \
|
|
(PTR)->strm_seqno = GTM_BYTESWAP_64((PTR)->strm_seqno); \
|
|
/* Endian convert 4-byte "root_primary_cycle" */ \
|
|
(PTR)->root_primary_cycle = GTM_BYTESWAP_32((PTR)->root_primary_cycle); \
|
|
/* Endian convert 4-byte "creator_pid" */ \
|
|
(PTR)->creator_pid = GTM_BYTESWAP_32((PTR)->creator_pid); \
|
|
/* Endian convert 4-byte "created_time" */ \
|
|
(PTR)->created_time = GTM_BYTESWAP_32((PTR)->created_time); \
|
|
/* Endian convert 4-byte "histinfo_num" */ \
|
|
(PTR)->histinfo_num = GTM_BYTESWAP_32((PTR)->histinfo_num); \
|
|
/* Endian convert 4-byte "prev_histinfo_num" */ \
|
|
(PTR)->prev_histinfo_num = GTM_BYTESWAP_32((PTR)->prev_histinfo_num); \
|
|
/* No need to convert "strm_index" as it is a 1-byte character */ \
|
|
/* No need to convert "history_type" as it is a 1-byte character */ \
|
|
/* Endian convert "lms_group" of type "repl_inst_uuid" */ \
|
|
ENDIAN_CONVERT_REPL_INST_UUID(&((PTR)->lms_group)); \
|
|
/* No need to endian convert "last_histinfo_num" as this is not relevant \
|
|
* across a replication connection and is regenerated on the receiver anyways. \
|
|
*/ \
|
|
}
|
|
|
|
#define INVALID_HISTINFO_NUM -1 /* 0 is a valid history record number (first element of array) so set it to -1 */
|
|
#define UNKNOWN_HISTINFO_NUM -2 /* Special value to indicate there is a history record but is not yet part of the
|
|
* replication instance file and hence does not have a history number yet (this is
|
|
* assigned by the function "repl_inst_histinfo_add" only when it adds this history
|
|
* record to the instance file on the receiving instance). This is possible for
|
|
* example if the history record is in the receive pool waiting for it to be played
|
|
* by the update process. Currently used by a propagating primary supplementary instance.
|
|
*/
|
|
|
|
/* The following two macros convert a history record from that of a non-supplementary instance to a supplementary instance
|
|
* and vice versa. The "start_seqno" and "strm_seqno" fields are the ones which are manipulated in these conversions.
|
|
*/
|
|
#define CONVERT_NONSUPPL2SUPPL_HISTINFO(HISTINFO, JNLPOOL_CTL) \
|
|
{ \
|
|
/* Until now "start_seqno" actually corresponded to the non-supplementary stream's seqno. \
|
|
* Now that we are writing this history record into a supplementary instance file, switch it \
|
|
* to be the supplementary seqno (jnlpool_ctl->jnl_seqno). Until now "strm_seqno" was 0. \
|
|
* Now switch that to be what "start_seqno" was before. \
|
|
*/ \
|
|
assert(0 < (HISTINFO)->strm_index); \
|
|
assert(MAX_SUPPL_STRMS > (HISTINFO)->strm_index); \
|
|
assert(0 == (HISTINFO)->strm_seqno); \
|
|
(HISTINFO)->strm_seqno = (HISTINFO)->start_seqno; \
|
|
(HISTINFO)->start_seqno = (JNLPOOL_CTL)->jnl_seqno; \
|
|
}
|
|
|
|
#define CONVERT_SUPPL2NONSUPPL_HISTINFO(HISTINFO) \
|
|
{ \
|
|
/* This macro is invoked just before sending a non-supplementary stream history record \
|
|
* in a supplementary instance back to a non-supplementary instance. The latter does not \
|
|
* understand strm_seqnos hence the need to convert. \
|
|
*/ \
|
|
assert(0 < (HISTINFO).strm_index); \
|
|
assert(MAX_SUPPL_STRMS > (HISTINFO).strm_index); \
|
|
assert((HISTINFO).strm_seqno); \
|
|
(HISTINFO).start_seqno = (HISTINFO).strm_seqno; \
|
|
(HISTINFO).strm_seqno = 0; \
|
|
}
|
|
|
|
/* A structure to hold ALL aspects of ONE side (could be local or remote) of a replication connection */
|
|
typedef struct repl_conn_info_struct
|
|
{
|
|
int4 proto_ver; /* The replication communication protocol version of this side of the pipe.
|
|
* Needs to be "signed" in order to be able to do signed comparisons of this with
|
|
* the macros REPL_PROTO_VER_DUALSITE (0) and REPL_PROTO_VER_UNINITIALIZED (-1)
|
|
*/
|
|
uint4 jnl_ver; /* Format of the journal records */
|
|
boolean_t is_std_null_coll; /* TRUE if M-standard null collation; FALSE if GT.M null collation */
|
|
boolean_t trigger_supported; /* TRUE if supports triggers; FALSE otherwise */
|
|
boolean_t cross_endian; /* TRUE if both sides of the replication connection have different endianness */
|
|
boolean_t endianness_known; /* TRUE if endianness of other side is known/determined; FALSE until then */
|
|
boolean_t null_subs_xform; /* 0 if the null subscript collation is same between the servers
|
|
* Non-zero (GTMNULL_TO_STDNULL_COLL or STDNULL_TO_GTMNULL_COLL) if different
|
|
*/
|
|
boolean_t is_supplementary; /* Whether one side of the connection is a supplementary instance */
|
|
} repl_conn_info_t;
|
|
|
|
#endif /* Replication instance file related structures */
|
|
|
|
/* Enumerator codes for supported CHSETs in GT.M */
|
|
typedef enum
|
|
{
|
|
CHSET_M,
|
|
CHSET_UTF8,
|
|
CHSET_UTF16,
|
|
CHSET_UTF16LE,
|
|
CHSET_UTF16BE,
|
|
CHSET_ASCII,
|
|
CHSET_EBCDIC,
|
|
CHSET_BINARY,
|
|
CHSET_MAX_IDX_ALL /* maximum number of CHSETs supported */
|
|
} gtm_chset_t;
|
|
|
|
#define CHSET_UTF_MIN CHSET_UTF8
|
|
#define CHSET_UTF_MAX CHSET_UTF16BE
|
|
#define CHSET_MAX_IDX CHSET_ASCII /* max true CHSETs */
|
|
|
|
#define IS_UTF16_CHSET(chset) ((CHSET_UTF16 == (chset)) || (CHSET_UTF16LE == (chset)) || (CHSET_UTF16BE == (chset)))
|
|
#define IS_UTF_CHSET(chset) ((CHSET_UTF_MIN <= (chset)) && (CHSET_UTF_MAX >= (chset)))
|
|
|
|
#define CHK_BOUNDARY_ALIGNMENT(pointer) (((UINTPTR_T)pointer) & (SIZEOF(UINTPTR_T) - 1))
|
|
#if defined(__ia64) || defined(__i386) || defined(__x86_64__) || defined(__sparc) || defined(_AIX) || defined(__MVS__) \
|
|
|| defined(__s390__)
|
|
#define GTM_CRYPT
|
|
#define GTMCRYPT_ONLY(X) X
|
|
#else
|
|
#define GTMCRYPT_ONLY(X)
|
|
#endif
|
|
#define GTMCRYPT_HASH_LEN 64
|
|
#define GTMCRYPT_HASH_HEX_LEN GTMCRYPT_HASH_LEN * 2
|
|
#define GTMCRYPT_RESERVED_HASH_LEN 256
|
|
#define GET_HASH_IN_HEX(in, out, len) \
|
|
{ \
|
|
int i; \
|
|
\
|
|
assert(0 == len % 2); \
|
|
for (i = 0; i < len; i+=2) \
|
|
SPRINTF((char *)out + i, "%02X", (unsigned char)in[i/2]); \
|
|
}
|
|
|
|
#ifdef UNIX
|
|
# define GTM_SNAPSHOT
|
|
# define NON_GTM_SNAPSHOT_ONLY(X)
|
|
# define GTM_SNAPSHOT_ONLY(X) X
|
|
#else
|
|
# define NON_GTM_SNAPSHOT_ONLY(X) X
|
|
# define GTM_SNAPSHOT_ONLY(X)
|
|
#endif
|
|
|
|
/* Currently MUPIP REORG -TRUNCATE is only supported on Unix */
|
|
#ifdef UNIX
|
|
# define GTM_TRUNCATE
|
|
# define NON_GTM_TRUNCATE_ONLY(X)
|
|
# define GTM_TRUNCATE_ONLY(X) X
|
|
#else
|
|
# define NON_GTM_TRUNCATE_ONLY(X) X
|
|
# define GTM_TRUNCATE_ONLY(X)
|
|
#endif
|
|
|
|
/* Currently triggers are supported only on Unix */
|
|
#if defined(UNIX) && !defined(__hppa) /* triggers not supported on HPUX-HPPA */
|
|
# define GTM_TRIGGER
|
|
# define GTMTRIG_ONLY(X) X
|
|
# define NON_GTMTRIG_ONLY(X)
|
|
# define GTMTRIG_DBG_ONLY(X) DEBUG_ONLY(X)
|
|
# define GTM_TRIGGER_DEPTH_MAX 127 /* Maximum depth triggers can nest */
|
|
#else
|
|
# define GTMTRIG_ONLY(X)
|
|
# define NON_GTMTRIG_ONLY(X) X
|
|
# define GTMTRIG_DBG_ONLY(X)
|
|
#endif
|
|
|
|
/* A type definition to hold a range of numbers */
|
|
typedef struct gtm_num_range_struct
|
|
{
|
|
uint4 min; /* included in range */
|
|
uint4 max; /* included in range */
|
|
} gtm_num_range_t;
|
|
|
|
/* Debug FPRINTF with pre and post requisite flushing of appropriate streams */
|
|
#ifndef DBGFPF
|
|
# define DBGFPF(x) {flush_pio(); FPRINTF x; FFLUSH(stderr); FFLUSH(stdout);}
|
|
#endif
|
|
|
|
/* Settings for lv_null_subs */
|
|
enum
|
|
{
|
|
LVNULLSUBS_FIRST = -1, /* So _NO is 0 to match existing values */
|
|
LVNULLSUBS_NO, /* No null LV subscripts in SET type cases */
|
|
LVNULLSUBS_OK, /* Null LV subscripts are allowed */
|
|
LVNULLSUBS_NEVER, /* LVNULLSUBS_NO plus LV subscripts prohibited in $DATA, $GET, $ORDER, $QUERY, KILL, etc */
|
|
LVNULLSUBS_LAST
|
|
};
|
|
#define MAX_GVSUBSCRIPTS 32
|
|
#define MAX_LVSUBSCRIPTS 32
|
|
#define MAX_INDSUBSCRIPTS 32
|
|
#define MAX_FOR_STACK 32
|
|
|
|
#define MAX_ACTUALS 32 /* Maximum number of arguments allowed in an actuallist. This value also determines
|
|
* how many parameters are allowed to be passed between M and C.
|
|
*/
|
|
|
|
#endif /* MDEF_included */
|