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harbour-core/harbour/include/hbdefs.h
Przemyslaw Czerpak 64f97582d9 2008-09-13 18:49 UTC+0200 Przemyslaw Czerpak (druzus/at/priv.onet.pl) 
* harbour/include/hbpp.h
  * harbour/include/hbvm.h
  * harbour/include/hbcomp.h
  * harbour/include/hbcompdf.h
  * harbour/include/hbtrace.h
  * harbour/include/hbapilng.h
  * harbour/include/hbinit.h
  * harbour/source/rtl/langapi.c
  * harbour/source/pp/ppcore.c
  * harbour/source/pp/hbpp.c
  * harbour/source/vm/itemapi.c
  * harbour/source/vm/hvm.c
  * harbour/source/common/hbver.c
  * harbour/source/common/hbtrace.c
  * harbour/source/common/expropt2.c
  * harbour/source/compiler/complex.c
  * harbour/source/compiler/hbident.c
  * harbour/source/compiler/hbfunchk.c
    * changed some declarations from 'char *' to 'const char *' and
      fixed casting for some more pedantic compilers

  * harbour/source/pp/ppcore.c
    ! fixed one typo which could cause memory leak and even GPF

  * harbour/common.mak
  * harbour/source/vm/Makefile
  * harbour/source/rtl/Makefile
  - harbour/source/rtl/set.c
  + harbour/source/vm/set.c
  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
    * moved from RTL to HVM
    * eliminated hb_set global structure
    * moved set structure to HVM stack
    + added internal function hb_setClone() which is used to create
      copy of SET structure for child threads
    * hidden HB_SET_STRUCT declaration - 3-rd part code must not access it
      directly. Dedicated hb_set*() functions should be used instead.
    + added new function:
         BOOL hb_setSetItem( HB_set_enum set_specifier, PHB_ITEM pItem )
      which allow to change some set by 3-rd party code.
      TODO: not all SETs can be changed yet - if someone have a while
            then please add code for missing ones.

  * harbour/include/set.ch
  * harbour/include/hbset.h
    + added _SET_CODEPAGE which works like _SET_LANGUAGE giving common
      interface

  * harbour/include/hbsetup.h
    + added HB_CODEPAGE_DEFAULT which works like HB_LANG_DEFAULT

  * harbour/source/vm/hvm.c
    ! fixed builds which uses non EN lang or code page modules
      by forcing linking the chosen ones

  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
  * harbour/include/hbapicdp.h
  * harbour/source/rtl/cdpapi.c
    - removed global code page variable: hb_cdp_page and moved
      code page settings to HVM stack
    + added new function hb_cdpID() which returns current code page
      character ID
    + added new functions hb_vmCDP() and hb_vmSetCDP() to get/set
      active for given thread code page structure

  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
  * harbour/include/hbapilng.h
  * harbour/source/rtl/langapi.c
    + moved lang setting to HVM stack
    + added new functions hb_vmLang() and hb_vmSetLang() to get/set
      active for given thread language module

  * harbour/include/hbvmpub.h
  * harbour/include/hbstack.h
  * harbour/include/hbapi.h
  * harbour/source/vm/estack.c
  * harbour/source/vm/dynsym.c
  * harbour/source/vm/itemapi.c
  * harbour/source/vm/memvars.c
    * changed memvar handles for HB_HANDLE to void * which is directly
      casted to PHB_ITEM - new memvar references
    * changed HB_DYNS declarations for MT mode. In MT mode HB_DYNS does
      not contain area and memvar handles which are moved to thread
      local HVM stack
    + added array for thread local memvar and area handles to HVM stack
    % eliminated global continues array with all memvars and detached locals
    % changed HB_IT_MEMVAR to use pointers to HB_ITEM directly - it resolve
      synchronization problems in MT mode and should also improve the speed
      and reduce memory usage. It should be well visible in applications which
      uses lot of detached locals.
    - removed hb_memvarsInit() and hb_memvarsFree() - they are not necessary
      now because we do not longer use array with all allocated memvars
      and detached local and private stack initialization is made
      automatically
    + added internal functions hb_dynsymGetMemvar()/hb_dynsymSetMemvar()
    + added hb_memvarGetValueBySym() for debugger
    * moved PRIVATE variable stack to HVM stack
    * eliminated all static variables in memvars module

  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
  * harbour/source/rtl/fserror.c
    * moved IO errors to HVM stack
    + added special IO error handling which works without HVM stack
      It allows to use hb_fs*() functions without allocated stack
      by 3-rd party threads.

  * harbour/source/rtl/filesys.c
    * moved hb_fsCurDir() to HVM stack with special handling to work
      with HVM stack like IO errors

  * harbour/source/rdd/workarea.c
    * allocated RDD node array in bigger peaces to reduce later RT
      reallocations in MT mode. If user want to add dynamically more
      then 64 RDDs then it should synchronize this operation himself.

  * harbour/source/rdd/wacore.c
    * moved WA list, current WA, default RDD and neteer() flag to HVM stack

  * harbour/include/hbdefs.h
    - removed HB_HANDLE declaration

  * harbour/include/hbapi.h
    - removed HB_VALUE structure - it's not longer used due to different
      memvar handling
    * updated hb_struMemvar to new memvar handling
    * replaced hb_vmIsLocalRef() and hb_memvarsIsMemvarRef() with
      hb_vmIsStackRef() which respect multiple stack and new memvar
      and static structures and location in GC mark pass.

  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
  * harbour/source/vm/hvm.c
    + added support for thread specific data located on HVM stack
      Now it's possible to allocate static variables which are
      local to thread. Such variables are allocated on HVM stack
      and automatically destroyed. To declare new TSD variable use:
         HB_TSD_NEW( <name>, <size>, <init>, <destruct> )
      <name> - name of variable which holds TSD handler
      <size> - size of TSD are which has to be allocated
      <init> - init function, executed when new TSD is allocated by thread
               (thread access given TSD 1-st time). This function receives
               void * pointer to allocated area.
      <destruct> - destructor function executed when HVM stack is destroyed
      f.e.:
         static HB_TSD_NEW( s_scrData, sizeof( HB_SCRDATA ),
                            NULL, hb_xSaveRestRelease );
      To initialize dynamically allocated TSD variable use:
         HB_TSD_INIT( <name>, <size>, <init>, <destruct> )
      Pointer to TSD can be accessed using hb_stackGetTSD( &<name> )
      where <name> is name of variable which holds TSD handler, f.e.:
         PHB_SCRDATA pScrData = ( PHB_SCRDATA ) hb_stackGetTSD( &s_scrData );
      See source/rtl/xsavescr.c as an example
      It's also possible to test if data has been already allocated for
      current thread by:
         hb_stackTestTSD( &<name> ) => pData
      it works like hb_stackGetTSD() but return NULL if current thread data
      has not been allocated yet.

  * harbour/include/hbstack.h
  * harbour/source/vm/estack.c
    * changed hb_stack location to thread local storage in MT mode
    + added functions and macros to access/assign new HVM stack members
    + changed garbage collection mark functions to work with multiple
      stacks, thread local static and memvar variables

  * harbour/source/rtl/xsavescr.c
    * use TSD data for screen buffer to make __XSAVESCREEN()/__XRESTSCREEN()
      thread independent

  * harbour/source/rtl/idle.c
    * use TSD data for idle task settings and codeblocks
    - removed hb_idleShutDown() - it's not longer necessary

  * harbour/source/rtl/setkey.c
    * use TSD data for allocated keys to make SETKEY() thread independent

  * harbour/source/rtl/math.c
    * moved math error handler, math error block, math error mode and
      math error structure to TSD

  * harbour/source/rtl/errorapi.c
    * moved error handler, error block, error launch counter and DOS error
      value to TSD

  * harbour/source/rtl/inkey.c
    * moved inkey "before" and "after" blocks to TSD

  * harbour/source/rdd/hsx/hsx.c
    * moved HSX handles array to TSD

  * harbour/include/hbapigt.h
  * harbour/source/rtl/console.c
    - removed hb_setkeyInit() and hb_setkeyExit() - they are not longer
      necessary, allocated resources will be freed by TSD destructor
      function

  * harbour/include/hbapi.h
  * harbour/source/rtl/console.c
    * removed hb_conXSaveRestRelease() - it's not longer necessary,
      allocated resources will be freed by TSD destructor function

  * harbour/source/vm/macro.c
    * moved s_macroFlags to TSD

  * harbour/source/rtl/accept.c
    * moved accept buffer to TSD

  * harbour/include/hbcomp.h
  * harbour/include/hbcompdf.h
  * harbour/include/hbxvm.h
  * harbour/source/compiler/hbmain.c
  * harbour/source/compiler/hbfix.c
  * harbour/source/compiler/hbpcode.c
  * harbour/source/compiler/hbdead.c
  * harbour/source/compiler/complex.c
  * harbour/source/compiler/genc.c
  * harbour/source/compiler/gencc.c
  * harbour/source/compiler/hbopt.c
  * harbour/source/compiler/hblbl.c
  * harbour/source/compiler/hbstripl.c
  * harbour/source/compiler/harbour.y
  * harbour/source/compiler/harbour.yyc
  * harbour/source/compiler/harbour.yyh
  * harbour/source/vm/hvm.c
    + added new PCODE HB_P_THREADSTATICS
    + added support for static variables which are local to thread:
         THREAD STATIC <varname [:= <exp>], ...>
      They work like normal static variables but each thread operates
      on its own copy.
    * added protection against possible double call to hb_xfree()
      It can happen due to wrong marking expressions as used by bison
      and executing destructors after our free code when syntax error
      appear.

  * harbour/source/rtl/perfuncs.prg
  * harbour/source/rtl/menuto.prg
  * harbour/source/rtl/getlist.prg
  * harbour/source/rtl/readvar.prg
  * harbour/source/rtl/text.prg
    * use THREAD STATIC variables to make above code MT safe

  * harbour/include/hbgtcore.h
  * harbour/source/rtl/hbgtcore.c
    + added hb_gt_BaseFree() which will release current GT pointer
      locked by hb_gt_Base() function. This function will be used
      to optional automatic GT access synchronization when threads
      share the same GT.

  * harbour/source/rtl/gtapi.c
  * harbour/source/rtl/inkeyapi.c
  * harbour/source/rtl/mouseapi.c
  * harbour/contrib/hbct/ctwin.c
    * free GT pointer by hb_gt_BaseFree()
      TODO: CTWIN is not MT safe yet - it will be updated together
            with core GT when we add multi window interface for
            thread with own console window.

  * harbour/bin/hb-func.sh
  * harbour/config/linux/gcc.cf
    + added rt lib to Linux builds

  * harbour/bin/postinst.sh
    * create MT safe version of FM stat library: fmmt

  * harbour/bin/pack_src.sh
    + added support for ZIP packing

  * harbour/include/hbapi.h
  * harbour/include/hbvm.h
  * harbour/source/vm/hvm.c
    + added hb_vmThreadInit()/hb_vmThreadQuit() functions - they initialize
      HVM for calling thread so it can execute .prg code and call HVM
      functions. They can be used by 3-rd party code threads.
    + added hb_vmUnlock()/hb_vmLock() functions which informs that
      thread will not operate on HVM structures for some time allowing
      to execute single thread only processes like GC.
    + added hb_vmThreadQuitRequest() which sends stop request to given
       thread
    + added hb_vmWaitForThreads() which stops main thread execution waiting
      for other threads
    + added hb_vmSuspendThreads() and hb_vmResumeThreads() used be GC
      to stop all HVM threads before mark/swap scan
    + added linked list of HVM stacks
    + added hb_vmTerminateThreads() used by main HVM thread in QUIT state
    * moved EXIT procedures execution from QUIT request to HVM QUIT state
      in MT mode. It may effects some non structural code which tries to
      access private variables in EXIT functions but it's much cleaner
      and understandable for user. Please remember that we guaranties
      that ALWAYS code in BEGIN SEQUENCE is _always_ executed even after
      HVM QUIT request just like destructs. Personally I think that we
      should move EXIT procedures execution also in ST mode.
    * changed startup and cleanup code for new internal structures
    * changes startup and cleanup code for MT mode
    % removed some redundant HB_ITEM type settings
    ! eliminated non MT safe code which was using reference counters
      without protection

  * harbour/common.mak
  * harbour/source/vm/Makefile
  + harbour/include/hbthread.h
  + harbour/source/vm/thread.c
    + added C level functions to manage threads and synchronization objects
      See hbthread.h for detail description. They are based on PTHREAD API
      and PTHREAD documentation can be used as reference. I intentionally
      keep this list small for easier multiplatform porting.
      Now they have been implemented for PTHREADS (POSIX threads supported by
      many different OSes), MS-Win32/64 and OS2. The OS2 version is not tested
      at all. I do not even know if it can be compiled so please make tests.
      I used Internet resources and some part of xHarbour code as documentation
      for OS2 MT API. It should be quite easy to add other platforms if necessary.
      Harbour core code needs non recursive mutexes, conditional variables and
      TLS for one pointer. If platforms does not support conditional variables
      (f.e. MS-Win or OS2) then they can be emulated using multistate semaphores.
    + added .prg functions to manage threads and synchronization objects:
         hb_threadStart( <@sStart()> | <bStart> [, <params,...> ] ) -> <pThID>
         hb_threadJoin( <pThID> [, @<xRetCode> ] ) -> <lOK>
         hb_threadDetach( <pThID> ) -> <lOK>
         hb_threadQuitRequest( <pThID> ) -> <lOK>
         hb_threadWaitForAll() -> NIL
         hb_mutexCreate() -> <pMtx>
         hb_mutexLock( <pMtx> [, <nTimeOut> ] ) -> <lLocked>
         hb_mutexUnlock( <pMtx> ) -> <lOK>
         hb_mutexNotify( <pMtx> [, <xVal>] ) -> NIL
         hb_mutexNotifyAll( <pMtx> [, <xVal>] ) -> NIL
         hb_mutexSubscribe( <pMtx>, [ <nTimeOut> ] [, @<xSubscribed> ] ) -> <lSubscribed>
         hb_mutexSubscribeNow( <pMtx>, [ <nTimeOut> ] [, @<xSubscribed> ] ) -> <lSubscribed>
      The function list should give similar to xHarbour API but they are not exactly
      the same and except of hb_mutex*() functions which should replicate xHarbour behavior.

  + harbour/source/vm/vmmt
  + harbour/source/vm/vmmt/Makefile
    + added hbvmmt library to GNU make builds.
      Non GNU make builds should be updated.

  * harbour/contrib/hbct/pos1.c
  * harbour/contrib/gtwvg/gtwvg.c
  * harbour/contrib/rddads/ads1.c
  * harbour/contrib/hbmisc/spd.c
  * harbour/contrib/hbbmcdx/bmdbfcdx.c
  * harbour/contrib/examples/rdddbt/dbfdbt1.c
  * harbour/source/vm/runner.c
  * harbour/source/vm/itemapi.c
  * harbour/source/vm/hvm.c
  * harbour/source/rtl/console.c
  * harbour/source/rtl/strcase.c
  * harbour/source/rtl/spfiles.c
  * harbour/source/rtl/defpath.c
  * harbour/source/rtl/hbgtcore.c
  * harbour/source/rtl/dateshb.c
  * harbour/source/rtl/mlcfunc.c
  * harbour/source/rtl/fstemp.c
  * harbour/source/rtl/is.c
  * harbour/source/rtl/setcolor.c
  * harbour/source/rtl/errorint.c
  * harbour/source/rtl/transfrm.c
  * harbour/source/rtl/dates.c
  * harbour/source/rtl/filesys.c
  * harbour/source/rtl/gtdos/gtdos.c
  * harbour/source/rtl/gtwin/gtwin.c
  * harbour/source/rtl/gtwvt/gtwvt.c
  * harbour/source/rtl/gtxwc/gtxwc.c
  * harbour/source/rtl/gttrm/gttrm.c
  * harbour/source/rtl/gtpca/gtpca.c
  * harbour/source/rtl/gtcgi/gtcgi.c
  * harbour/source/rtl/gtcrs/gtcrs.c
  * harbour/source/rtl/gtstd/gtstd.c
  * harbour/source/rtl/gtsln/gtsln.c
  * harbour/source/rtl/gtsln/gtsln.h
  * harbour/source/rdd/dbf1.c
  * harbour/source/rdd/sdf1.c
  * harbour/source/rdd/delim1.c
  * harbour/source/rdd/dbcmd.c
  * harbour/source/rdd/hbdbsort.c
  * harbour/source/rdd/workarea.c
  * harbour/source/rdd/dbffpt/dbffpt1.c
  * harbour/source/rdd/dbfcdx/dbfcdx1.c
  * harbour/source/rdd/dbfntx/dbfntx1.c
  * harbour/source/rdd/hsx/hsx.c
  * harbour/source/rdd/hbsix/sxfname.c
    * use API functions instead of direct accessing to hb_cdp_page or hb_set

  * harbour/source/rtl/fstemp.c
  * harbour/source/rtl/fssize.c
  * harbour/source/rtl/hbffind.c
  * harbour/source/rtl/filesys.c
    * encapsulate potentially slow IO operation inside
      hb_vmUnlock()/hb_vmLock() calls to allow other thread GC
      activation

  * harbour/contrib/hbnf/fttext.c
    ! fixed casting

  * harbour/contrib/gtwvg/gtwvg.h
    - removed #include <comctl32.h> - my MinGW and MinGW/CE instalations do
      not have them. If it exists in some newer ones then it has to be
      covered by #if version checking.

  * harbour/source/vm/dynsym.c
    - removed hb_dynsymLog() and hb_dynsymMemvarHandle()
    * modified code to be MT safe and improved speed of some operations
    * added MUEXT protection for global dynamic table access

  * harbour/include/hbapi.h
  * harbour/source/vm/garbage.c
    * changed to work with MT HVM
    * changed to work with new memvar structures and thread local static and
      memvar variables
    * added MUEXT protection for linked block lists
    + added parameter to hb_gcCollectAll() which will force GC activation
      in MT mode by temporary suspending all executed threads.
    + added logical parameter to HB_GCALL() functions which is passed to
      hb_gcCollectAll()

  * harbour/source/vm/fm.c
    * added MUEXT protection for FM statistic module
    * added MT protection for reference counters. For platforms
      which supports atomic incrmenetation/decrementation (f.e.
      Interlocked*() functions in MS-Win) such operations are
      used. For other it's MUTEX protection. It gives MT safe
      readonly access for HVM complex variables without user
      synchronization. The MUTEX protection can cause some speed
      overhead so it's good to define MT safe version of
      HB_ATOM_INC()/HB_ATOM_DEC() in hbthread.h if given platform
      has them. Now they are defined only for Windows. For other
      platforms We can define can define them in assembler for some
      most popular CPUs in the future.

  * harbour/source/vm/classes.c
    * changed class definition array. Now it keeps pointers to class
      structures.
    * In MT mode allocated at HVM startup big enough array for class
      definitions to avoid later RT reallocations. It effectively eliminates
      MUTEX synchronization for class structure access.
    * protect by MUTEX code for new class creation

  * harbour/source/debug/dbgentry.c
    * eliminated hbvmopt.h and direct accessing to HVM structures

  * harbour/source/rtl/gtclip.c
    * protect with MUTEX access to internal clipboard data

  * harbour/source/rdd/nulsys/nulsys.c
    + added hb_rddCloseAll()

  + harbour/tests/mt
  + harbour/tests/mt/mttest01.prg
  + harbour/tests/mt/mttest02.prg
  + harbour/tests/mt/mttest03.prg
  + harbour/tests/mt/mttest04.prg
  + harbour/tests/mt/mttest05.prg
  + harbour/tests/mt/mttest06.prg
  + harbour/tests/mt/mttest07.prg
    + added some demonstration/test small MT programs written
      using Harbour language. Some of them can be also compiled
      by xHarbour but xHarbour does not pass any of my tests in
      real multi-CPU machine so do not expect they will work
      correctly.

   Harbour threads needs OS threads support. Each Harbour thread is directly
   mapped to OS thread. It's not very efficient on some older system where
   cost of thread creation and/or task switching is very expensive but it
   should not be bigger problem for modern OS-es which can support threads
   in practice nearly in user space only.
   I haven't touched Harbour function calling convention which comes from
   Clipper. It means that we do not pass pointer to VM to each functions
   like CLIP or xBase++. To resolve the problem I have to use thread local
   storage (TLS) where such pointer is kept. If platform does not support
   TLS then it can be emulated by us. Anyhow the speed of accessing TLS
   data and extracting HB_STACK poitner is critical for performance.
   Some compilers depending on used hardware and OS give native support
   for TLS (f.e. __thread keyword in GCC/BCC or __declspec( thread ) in MSVC).
   This should give optimal performance. On other Harbour uses TLS functions
   like TlsGetValue() (MS-WIN) or pthread_getspecific() (PTHREAD) are used.
   OS2 gives quite interesting TLS functionality which seems to be quite fast
   though it will be interesting to know how it is iplemented internally for
   real multi CPU machines (if it depends on CPU exception then the
   performance will be bad). We need TLS only for one pointer to HB_STACK
   structure.
   I haven't added any tricks like HB_THREAD_STUB in xHarbour to reduce
   the cost of TLS access. If it will be necessary for some platform the we
   can add it.
   Except TLS Harbour threads needs OS support for non recursive mutexes or
   critical sections and conditional variables. If platforms does not support
   conditional variables (f.e. MS-Win or OS2) then they can be emulated using
   multistate semaphores. I intentionally didn't create code which may need
   recursive mutexes. The non recursive ones are often faster and some
   platforms may not support recursive mutexes so they will have to be
   emulated by us.
   Harbour uses reference counters for complex variables. It means that even
   readonly access to complex item causes internal write operations necessary
   to increment/decrement its reference counter. To make such readonly access
   MT safe we have to make incrementation and decrementation with result
   checking atomic. By default it's done by mutex inside vm/fm.c but some
   platforms have native support for atomic inc/dec operations, f.e. 
   Interlocked*() functions in MS-Win. If they are available then such
   functions should be used to not reduce the performance by mutex call
   very often used functions. For many CPUs it should be quite easy to
   implement such atomic inc/dec functionality in assembler. F.e. for
   GCC and x86@32 it may looks like:

      static __inline__ void hb_atomic_inc32( volatile int * p )
      {
         __asm__ __volatile__(
            "lock incl %0"
            :"=m" (*p) :"m" (*p)
         );
      }

      static __inline__ int hb_atomic_dec32( volatile int * p )
      {
         unsigned char c;
         __asm__ __volatile__(
            "lock decl %0"
            "sete %1"
            :"=m" (*p), "=qm" (c) :"m" (*p) : "memory"
         );
         return c == 0;
      }

   and then it's enough to define in hbthreads.h:
      #define HB_ATOM_INC( p )    hb_atomic_inc32( ( volatile int * ) p )
      #define HB_ATOM_DEC( p )    hb_atomic_dec32( ( volatile int * ) p )

   Probably I'll make it for some most popular CPUs in the future.
   In Harbour each thread which wants to call HVM functions have to allocate
   it's own HVM stack. It's done hb_vmThreadInit(). The HVM stack is freed
   by calling hb_vmThreadQuit(). This functions can be called also by 3-rd
   party threads if they want to call HVM functions or execute .prg code.
   Calling HVM functions without allocated stack will cause GPF.
   I moved most of static variables to HVM stack to make them thread
   local. But some of them like FS errors have their own alternative
   copy which is used when thread does not allocate HVM stack. It allows
   to use hb_fs*() functions without HVM stack but programmer have to
   know that error codes return by hb_fs*Error() functions can be
   overwritten by other threads which also didn't allocated HVM stack.
   To execute garbage collector scan and mark pass it's necessary to
   stop other HVM threads. Otherwise the scan may give false results.
   It's also possible to not stop threads but protect with mutex all
   operations on GC items but it will probably cause performance reduction
   and will force some other modifications. Maybe I'll implement it
   in the future.
   I didn't use any OS level thread KILL or CANCEL calls. All HVM threads
   have to be cleanly removed without any resource leaks.
   QUIT command terminate only calling thread. If main (startup) HVM
   thread call QUIT then it sends QUIT request to all existing threads.
   In QUIT state ALWAYS statements and destructors are executed.
   New thread is created by:
      hb_threadStart( <@sStart()> | <bStart> [, <params,...> ] ) -> <pThID>
   The returned value is a pointer to internal thread structure which
   can be used in JOIN or DETACH operations. Each thread should be Joined
   or DETACHED to avoid resource leaks. If programmer does not store
   <pThID> or all instances of <pThID> are destroyed then thread is
   automatically detached. I do not know clear method of thread detaching
   in OS2. If some OS2 users knows it then plase update vm/hbthread.c.
   When thread terminates then all locked by this thread mutexes are
   released.
   Each thread uses its own memvars (PRIVATEs and PUBLICs) and work areas.
   When new thread is created then it inherits from parent thread:
      - code page
      - language
      - SETs
      - default RDD
   error block is initialized to default value by calling ERRORSYS()
   and PUBLIC variable GetList := {} is created.
   The following objects are initialized to default value:
         - error block
         - math error handler and math error block
         - macro compiler features setting (hb_setMacro())
           or move them to SETs.
   We can think about inheriting them. It's also possible to add
   inheriting of all visible memvars but I do not know it's good
   idea.

   Compilation and linking:
   For MT mode HVM library should be compiled with HB_MT_VM macro.
   GNU make automatically creates hbvmmt library which should be
   linked with Harbour MT programs instead of hbvm.
   Non GNU make files should be updated.
   If given compiler support TLS then you can try to set HB_USE_TLS
   to force using native compiler TLS support. Now it's enabled by
   default only for BCC. For Linux and GCC builds it may depend also
   on used GLIBC version. In older system there is no TLS support
   at all or TLS works only for shared binaries so I haven't enabled
   it. If you will test some other compiler then please add default
   native TLS support for them in hbthread.h
   Users using hb* scripts can simply use -mt switch when they want
   to create MT program, f.e.:
      hbmk -n -w3 -es2 -mt mttest01.prg

   There are still some minor things which should be done but I'll
   do them later. Current state seems to be fully functional.
   The most important and still missing is our own file lock server
   for RDD synchronization in POSIX systems. Kernel internally
   recognize POSIX locks by PID and file i-node - not PID and file
   handle. It means that the same file open more then once by one
   process shares locks. Because POSIX locks can be overwritten
   then we do not have any synchronization between aliased workareas
   or threads using the same table in *nixes. We have to make
   synchronization ourselves. I'll create such lock server ASAP.

   Please test and enjoy using Harbour threads.
2008-09-13 16:53:45 +00:00

1296 lines
51 KiB
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/*
* $Id$
*/
/*
* Harbour Project source code:
* Header file for compiler and runtime basic type declarations
*
* Copyright 1999 {list of individual authors and e-mail addresses}
* www - http://www.harbour-project.org
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2, or (at your option)
* any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this software; see the file COPYING. If not, write to
* the Free Software Foundation, Inc., 59 Temple Place, Suite 330,
* Boston, MA 02111-1307 USA (or visit the web site http://www.gnu.org/).
*
* As a special exception, the Harbour Project gives permission for
* additional uses of the text contained in its release of Harbour.
*
* The exception is that, if you link the Harbour libraries with other
* files to produce an executable, this does not by itself cause the
* resulting executable to be covered by the GNU General Public License.
* Your use of that executable is in no way restricted on account of
* linking the Harbour library code into it.
*
* This exception does not however invalidate any other reasons why
* the executable file might be covered by the GNU General Public License.
*
* This exception applies only to the code released by the Harbour
* Project under the name Harbour. If you copy code from other
* Harbour Project or Free Software Foundation releases into a copy of
* Harbour, as the General Public License permits, the exception does
* not apply to the code that you add in this way. To avoid misleading
* anyone as to the status of such modified files, you must delete
* this exception notice from them.
*
* If you write modifications of your own for Harbour, it is your choice
* whether to permit this exception to apply to your modifications.
* If you do not wish that, delete this exception notice.
*
*/
#ifndef HB_DEFS_H_
#define HB_DEFS_H_
#include <stdarg.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <limits.h>
#include "hbsetup.h"
#include "hbtrace.h"
#include "hbver.h"
#if defined( __XCC__ ) || defined( __MINGW32__ ) || \
( defined( __BORLANDC__ ) && __BORLANDC__ >= 1410 ) || \
( defined( __GNUC__ ) && \
( defined( HB_OS_LINUX ) || defined( HB_OS_DARWIN ) ) )
#include <stdint.h>
/* workaround for BCC 5.8 bug */
#if ( defined( __BORLANDC__ ) && __BORLANDC__ >= 1410 )
#undef INT32_MIN
#define INT32_MIN ((int32_t) (-INT32_MAX-1))
#undef INT64_MIN
#define INT64_MIN (9223372036854775807i64-1)
#undef INT64_MAX
#define INT64_MAX 9223372036854775807i64
#endif
#endif
/*
#define HB_CLIPPER_INT_ITEMS
#define HB_LONG_LONG_OFF
*/
#if defined( HB_OS_WIN_32 ) || defined( HB_OS_WIN_64 )
#if defined( HB_OS_WIN_64 )
#undef HB_LONG_LONG_OFF
#define HB_STRICT_ALIGNMENT
#if !defined( HB_OS_WIN_32 )
#define HB_OS_WIN_32
#endif
#endif
#if !defined( HB_WIN32_IO_OFF )
#define HB_WIN32_IO
#endif
#if defined( HB_WIN32_IO ) && !defined( HB_OS_WIN_32_USED )
/* disabled to avoid problems with windows.h */
/* #define HB_OS_WIN_32_USED */
#endif
#else
#undef HB_WIN32_IO
#undef HB_OS_WIN_32_USED
#endif
/* Include windows.h if applicable and requested */
#if defined( HB_OS_WIN_32_USED ) && defined( HB_OS_WIN_32 )
#include <windows.h>
#if defined( __GNUC__ )
#define HB_DONT_DEFINE_BASIC_TYPES
#endif
#elif defined( HB_OS_OS2 )
/* With the exception of WORD, the IBM Visual Age C++ compiler has
its own definitions of the Harbour types most of which conflict with the
Harbour #undefs, due to typedef being the prevalent method of
defining the types in IBMCPP, whereas Harbour assumes that the
definitions that it is replacing have been defined using
#define. Therefore, it is necessary to skip the Harbour
definition section when using the IBMCPP compiiler, include
the IBMCPP type definitions, and then add the definition for WORD
NOTE: This only applies to the common types that most C compilers
define. Any new types, particulary those that start with
HB_, must be placed AFTER the #endif __IBMCPP__ line!
*/
/* 28/03/2000 - maurilio.longo@libero.it
The same holds true when using GCC under OS/2
*/
#define INCL_TYPES
#define INCL_DOSEXCEPTIONS /* DOS exception values */
#define INCL_ERRORS /* DOS error values */
#include <os2.h>
#undef INT
#undef UINT
#define HB_DONT_DEFINE_BASIC_TYPES
#elif defined( HB_OS_DOS )
#include <dos.h>
#if defined(__WATCOMC__) && defined(__386__) && !defined(__WINDOWS_386__)
#define HB_DOS_INT86 int386
#define HB_DOS_INT86X int386x
#define HB_XREGS w
#elif defined(__RSX32__)
#define HB_DOS_INT86 _int86
#define HB_DOS_INT86X _int86x
#define HB_XREGS x
#elif defined( __DJGPP__ )
#define HB_DOS_INT86 int86
#define HB_DOS_INT86X int86x
#define HB_XREGS w
#else
#define HB_DOS_INT86 int86
#define HB_DOS_INT86X int86x
#define HB_XREGS x
#endif
#elif defined( HB_OS_DARWIN )
/* Detect if it is Darwin < 6.x */
#include <pthread.h>
#ifndef PTHREAD_MUTEX_RECURSIVE
#define HB_OS_DARWIN_5
#endif
#endif
#if defined( HB_OS_WIN_32 )
#include "hbwince.h"
#endif
#if ! defined( HB_DONT_DEFINE_BASIC_TYPES )
#if ! defined( HB_DONT_DEFINE_BOOL )
#undef BOOL /* boolean */
typedef int BOOL;
#endif
#undef UINT /* varies with platform */
typedef unsigned int UINT;
#undef SCHAR /* 1 byte signed */
typedef signed char SCHAR;
#undef UCHAR /* 1 byte unsigned */
typedef unsigned char UCHAR;
#undef BYTE /* 1 byte unsigned */
typedef unsigned char BYTE;
#undef SHORT /* 2 bytes signed */
typedef short int SHORT;
#undef USHORT /* 2 bytes unsigned */
typedef unsigned short int USHORT;
#undef LONG /* 4 or 8 bytes signed */
typedef long LONG;
#undef ULONG /* 4 or 8 bytes unsigned */
typedef unsigned long ULONG;
#undef FALSE
#define FALSE 0
#undef TRUE
#define TRUE (!0)
#else /* HB_DONT_DEFINE_BASIC_TYPES */
/*
* if HB_DONT_DEFINE_BASIC_TYPES excluded some types which are not
* defined in included platform dependent header files then please
* add necessary definitions here.
*/
/* SCHAR is needed using GCC on OS/2 */
#if ! defined( SCHAR )
typedef signed char SCHAR; /* 1 byte signed */
#endif
#endif /* HB_DONT_DEFINE_BASIC_TYPES */
#ifndef HB_LONG_LONG_OFF
#if ! defined(HB_DONT_DEFINE_BASIC_TYPES) && ! defined(_WINNT_H)
#if !defined(LONGLONG)
#if defined(__GNUC__)
typedef long long LONGLONG;
#else
typedef __int64 LONGLONG;
#endif
#endif
#if !defined(ULONGLONG)
#if defined(__GNUC__)
typedef unsigned long long ULONGLONG;
#else
typedef unsigned __int64 ULONGLONG;
#endif
#endif
#endif
#if !defined(ULONGLONG_MAX)
#if defined(_UI64_MAX)
#define ULONGLONG_MAX _UI64_MAX
#elif defined(ULLONG_MAX)
#define ULONGLONG_MAX ULLONG_MAX
#elif defined(ULONG_LONG_MAX)
#define ULONGLONG_MAX ULONG_LONG_MAX
#else
#define ULONGLONG_MAX 18446744073709551615ULL
#endif
#endif
#if !defined(LONGLONG_MAX)
#if defined(_I64_MAX)
#define LONGLONG_MAX _I64_MAX
#elif defined(LLONG_MAX)
#define LONGLONG_MAX LLONG_MAX
#elif defined(LONG_LONG_MAX)
#define LONGLONG_MAX LONG_LONG_MAX
#else
#define LONGLONG_MAX 9223372036854775807LL
#endif
#endif
#if !defined(LONGLONG_MIN)
#if defined(_I64_MIN)
#define LONGLONG_MIN _I64_MIN
#elif defined(LLONG_MIN)
#define LONGLONG_MIN LLONG_MIN
#elif defined(LONG_LONG_MIN)
#define LONGLONG_MIN LONG_LONG_MIN
#else
#define LONGLONG_MIN (-LONGLONG_MAX - 1LL)
#endif
#endif
#endif /* HB_LONG_LONG_OFF */
/*
* below are some hacks which don't have to be true on some machines
* please update it if necessary
*/
#if defined( HB_OS_WIN_64 )
# define HB_ARCH_64BIT
#elif ULONG_MAX > UINT_MAX && UINT_MAX > USHRT_MAX
# define HB_ARCH_64BIT
#elif ULONG_MAX == UINT_MAX && UINT_MAX > USHRT_MAX
# define HB_ARCH_32BIT
#elif ULONG_MAX > UINT_MAX && UINT_MAX == USHRT_MAX
# define HB_ARCH_16BIT
#endif
#if USHRT_MAX == 0xffff
# if !defined( UINT16 )
typedef USHORT UINT16;
# endif
# if !defined( INT16 )
typedef SHORT INT16;
# endif
# if !defined( UINT16_MAX )
# define UINT16_MAX USHRT_MAX
# endif
# if !defined( INT16_MAX )
# define INT16_MAX SHRT_MAX
# endif
# if !defined( INT16_MIN )
# define INT16_MIN SHRT_MIN
# endif
#endif
#if UINT_MAX == 0xFFFFFFFF
# if !defined( UINT32 )
typedef UINT UINT32;
# endif
# if !defined( INT32 )
typedef int INT32;
# endif
# if !defined( UINT32_MAX )
# define UINT32_MAX UINT_MAX
# endif
# if !defined( INT32_MAX )
# define INT32_MAX INT_MAX
# endif
# if !defined( INT32_MIN )
# define INT32_MIN INT_MIN
# endif
#elif ULONG_MAX == 0xFFFFFFFF
# if !defined( UINT32 )
typedef ULONG UINT32;
# endif
# if !defined( INT32 )
typedef LONG INT32;
# endif
# if !defined( UINT32_MAX )
# define UINT32_MAX ULONG_MAX
# endif
# if !defined( INT32_MAX )
# define INT32_MAX LONG_MAX
# endif
# if !defined( INT32_MIN )
# define INT32_MIN LONG_MIN
# endif
#endif
#if !defined( UCHAR_MAX )
# define UCHAR_MAX 0x0FF
#endif
#if !defined( UINT24_MAX )
# define UINT24_MAX 0x0FFFFFFL
#endif
#if !defined( INT24_MAX )
# define INT24_MAX 8388607L
#endif
#if !defined( INT24_MIN )
# define INT24_MIN -8388608L
#endif
#if defined( HB_ARCH_64BIT ) && !defined( HB_OS_WIN_64 )
# if !defined( UINT64 )
typedef ULONG UINT64;
# endif
# if !defined( INT64 )
typedef LONG INT64;
# endif
# if !defined( UINT64_MAX )
# define UINT64_MAX ULONG_MAX
# endif
# if !defined( INT64_MAX )
# define INT64_MAX LONG_MAX
# endif
# if !defined( INT64_MIN )
# define INT64_MIN LONG_MIN
# endif
#elif !defined( HB_LONG_LONG_OFF )
# if !defined( UINT64 )
typedef ULONGLONG UINT64;
# endif
# if !defined( INT64 )
typedef LONGLONG INT64;
# endif
# if !defined( UINT64_MAX )
# define UINT64_MAX ULONGLONG_MAX
# endif
# if !defined( INT64_MAX )
# define INT64_MAX LONGLONG_MAX
# endif
# if !defined( INT64_MIN )
# define INT64_MIN LONGLONG_MIN
# endif
#endif
#ifndef HB_LONG_DOUBLE_OFF
typedef long double HB_MAXDBL;
#else
typedef double HB_MAXDBL;
#endif
#if defined( HB_CLIPPER_INT_ITEMS )
# define HB_INT_MAX SHRT_MAX
# define HB_INT_MIN SHRT_MIN
# define HB_LONG_MAX LONG_MAX
# define HB_LONG_MIN LONG_MIN
# define HB_ULONG_MAX ULONG_MAX
typedef LONG HB_LONG;
typedef ULONG HB_ULONG;
# define PFHL "l"
#elif !defined( HB_LONG_LONG_OFF ) && ULONG_MAX == UINT_MAX
# define HB_INT_MAX INT_MAX
# define HB_INT_MIN INT_MIN
# define HB_LONG_MAX LONGLONG_MAX
# define HB_LONG_MIN LONGLONG_MIN
# define HB_ULONG_MAX ULONGLONG_MAX
typedef LONGLONG HB_LONG;
typedef ULONGLONG HB_ULONG;
#else
# define HB_INT_MAX INT_MAX
# define HB_INT_MIN INT_MIN
# define HB_LONG_MAX LONG_MAX
# define HB_LONG_MIN LONG_MIN
# define HB_ULONG_MAX ULONG_MAX
typedef LONG HB_LONG;
typedef ULONG HB_ULONG;
# define PFHL "l"
#endif
#define HB_DBL_LIM_INT(d) ( HB_INT_MIN <= (d) && (d) <= HB_INT_MAX )
#define HB_DBL_LIM_LONG(d) ( (HB_MAXDBL) HB_LONG_MIN <= (HB_MAXDBL) (d) && (HB_MAXDBL) (d) <= (HB_MAXDBL) HB_LONG_MAX )
#define HB_LIM_INT(l) ( HB_INT_MIN <= (l) && (l) <= HB_INT_MAX )
#define HB_LIM_LONG(l) ( HB_LONG_MIN <= (l) && (l) <= HB_LONG_MAX )
#define HB_DBL_LIM_INT8(d) ( -128 <= (d) && (d) <= 127 )
#define HB_DBL_LIM_INT16(d) ( INT16_MIN <= (d) && (d) <= INT16_MAX )
#define HB_DBL_LIM_INT24(d) ( INT24_MIN <= (d) && (d) <= INT24_MAX )
#define HB_DBL_LIM_INT32(d) ( INT32_MIN <= (d) && (d) <= INT32_MAX )
#define HB_DBL_LIM_INT64(d) ( (HB_MAXDBL) INT64_MIN <= (HB_MAXDBL) (d) && (HB_MAXDBL) (d) <= (HB_MAXDBL) INT64_MAX )
#define HB_LIM_INT8(l) ( -128 <= (l) && (l) <= 127 )
#define HB_LIM_INT16(l) ( INT16_MIN <= (l) && (l) <= INT16_MAX )
#define HB_LIM_INT24(l) ( INT24_MIN <= (l) && (l) <= INT24_MAX )
#define HB_LIM_INT32(l) ( INT32_MIN <= (l) && (l) <= INT32_MAX )
#define HB_LIM_INT64(l) ( INT64_MIN <= (l) && (l) <= INT64_MAX )
/*
* It's a hack for compilers which don't support LL suffix for LONGLONG
* numeric constant. This suffix is necessary for some compilers -
* without it they cut the number to LONG
*/
#if defined( __BORLANDC__ )
# if __BORLANDC__ >= 1328
# define HB_LL( num ) num##i64
# else
# define HB_LL( num ) num
# endif
#elif defined( _MSC_VER )
# define HB_LL( num ) num
#else
# define HB_LL( num ) num##LL
#endif
/* HB_*_EXPLENGTH() macros are used by HVM to set the size of
* math operations, HB_*_LENGTH() macros are used when new
* item is created. [druzus]
*/
/* NOTE: the positive number limit 999999999 in HB_INT_LENGTH()
* (HB_LONG_LENGTH() on 16-bit platforms) below is not
* compatible with other limits. Clipper have such limit
* but IMHO it's result of some typo or wrong compiler
* warnings cleanup when someone removed one digit from
* upper limit instead of removing the whole limit.
* It's also possible that it comes from DBASE and was
* intentionally replicated. I think we should keep it
* only in strict compatibility mode. [druzus]
*/
#if HB_INT_MIN < -999999999
# define HB_INT_LENGTH( i ) ( ( (i) < -999999999 || (i) > 999999999 ) ? 20 : 10 )
#else
# define HB_INT_LENGTH( i ) 10
# define HB_INT_EXPLENGTH( i ) 10
# if HB_LONG_MIN < -999999999
# define HB_LONG_LENGTH( i ) ( ( (i) < -999999999 || (i) > 999999999 ) ? 20 : 10 )
# endif
#endif
#if !defined( HB_LONG_LONG_OFF )
# if HB_LONG_MAX > HB_LL( 9999999999 )
# define HB_LONG_LENGTH( l ) ( ( (l) < -999999999 || (l) > HB_LL( 9999999999 ) ) ? 20 : 10 )
# endif
# if HB_INT_MAX > HB_LL( 9999999999 )
# define HB_INT_EXPLENGTH( i ) HB_LONG_LENGTH( i )
# endif
#endif
#if !defined( HB_LONG_LENGTH )
# define HB_LONG_LENGTH( l ) ( ( (l) < -999999999 ) ? 20 : 10 )
#endif
#if !defined( HB_INT_EXPLENGTH )
# define HB_INT_EXPLENGTH( i ) ( ( (i) < -999999999 ) ? 20 : 10 )
#endif
#if !defined( HB_LONG_EXPLENGTH )
# define HB_LONG_EXPLENGTH( l ) HB_LONG_LENGTH( l )
#endif
/* HB_DBL_LENGTH() is used by VAL() for strings longer then 10 characters
* (counted to '.') and to set the size of math operations and new
* double item - it's CA-Cl*pper compatible range. For doubles we do
* not have separated limit for result of math operations. [druzus]
*/
#define HB_DBL_LENGTH( d ) ( ( (d) > 9999999999.0 || (d) < -999999999.0 ) ? 20 : 10 )
/* uncomment this if you need strict Clipper compatibility */
/* #define PCODE_LONG_LIM(l) HB_LIM_INT32( l ) */
/* #define PCODE_LONG_LIM(l) HB_LIM_LONG( l ) */
/* type of HB_ITEM */
/* typedef USHORT HB_TYPE; */
typedef UINT32 HB_TYPE;
/* type of reference counter */
typedef unsigned long HB_COUNTER;
#if ULONG_MAX <= UINT32_MAX
# define HB_COUNTER_SIZE 4
#else
# define HB_COUNTER_SIZE 8
#endif
/* type for memory pointer diff */
#if defined( HB_OS_WIN_64 )
typedef LONGLONG HB_PTRDIFF;
#else
typedef long HB_PTRDIFF;
#endif
#ifdef HB_LONG_LONG_OFF
typedef LONG HB_FOFFSET;
/* we can add hack with double as work around what should
effectively give 52bit file size limit */
#else
typedef LONGLONG HB_FOFFSET;
#endif
#if defined( HB_WIN32_IO )
#if 1
typedef HB_PTRDIFF HB_FHANDLE;
#else
typedef void * HB_FHANDLE;
#endif
typedef HB_PTRDIFF HB_NHANDLE;
# define hb_numToHandle( h ) ( ( HB_FHANDLE ) ( HB_NHANDLE ) ( h ) )
#else
typedef int HB_FHANDLE;
typedef int HB_NHANDLE;
# define hb_numToHandle( h ) ( ( int ) ( h ) )
#endif
#ifdef HB_LEGACY_LEVEL
#define FHANDLE HB_FHANDLE
#endif
/* maximum length of double number in decimal representation:
log10(2^1024) ~ 308.25 */
#define HB_MAX_DOUBLE_LENGTH 320
/* This value is used to hack the double FL value in round/int
operation - similar thing is done by CL5.3 - I do not know
only the exact factor value but it should be close to this one.
When HB_C52_STRICT is set this macro is not used.
*/
#define HB_DBLFL_PREC_FACTOR 1.0000000000000002;
/* try to detect byte order if not explicitly set */
#if !defined( HB_PDP_ENDIAN ) && !defined( HB_BIG_ENDIAN ) && \
!defined( HB_LITTLE_ENDIAN )
/* I intentionaly move the first two #if/#elif to the begining
to avoid compiler error when this macro will be defined as
empty statement in next conditions, F.e. SunOS
*/
# if ( defined( __LITTLE_ENDIAN__ ) && ! defined( __BIG_ENDIAN__ ) ) || \
( defined( __LITTLE_ENDIAN ) && ! defined( __BIG_ENDIAN ) ) || \
( defined( _LITTLE_ENDIAN ) && ! defined( _BIG_ENDIAN ) ) || \
( defined( LITTLE_ENDIAN ) && ! defined( BIG_ENDIAN ) )
# define HB_LITTLE_ENDIAN
# elif ( ! defined( __LITTLE_ENDIAN__ ) && defined( __BIG_ENDIAN__ ) ) || \
( ! defined( __LITTLE_ENDIAN ) && defined( __BIG_ENDIAN ) ) || \
( ! defined( _LITTLE_ENDIAN ) && defined( _BIG_ENDIAN ) ) || \
( ! defined( LITTLE_ENDIAN ) && defined( BIG_ENDIAN ) )
# define HB_BIG_ENDIAN
# elif ( defined( __BYTE_ORDER ) && defined( __LITTLE_ENDIAN ) && __BYTE_ORDER == __LITTLE_ENDIAN ) || \
( defined( _BYTE_ORDER ) && defined( _LITTLE_ENDIAN ) && _BYTE_ORDER == _LITTLE_ENDIAN ) || \
( defined( BYTE_ORDER ) && defined( LITTLE_ENDIAN ) && BYTE_ORDER == LITTLE_ENDIAN )
# define HB_LITTLE_ENDIAN
# elif ( defined( __BYTE_ORDER ) && defined( __BIG_ENDIAN ) && __BYTE_ORDER == __BIG_ENDIAN ) || \
( defined( _BYTE_ORDER ) && defined( _BIG_ENDIAN ) && _BYTE_ORDER == _BIG_ENDIAN ) || \
( defined( BYTE_ORDER ) && defined( BIG_ENDIAN ) && BYTE_ORDER == BIG_ENDIAN )
# define HB_BIG_ENDIAN
# elif ( defined( __BYTE_ORDER ) && defined( __PDP_ENDIAN ) && __BYTE_ORDER == __PDP_ENDIAN ) || \
( defined( _BYTE_ORDER ) && defined( _PDP_ENDIAN ) && _BYTE_ORDER == _PDP_ENDIAN ) || \
( defined( BYTE_ORDER ) && defined( PDP_ENDIAN ) && BYTE_ORDER == PDP_ENDIAN )
# define HB_PDP_ENDIAN
# else /* We cannot detect byte order, we will have to guess */
# if defined( HB_OS_DARWIN ) || defined( HB_OS_SUNOS ) || defined( HB_OS_HPUX )
# define HB_BIG_ENDIAN
# else
# define HB_LITTLE_ENDIAN
# endif
# endif
#endif
#define HB_MAX( a, b ) ( ( ( a ) > ( b ) ) ? ( a ) : ( b ) )
#define HB_MIN( a, b ) ( ( ( a ) < ( b ) ) ? ( a ) : ( b ) )
#define HB_LOBYTE( w ) ( ( BYTE ) ( w ) )
#define HB_HIBYTE( w ) ( ( BYTE ) ( ( ( w ) >> 8 ) & 0xFF ) )
#define HB_ULBYTE( w ) ( ( BYTE ) ( ( ( w ) >> 16 ) & 0xFF ) )
#define HB_UHBYTE( w ) ( ( BYTE ) ( ( ( w ) >> 24 ) & 0xFF ) )
#define HB_LOWORD( l ) ( ( UINT16 ) ( l ) )
#define HB_HIWORD( l ) ( ( UINT16 ) ( ( ( l ) >> 16 ) & 0xFFFF ) )
#define HB_MKSHORT( lo, hi ) ( ( SHORT ) ( ( ( INT16 ) ( hi ) ) << 8 ) | ( lo ) )
#define HB_MKUSHORT( lo, hi ) ( ( USHORT ) ( ( ( UINT16 ) ( hi ) ) << 8 ) | ( lo ) )
#define HB_MKLONG( b1, b2, b3, b4 ) ( ( LONG ) \
( ( ( ( INT32 ) ( b4 ) ) << 24 ) | \
( ( ( INT32 ) ( b3 ) ) << 16 ) | \
( ( ( INT32 ) ( b2 ) ) << 8 ) | \
( ( ( INT32 ) ( b1 ) ) ) ) )
#define HB_MKULONG( b1, b2, b3, b4 ) ( ( ULONG ) \
( ( ( ( UINT32 ) ( b4 ) ) << 24 ) | \
( ( ( UINT32 ) ( b3 ) ) << 16 ) | \
( ( ( UINT32 ) ( b2 ) ) << 8 ) | \
( ( ( UINT32 ) ( b1 ) ) ) ) )
#define HB_SWAP_UINT16( w ) ( ( UINT16 ) ( ( ( ( UINT16 ) ( w ) & 0xFF00 ) >> 8 ) | \
( ( ( UINT16 ) ( w ) & 0x00FF ) << 8 ) ) )
#define HB_SWAP_UINT32( w ) ( ( UINT32 ) ( ( ( ( UINT32 ) ( w ) & 0x000000FF ) << 24 ) | \
( ( ( UINT32 ) ( w ) & 0x0000FF00 ) << 8 ) | \
( ( ( UINT32 ) ( w ) & 0x00FF0000 ) >> 8 ) | \
( ( ( UINT32 ) ( w ) & 0xFF000000 ) >> 24 ) ) )
#ifndef PFLL
# if defined( __BORLANDC__ ) || defined( _MSC_VER )
# define PFLL "I64"
# else
# define PFLL "ll"
# endif
#endif
#ifndef PFHL
# define PFHL PFLL
#endif
#define HB_SWAP_UINT64( w ) ( ( UINT64 ) ( ( ( ( UINT64 ) ( w ) & HB_LL( 0x00000000000000FF ) ) << 56 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x000000000000FF00 ) ) << 40 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x0000000000FF0000 ) ) >> 24 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x00000000FF000000 ) ) >> 8 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x000000FF00000000 ) ) >> 8 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x0000FF0000000000 ) ) >> 24 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0x00FF000000000000 ) ) >> 40 ) | \
( ( ( UINT64 ) ( w ) & HB_LL( 0xFF00000000000000 ) ) >> 56 ) ) )
/*
* on some machines it's not safe to directly access pointers stored
* at byte buffer they have to be stored at odd (or other alignment)
* addresses.
* For example SPARC which needs 4 byte alignment for pointers
* and 8 byte alignment for doubles and structures (when GCC is used)
* IMHO need HB_ARCH_<arch> macro yet - the same OS can be used with
* different architectures - SPARC + LINUX, ALPHA + LINUX
*/
#if !defined( HB_STRICT_ALIGNMENT )
# if defined( HB_OS_SUNOS ) || defined( HB_OS_HPUX ) || defined( _M_ARM )
# define HB_STRICT_ALIGNMENT
# endif
#endif
#if defined( HB_STRICT_ALIGNMENT )
# if !defined( HB_ALLOC_ALIGNMENT ) || ( HB_ALLOC_ALIGNMENT + 1 == 1 )
# define HB_ALLOC_ALIGNMENT 8
# endif
#endif
#if defined( HB_ALLOC_ALIGNMENT ) && HB_COUNTER_SIZE < HB_ALLOC_ALIGNMENT + 0
# define HB_COUNTER_OFFSET HB_ALLOC_ALIGNMENT
#else
# define HB_COUNTER_OFFSET HB_COUNTER_SIZE
#endif
#define HB_COUNTER_PTR( p ) ((HB_COUNTER*) ((BYTE *) (p)-HB_COUNTER_OFFSET))
/*
* These macros are necessary for architectures which need
* strict alignment for pointers.
*/
#if defined( HB_BIG_ENDIAN )
# if defined( HB_ARCH_64BIT )
# define HB_PUT_LONG( p, v ) HB_PUT_BE_UINT64( p, ( UINT64 ) ( v ) )
# define HB_GET_LONG( p ) HB_GET_BE_UINT64( p )
# else
# define HB_PUT_LONG( p, v ) HB_PUT_BE_UINT32( p, ( UINT32 ) ( v ) )
# define HB_GET_LONG( p ) HB_GET_BE_UINT32( p )
# endif
# define HB_PUT_UINT32( p, v ) HB_PUT_BE_UINT32( p, ( UINT32 ) ( v ) )
# define HB_GET_UINT32( p ) HB_GET_BE_UINT32( p )
#else
# if defined( HB_ARCH_64BIT )
# define HB_PUT_LONG( p, v ) HB_PUT_LE_UINT64( p, ( UINT64 ) ( v ) )
# define HB_GET_LONG( p ) HB_GET_LE_UINT64( p )
# else
# define HB_PUT_LONG( p, v ) HB_PUT_LE_UINT32( p, ( UINT32 ) ( v ) )
# define HB_GET_LONG( p ) HB_GET_LE_UINT32( p )
# endif
# define HB_PUT_UINT32( p, v ) HB_PUT_LE_UINT32( p, ( UINT32 ) ( v ) )
# define HB_GET_UINT32( p ) HB_GET_LE_UINT32( p )
#endif
#if !defined( HB_STRICT_ALIGNMENT )
# define HB_PUT_PTR( p, v ) do { *( void ** ) ( p ) = ( void * ) ( v ); } while ( 0 )
# define HB_GET_PTR( p ) ( *( void ** ) ( p ) )
#else
# define HB_PUT_PTR( p, v ) HB_PUT_LONG( p, v )
# define HB_GET_PTR( p ) ( ( void * ) HB_GET_LONG( p ) )
#endif
/* Macros to store/retrive double value */
#if defined( __GNUC__ )
# define HB_GET_REV_DOUBLE( p ) \
( { \
union { \
double dbl; \
BYTE buffer[ 8 ]; \
} u; \
u.buffer[ 0 ] = (( BYTE * )( p ))[ 7 ]; \
u.buffer[ 1 ] = (( BYTE * )( p ))[ 6 ]; \
u.buffer[ 2 ] = (( BYTE * )( p ))[ 5 ]; \
u.buffer[ 3 ] = (( BYTE * )( p ))[ 4 ]; \
u.buffer[ 4 ] = (( BYTE * )( p ))[ 3 ]; \
u.buffer[ 5 ] = (( BYTE * )( p ))[ 2 ]; \
u.buffer[ 6 ] = (( BYTE * )( p ))[ 1 ]; \
u.buffer[ 7 ] = (( BYTE * )( p ))[ 0 ]; \
u.dbl; \
} )
# define HB_GET_STD_DOUBLE( p ) \
( { \
union { \
double dbl; \
BYTE buffer[ 8 ]; \
} u; \
u.buffer[ 0 ] = (( BYTE * )( p ))[ 0 ]; \
u.buffer[ 1 ] = (( BYTE * )( p ))[ 1 ]; \
u.buffer[ 2 ] = (( BYTE * )( p ))[ 2 ]; \
u.buffer[ 3 ] = (( BYTE * )( p ))[ 3 ]; \
u.buffer[ 4 ] = (( BYTE * )( p ))[ 4 ]; \
u.buffer[ 5 ] = (( BYTE * )( p ))[ 5 ]; \
u.buffer[ 6 ] = (( BYTE * )( p ))[ 6 ]; \
u.buffer[ 7 ] = (( BYTE * )( p ))[ 7 ]; \
u.dbl; \
} )
#else
# define HB_GET_REV_DOUBLE( p ) hb_get_rev_double( ( BYTE * ) ( p ) )
# define HB_GET_STD_DOUBLE( p ) hb_get_std_double( ( BYTE * ) ( p ) )
#endif
#define HB_PUT_REV_DOUBLE( p, d ) \
do { \
union { \
double dbl; \
BYTE buffer[ 8 ]; \
} u; \
u.dbl = ( double ) ( d ); \
(( BYTE * )( p ))[ 7 ] = u.buffer[ 0 ]; \
(( BYTE * )( p ))[ 6 ] = u.buffer[ 1 ]; \
(( BYTE * )( p ))[ 5 ] = u.buffer[ 2 ]; \
(( BYTE * )( p ))[ 4 ] = u.buffer[ 3 ]; \
(( BYTE * )( p ))[ 3 ] = u.buffer[ 4 ]; \
(( BYTE * )( p ))[ 2 ] = u.buffer[ 5 ]; \
(( BYTE * )( p ))[ 1 ] = u.buffer[ 6 ]; \
(( BYTE * )( p ))[ 0 ] = u.buffer[ 7 ]; \
} while ( 0 )
#define HB_PUT_STD_DOUBLE( p, d ) \
do { \
union { \
double dbl; \
BYTE buffer[ 8 ]; \
} u; \
u.dbl = ( double ) ( d ); \
(( BYTE * )( p ))[ 0 ] = u.buffer[ 0 ]; \
(( BYTE * )( p ))[ 1 ] = u.buffer[ 1 ]; \
(( BYTE * )( p ))[ 2 ] = u.buffer[ 2 ]; \
(( BYTE * )( p ))[ 3 ] = u.buffer[ 3 ]; \
(( BYTE * )( p ))[ 4 ] = u.buffer[ 4 ]; \
(( BYTE * )( p ))[ 5 ] = u.buffer[ 5 ]; \
(( BYTE * )( p ))[ 6 ] = u.buffer[ 6 ]; \
(( BYTE * )( p ))[ 7 ] = u.buffer[ 7 ]; \
} while ( 0 )
/*
* HB_FORCE_IEEE754_DOUBLE will can be used on platforms which use differ
* double format and we want to force storing double number as IEEE754
* double value for sharing binary data (f.e. PCODE in .hrb files or CDX
* indexes or DBFs with "B" fields.
*/
#if defined( HB_FORCE_IEEE754_DOUBLE )
# define HB_GET_LE_DOUBLE( p ) hb_get_ieee754( ( BYTE * ) ( p ) )
# define HB_PUT_LE_DOUBLE( p, d ) hb_put_ieee754( ( BYTE * ) ( p ), ( d ) )
# define HB_DBL2ORD( d, o ) hb_put_ord_ieee754( ( o ), *( d ) )
# define HB_ORD2DBL( o, d ) do { \
*d = hb_get_ord_ieee754( ( BYTE * ) ( o ) ); \
} while( 0 )
#elif defined( HB_STRICT_ALIGNMENT )
# if defined( HB_LITTLE_ENDIAN )
# define HB_GET_LE_DOUBLE( p ) HB_GET_STD_DOUBLE( ( p ) )
# define HB_PUT_LE_DOUBLE( p, d ) HB_PUT_STD_DOUBLE( ( p ), ( d ) )
# elif defined( HB_BIG_ENDIAN )
# define HB_GET_LE_DOUBLE( p ) HB_GET_REV_DOUBLE( ( p ) )
# define HB_PUT_LE_DOUBLE( p, d ) HB_PUT_REV_DOUBLE( ( p ), ( d ) )
# endif
#else
# if defined( HB_LITTLE_ENDIAN )
# define HB_GET_LE_DOUBLE( p ) ( *( double * )( p ) )
# define HB_PUT_LE_DOUBLE( p, d ) ( *( double * )( p ) = ( double ) ( d ) )
# elif defined( HB_BIG_ENDIAN )
# define HB_GET_LE_DOUBLE( p ) HB_GET_REV_DOUBLE( ( p ) )
# define HB_PUT_LE_DOUBLE( p, d ) HB_PUT_REV_DOUBLE( ( p ), ( d ) )
# endif
#endif
/* Now the rest of endian macros */
#if defined( HB_STRICT_ALIGNMENT ) || !defined( HB_LITTLE_ENDIAN )
#define HB_GET_LE_UINT16( p ) ( ( UINT16 ) \
( ( ( UINT16 ) (( BYTE * )( p ))[0] ) | \
( ( UINT16 ) (( BYTE * )( p ))[1] << 8 ) ) )
#define HB_GET_LE_UINT32( p ) ( ( UINT32 ) \
( ( ( UINT32 ) (( BYTE * )( p ))[0] ) | \
( ( UINT32 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( UINT32 ) (( BYTE * )( p ))[2] << 16 ) | \
( ( UINT32 ) (( BYTE * )( p ))[3] << 24 ) ) )
#define HB_GET_LE_UINT64( p ) ( ( UINT64 ) \
( ( ( UINT64 ) (( BYTE * )( p ))[0] ) | \
( ( UINT64 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( UINT64 ) (( BYTE * )( p ))[2] << 16 ) | \
( ( UINT64 ) (( BYTE * )( p ))[3] << 24 ) | \
( ( UINT64 ) (( BYTE * )( p ))[4] << 32 ) | \
( ( UINT64 ) (( BYTE * )( p ))[5] << 40 ) | \
( ( UINT64 ) (( BYTE * )( p ))[6] << 48 ) | \
( ( UINT64 ) (( BYTE * )( p ))[7] << 56 ) ) )
#define HB_PUT_LE_UINT16( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( w ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 8 ); \
} while ( 0 )
#define HB_PUT_LE_UINT32( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( w ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[2] = ( BYTE )( (w) >> 16 ); \
(( BYTE * )( p ))[3] = ( BYTE )( (w) >> 24 ); \
} while ( 0 )
#define HB_PUT_LE_UINT64( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( w ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[2] = ( BYTE )( (w) >> 16 ); \
(( BYTE * )( p ))[3] = ( BYTE )( (w) >> 24 ); \
(( BYTE * )( p ))[4] = ( BYTE )( (w) >> 32 ); \
(( BYTE * )( p ))[5] = ( BYTE )( (w) >> 40 ); \
(( BYTE * )( p ))[6] = ( BYTE )( (w) >> 48 ); \
(( BYTE * )( p ))[7] = ( BYTE )( (w) >> 56 ); \
} while ( 0 )
#endif
#if defined( HB_STRICT_ALIGNMENT ) || !defined( HB_BIG_ENDIAN )
#define HB_GET_BE_UINT16( p ) ( ( UINT16 ) \
( ( ( UINT16 ) (( BYTE * )( p ))[0] << 8 ) | \
( ( UINT16 ) (( BYTE * )( p ))[1] ) ) )
#define HB_GET_BE_UINT32( p ) ( ( UINT32 ) \
( ( ( UINT32 ) (( BYTE * )( p ))[0] << 24 ) | \
( ( UINT32 ) (( BYTE * )( p ))[1] << 16 ) | \
( ( UINT32 ) (( BYTE * )( p ))[2] << 8 ) | \
( ( UINT32 ) (( BYTE * )( p ))[3] ) ) )
#define HB_GET_BE_UINT64( p ) ( ( UINT64 ) \
( ( ( UINT64 ) (( BYTE * )( p ))[0] << 56 ) | \
( ( UINT64 ) (( BYTE * )( p ))[1] << 48 ) | \
( ( UINT64 ) (( BYTE * )( p ))[2] << 40 ) | \
( ( UINT64 ) (( BYTE * )( p ))[3] << 32 ) | \
( ( UINT64 ) (( BYTE * )( p ))[4] << 24 ) | \
( ( UINT64 ) (( BYTE * )( p ))[5] << 16 ) | \
( ( UINT64 ) (( BYTE * )( p ))[6] << 8 ) | \
( ( UINT64 ) (( BYTE * )( p ))[7] ) ) )
#define HB_PUT_BE_UINT16( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[1] = ( BYTE )( w ); \
} while ( 0 )
#define HB_PUT_BE_UINT32( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( (w) >> 24 ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 16 ); \
(( BYTE * )( p ))[2] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[3] = ( BYTE )( w ); \
} while ( 0 )
#define HB_PUT_BE_UINT64( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( (w) >> 56 ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 48 ); \
(( BYTE * )( p ))[2] = ( BYTE )( (w) >> 40 ); \
(( BYTE * )( p ))[3] = ( BYTE )( (w) >> 32 ); \
(( BYTE * )( p ))[4] = ( BYTE )( (w) >> 24 ); \
(( BYTE * )( p ))[5] = ( BYTE )( (w) >> 16 ); \
(( BYTE * )( p ))[6] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[7] = ( BYTE )( w ); \
} while ( 0 )
#endif
/*
* 24 bit integers are not directly supported by any processor we used so far
* so we always have to build them from BYTEs and cannot use C casting
*/
#define HB_GET_LE_INT24( p ) ( ( INT32 ) \
( ( ( INT32 ) (( BYTE * )( p ))[0] ) | \
( ( INT32 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( INT32 ) (( BYTE * )( p ))[2] << 16 ) | \
( ( INT32 ) ((( BYTE * )( p ))[2] & 0x80 ? 0xFF : 0x00 ) << 24 ) ) )
#define HB_GET_LE_UINT24( p ) ( ( UINT32 ) \
( ( ( UINT32 ) (( BYTE * )( p ))[0] ) | \
( ( UINT32 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( UINT32 ) (( BYTE * )( p ))[2] << 16 ) ) )
#define HB_PUT_LE_UINT24( p, w ) do { \
(( BYTE * )( p ))[0] = ( BYTE )( w ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[2] = ( BYTE )( (w) >> 16 ); \
} while ( 0 )
#define HB_GET_BE_INT24( p ) ( ( INT32 ) \
( ( ( INT32 ) (( BYTE * )( p ))[2] ) | \
( ( INT32 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( INT32 ) (( BYTE * )( p ))[0] << 16 ) | \
( ( INT32 ) ((( BYTE * )( p ))[0] & 0x80 ? 0xFF : 0x00 ) << 24 ) ) )
#define HB_GET_BE_UINT24( p ) ( ( UINT32 ) \
( ( ( UINT32 ) (( BYTE * )( p ))[2] ) | \
( ( UINT32 ) (( BYTE * )( p ))[1] << 8 ) | \
( ( UINT32 ) (( BYTE * )( p ))[0] << 16 ) ) )
#define HB_PUT_BE_UINT24( p, w ) do { \
(( BYTE * )( p ))[2] = ( BYTE )( w ); \
(( BYTE * )( p ))[1] = ( BYTE )( (w) >> 8 ); \
(( BYTE * )( p ))[0] = ( BYTE )( (w) >> 16 ); \
} while ( 0 )
#if defined( HB_PDP_ENDIAN )
#error PDP-Endian support unimplemented. If you have such machine do it yourself.
#elif defined( HB_BIG_ENDIAN )
/* We use Big-Endian here */
# ifndef HB_STRICT_ALIGNMENT
#define HB_GET_BE_UINT16( p ) ( *( UINT16 * )( p ) )
#define HB_PUT_BE_UINT16( p, w ) ( *( UINT16 * )( p ) = ( UINT16 ) ( w ) )
#define HB_GET_BE_UINT32( p ) ( *( UINT32 * )( p ) )
#define HB_PUT_BE_UINT32( p, l ) ( *( UINT32 * )( p ) = ( UINT32 ) ( l ) )
#define HB_GET_BE_UINT64( p ) ( *( UINT64 * )( p ) )
#define HB_PUT_BE_UINT64( p, l ) ( *( UINT64 * )( p ) = ( UINT64 ) ( l ) )
# endif
#define HB_USHORT_FROM_LE( w ) HB_MKUSHORT( HB_HIBYTE( w ), HB_LOBYTE( w ) )
#define HB_ULONG_FROM_LE( l ) HB_MKULONG( HB_UHBYTE( l ), HB_ULBYTE( l ), HB_HIBYTE( l ), HB_LOBYTE( l ) )
#define HB_USHORT_TO_LE( w ) HB_USHORT_FROM_LE( w )
#define HB_ULONG_TO_LE( l ) HB_ULONG_FROM_LE( l )
# ifndef HB_FORCE_IEEE754_DOUBLE
#define HB_ORD2DBL( o, d ) do { \
if ( ( ( BYTE * ) ( o ) )[ 0 ] & 0x80 ) { \
( ( BYTE * ) ( d ) )[ 0 ] = ( ( BYTE * ) ( o ) )[ 0 ]; \
( ( BYTE * ) ( d ) )[ 1 ] = ( ( BYTE * ) ( o ) )[ 1 ]; \
( ( BYTE * ) ( d ) )[ 2 ] = ( ( BYTE * ) ( o ) )[ 2 ]; \
( ( BYTE * ) ( d ) )[ 3 ] = ( ( BYTE * ) ( o ) )[ 3 ]; \
( ( BYTE * ) ( d ) )[ 4 ] = ( ( BYTE * ) ( o ) )[ 4 ]; \
( ( BYTE * ) ( d ) )[ 5 ] = ( ( BYTE * ) ( o ) )[ 5 ]; \
( ( BYTE * ) ( d ) )[ 6 ] = ( ( BYTE * ) ( o ) )[ 6 ]; \
( ( BYTE * ) ( d ) )[ 7 ] = ( ( BYTE * ) ( o ) )[ 7 ] ^ ( BYTE ) 0x80; \
} else { \
( ( BYTE * ) ( d ) )[ 0 ] = ( ( BYTE * ) ( o ) )[ 0 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 1 ] = ( ( BYTE * ) ( o ) )[ 1 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 2 ] = ( ( BYTE * ) ( o ) )[ 2 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 3 ] = ( ( BYTE * ) ( o ) )[ 3 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 4 ] = ( ( BYTE * ) ( o ) )[ 4 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 5 ] = ( ( BYTE * ) ( o ) )[ 5 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 6 ] = ( ( BYTE * ) ( o ) )[ 6 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 7 ] = ( ( BYTE * ) ( o ) )[ 7 ] ^ ( BYTE ) 0xFF; \
} } while ( 0 )
#define HB_DBL2ORD( d, o ) do { \
if ( *( double * )( d ) >= 0.0 ) { \
if( *( double * )( d ) == -0.0 ) *( double * )( d ) = 0.0; \
( ( BYTE * ) ( o ) )[ 0 ] = ( ( BYTE * ) ( d ) )[ 0 ] ^ ( BYTE ) 0x80; \
( ( BYTE * ) ( o ) )[ 1 ] = ( ( BYTE * ) ( d ) )[ 1 ]; \
( ( BYTE * ) ( o ) )[ 2 ] = ( ( BYTE * ) ( d ) )[ 2 ]; \
( ( BYTE * ) ( o ) )[ 3 ] = ( ( BYTE * ) ( d ) )[ 3 ]; \
( ( BYTE * ) ( o ) )[ 4 ] = ( ( BYTE * ) ( d ) )[ 4 ]; \
( ( BYTE * ) ( o ) )[ 5 ] = ( ( BYTE * ) ( d ) )[ 5 ]; \
( ( BYTE * ) ( o ) )[ 6 ] = ( ( BYTE * ) ( d ) )[ 6 ]; \
( ( BYTE * ) ( o ) )[ 7 ] = ( ( BYTE * ) ( d ) )[ 7 ]; \
} else { \
( ( BYTE * ) ( o ) )[ 0 ] = ( ( BYTE * ) ( d ) )[ 0 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 1 ] = ( ( BYTE * ) ( d ) )[ 1 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 2 ] = ( ( BYTE * ) ( d ) )[ 2 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 3 ] = ( ( BYTE * ) ( d ) )[ 3 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 4 ] = ( ( BYTE * ) ( d ) )[ 4 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 5 ] = ( ( BYTE * ) ( d ) )[ 5 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 6 ] = ( ( BYTE * ) ( d ) )[ 6 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 7 ] = ( ( BYTE * ) ( d ) )[ 7 ] ^ ( BYTE ) 0xFF; \
} } while ( 0 )
# endif
#else /* HB_LITTLE_ENDIAN */
/* We use Little-Endian here */
# ifndef HB_STRICT_ALIGNMENT
#define HB_GET_LE_UINT16( p ) ( *( UINT16 * )( p ) )
#define HB_PUT_LE_UINT16( p, w ) ( *( UINT16 * )( p ) = ( UINT16 ) ( w ) )
#define HB_GET_LE_UINT32( p ) ( *( UINT32 * )( p ) )
#define HB_PUT_LE_UINT32( p, l ) ( *( UINT32 * )( p ) = ( UINT32 ) ( l ) )
#define HB_GET_LE_UINT64( p ) ( *( UINT64 * )( p ) )
#define HB_PUT_LE_UINT64( p, l ) ( *( UINT64 * )( p ) = ( UINT64 ) ( l ) )
# endif
#define HB_USHORT_FROM_LE( w ) ( ( USHORT )( w ) )
#define HB_ULONG_FROM_LE( l ) ( ( ULONG )( l ) )
#define HB_USHORT_TO_LE( w ) ( ( USHORT )( w ) )
#define HB_ULONG_TO_LE( l ) ( ( ULONG )( l ) )
# ifndef HB_FORCE_IEEE754_DOUBLE
#define HB_ORD2DBL( o, d ) do { \
if ( ( ( BYTE * ) ( o ) )[ 0 ] & 0x80 ) { \
( ( BYTE * ) ( d ) )[ 0 ] = ( ( BYTE * ) ( o ) )[ 7 ]; \
( ( BYTE * ) ( d ) )[ 1 ] = ( ( BYTE * ) ( o ) )[ 6 ]; \
( ( BYTE * ) ( d ) )[ 2 ] = ( ( BYTE * ) ( o ) )[ 5 ]; \
( ( BYTE * ) ( d ) )[ 3 ] = ( ( BYTE * ) ( o ) )[ 4 ]; \
( ( BYTE * ) ( d ) )[ 4 ] = ( ( BYTE * ) ( o ) )[ 3 ]; \
( ( BYTE * ) ( d ) )[ 5 ] = ( ( BYTE * ) ( o ) )[ 2 ]; \
( ( BYTE * ) ( d ) )[ 6 ] = ( ( BYTE * ) ( o ) )[ 1 ]; \
( ( BYTE * ) ( d ) )[ 7 ] = ( ( BYTE * ) ( o ) )[ 0 ] ^ ( BYTE ) 0x80; \
} else { \
( ( BYTE * ) ( d ) )[ 0 ] = ( ( BYTE * ) ( o ) )[ 7 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 1 ] = ( ( BYTE * ) ( o ) )[ 6 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 2 ] = ( ( BYTE * ) ( o ) )[ 5 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 3 ] = ( ( BYTE * ) ( o ) )[ 4 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 4 ] = ( ( BYTE * ) ( o ) )[ 3 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 5 ] = ( ( BYTE * ) ( o ) )[ 2 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 6 ] = ( ( BYTE * ) ( o ) )[ 1 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( d ) )[ 7 ] = ( ( BYTE * ) ( o ) )[ 0 ] ^ ( BYTE ) 0xFF; \
} } while ( 0 )
#define HB_DBL2ORD( d, o ) do { \
if ( *( double * )( d ) >= 0.0 ) { \
if( *( double * )( d ) == -0.0 ) *( double * )( d ) = 0.0; \
( ( BYTE * ) ( o ) )[ 0 ] = ( ( BYTE * ) ( d ) )[ 7 ] ^ ( BYTE ) 0x80; \
( ( BYTE * ) ( o ) )[ 1 ] = ( ( BYTE * ) ( d ) )[ 6 ]; \
( ( BYTE * ) ( o ) )[ 2 ] = ( ( BYTE * ) ( d ) )[ 5 ]; \
( ( BYTE * ) ( o ) )[ 3 ] = ( ( BYTE * ) ( d ) )[ 4 ]; \
( ( BYTE * ) ( o ) )[ 4 ] = ( ( BYTE * ) ( d ) )[ 3 ]; \
( ( BYTE * ) ( o ) )[ 5 ] = ( ( BYTE * ) ( d ) )[ 2 ]; \
( ( BYTE * ) ( o ) )[ 6 ] = ( ( BYTE * ) ( d ) )[ 1 ]; \
( ( BYTE * ) ( o ) )[ 7 ] = ( ( BYTE * ) ( d ) )[ 0 ]; \
} else { \
( ( BYTE * ) ( o ) )[ 0 ] = ( ( BYTE * ) ( d ) )[ 7 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 1 ] = ( ( BYTE * ) ( d ) )[ 6 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 2 ] = ( ( BYTE * ) ( d ) )[ 5 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 3 ] = ( ( BYTE * ) ( d ) )[ 4 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 4 ] = ( ( BYTE * ) ( d ) )[ 3 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 5 ] = ( ( BYTE * ) ( d ) )[ 2 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 6 ] = ( ( BYTE * ) ( d ) )[ 1 ] ^ ( BYTE ) 0xFF; \
( ( BYTE * ) ( o ) )[ 7 ] = ( ( BYTE * ) ( d ) )[ 0 ] ^ ( BYTE ) 0xFF; \
} } while ( 0 )
# endif
#endif
#define HB_GET_LE_INT16( p ) (( INT16 ) HB_GET_LE_UINT16( p ))
#define HB_GET_LE_INT32( p ) (( INT32 ) HB_GET_LE_UINT32( p ))
#define HB_GET_LE_INT64( p ) (( INT64 ) HB_GET_LE_UINT64( p ))
#define HB_PCODE_MKSHORT( p ) (( SHORT ) HB_GET_LE_INT16( p ))
#define HB_PCODE_MKUSHORT( p ) (( USHORT ) HB_GET_LE_UINT16( p ))
#define HB_PCODE_MKLONG( p ) (( LONG ) HB_GET_LE_INT32( p ))
#define HB_PCODE_MKULONG( p ) (( ULONG ) HB_GET_LE_UINT32( p ))
#define HB_PCODE_MKLONGLONG( p ) (( LONGLONG ) HB_GET_LE_INT64( p ))
#define HB_PCODE_MKULONGLONG( p ) (( ULONGLONG ) HB_GET_LE_UINT64( p ))
#define HB_PCODE_MKDOUBLE( p ) (( double ) HB_GET_LE_DOUBLE( p ))
#define HB_PCODE_MKINT24( p ) (( LONG ) HB_GET_LE_INT24( p ))
#define HB_PCODE_MKUINT24( p ) (( ULONG ) HB_GET_LE_UINT24( p ))
/*
* Below are hacked version of INT64 macros which operates on double
* when INT64 is not supported - they are necessary for PCODE and
* database access
*/
#if defined( HB_LONG_LONG_OFF ) && !defined( HB_ARCH_64BIT )
#undef HB_GET_LE_INT64
#undef HB_GET_LE_UINT64
#undef HB_PUT_LE_UINT64
#undef HB_PCODE_MKLONGLONG
#undef HB_PCODE_MKULONGLONG
#undef HB_DBL_LIM_INT64
#define UINT64_MAXDBL ( (( double ) UINT32_MAX + 1.0) * \
(( double ) UINT32_MAX + 1.0) - 1.0 )
#define HB_GET_LE_INT64( p ) hb_get_le_int64( ( BYTE * ) ( p ) )
#define HB_GET_LE_UINT64( p ) hb_get_le_uint64( ( BYTE * ) ( p ) )
#define HB_PUT_LE_UINT64( p, d ) hb_put_le_uint64( ( BYTE * ) ( p ), \
( double ) ( d ) )
#define HB_PCODE_MKLONGLONG( p ) (( double ) HB_GET_LE_INT64( p ))
#define HB_PCODE_MKULONGLONG( p ) (( double ) HB_GET_LE_UINT64( p ))
#define HB_DBL_LIM_INT64(d) ( (HB_MAXDBL) -UINT64_MAXDBL / 2 - 1 <= \
(HB_MAXDBL) (d) && (HB_MAXDBL) (d) <= \
(HB_MAXDBL) UINT64_MAXDBL / 2 )
#endif
#define HB_MACRO2STRING( macro ) HB_MACRO2STRING_( macro )
#define HB_MACRO2STRING_( macro ) #macro
#if defined( __POCC__ ) || defined( __XCC__ )
#define HB_SYMBOL_UNUSED( symbol ) do if( symbol ) {;} while( 0 )
#else
#define HB_SYMBOL_UNUSED( symbol ) ( void ) symbol
#endif
/* ***********************************************************************
* The name of starting procedure
* Note: You have to define it in case when Harbour cannot find the proper
* starting procedure (due to incorrect order of static data initialization)
*
* The list of compilers that require it:
* - Watcom C/C++ 10.0
* - GCC on Linux
*
* By default we are using automatic lookup (symbol not defined)
*/
#if defined(__WATCOMC__) || defined(__DMC__) || ( defined(__GNUC__) && !defined(__DJGPP__) && !defined(HB_OS_OS2_GCC) )
#define HB_START_PROCEDURE "MAIN"
#endif
#if defined(HB_FUNC_CALLCONV)
#define HARBOUR void HB_FUNC_CALLCONV
#else
#define HARBOUR void
#endif
typedef HARBOUR ( * PHB_FUNC )( void );
typedef PHB_FUNC HB_FUNC_PTR;
#if defined( HB_DYNLIB )
#if defined( __RSXNT__ )
/* RSXNT does not support any type of export keyword.
Exported (i.e., public) names can be obtained via
the emxexp utility and the output can be used for
input to a module definition file. See emxdev.doc
in the RSXNT doc/ directory for more information. */
#define HB_EXPORT
#elif defined( __GNUC__ ) && defined( HB_OS_WIN_32 )
#define HB_EXPORT __attribute__ (( dllexport ))
#elif defined( __GNUC__ ) && defined( HB_OS_LINUX )
#define HB_EXPORT __attribute__ ((visibility ("default")))
#elif defined( __BORLANDC__ )
#define HB_EXPORT __declspec( dllexport )
#elif defined( __WATCOMC__ )
#define HB_EXPORT __declspec( dllexport )
#elif defined( ASANLM ) || defined( ASANT )
#define HB_EXPORT
#elif defined( HB_OS_WIN_32 )
#define HB_EXPORT _declspec( dllexport )
#else
#define HB_EXPORT
#endif
#else
#define HB_EXPORT
#endif
#if defined( __RSXNT__ )
/* RSXNT does not support any type of export keyword.
Exported (i.e., public) names can be obtained via
the emxexp utility and the output can be used for
input to a module definition file. See emxdev.doc
in the RSXNT doc/ directory for more information. */
#define HB_IMPORT
#elif defined( __GNUC__ ) && defined( HB_OS_WIN_32 )
#define HB_IMPORT __attribute__ (( dllimport ))
#elif defined( __BORLANDC__ )
#define HB_IMPORT __declspec( dllimport )
#elif defined( __WATCOMC__ )
#define HB_IMPORT __declspec( dllimport )
#elif defined( ASANLM ) || defined( ASANT )
#define HB_IMPORT
#elif defined( HB_OS_WIN_32 )
#define HB_IMPORT _declspec( dllimport )
#else
#define HB_IMPORT
#endif
/* Function declaration macros */
/* NOTE: The prefix is "HB_FUN_" currently, this is needed to
avoid collision with any other declared symbol.
Note that "HB_" is not enough, since the Harbour internals
are also prefixed with HB_. [vszakats] */
#define HB_FUNCNAME( funcname ) HB_FUN_##funcname
#define HB_INIT_FUNCNAME( funcname ) HB_FUN_init_##funcname
#define HB_EXIT_FUNCNAME( funcname ) HB_FUN_exit_##funcname
#define HB_INITSTATICS_FUNCNAME() hb_INITSTATICS
#if defined( __cplusplus ) && !defined( HB_FUNC_USE_DECORATION )
#define HB_EXTERN_C_ extern "C"
#define HB_EXTERN_
#else
#define HB_EXTERN_C_
#define HB_EXTERN_ extern
#endif
#define HB_FUNC_EXEC( funcname ) HB_FUN_##funcname();
#define HB_FUNC( funcname ) HB_EXTERN_C_ HB_EXPORT HARBOUR HB_FUN_##funcname ( void )
#define HB_FUNC_EXTERN( funcname ) HB_EXTERN_C_ HB_EXTERN_ HARBOUR HB_EXPORT HB_FUN_##funcname ( void )
#define HB_FUNC_STATIC( funcname ) static HARBOUR HB_FUN_##funcname ( void )
#define HB_FUNC_INIT( funcname ) static HARBOUR HB_FUN_init_##funcname ( void )
#define HB_FUNC_EXIT( funcname ) static HARBOUR HB_FUN_exit_##funcname ( void )
#define HB_FUNC_INITSTATICS( ) static HARBOUR hb_INITSTATICS( void )
#define HB_FUNC_INITLINES( ) static HARBOUR hb_INITLINES( void )
typedef SHORT HB_SYMBOLSCOPE; /* stores symbol's scope */
typedef BYTE HB_CHAR;
typedef BYTE HB_ATTR;
/* Some common character constants */
#define HB_CHAR_NUL '\0' /* 0 - NUL */
#define HB_CHAR_EOS HB_CHAR_NUL
#define HB_CHAR_BEL '\a' /* 7 - Bell */
#define HB_CHAR_BS '\b' /* 8 - Backspace */
#define HB_CHAR_HT '\t' /* 9 - Tab horizontal */
#define HB_CHAR_LF '\n' /* 10 - Linefeed */
#define HB_CHAR_VT '\v' /* 11 - Tab vertical */
#define HB_CHAR_FF '\f' /* 12 - Formfeed */
#define HB_CHAR_CR '\r' /* 13 - Carriage return */
#define HB_CHAR_EOF '\x1A' /* 26 - End of file marker */
/* Harbour specific character constants */
#define HB_CHAR_HARD1 ( ( char ) HB_CHAR_CR )
#define HB_CHAR_HARD2 ( ( char ) HB_CHAR_LF )
#define HB_CHAR_SOFT1 ( ( char ) 141 )
#define HB_CHAR_SOFT2 ( ( char ) HB_CHAR_LF )
#endif /* HB_DEFS_H_ */
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