callback.o complete.o ctime.o date.o delete.o env.o expr.o \
         fault.o fkey.o fts5.o fts5func.o \
         func.o global.o hash.o \
         icu.o insert.o kv.o kvlsm.o kvmem.o legacy.o \
         lsm_ckpt.o lsm_file.o lsm_log.o lsm_main.o lsm_mem.o lsm_mutex.o \
         lsm_shared.o lsm_str.o lsm_sorted.o lsm_tree.o \
         lsm_unix.o lsm_varint.o \
         main.o malloc.o math.o mem.o mem0.o mem1.o mem2.o mem3.o mem5.o \
         mutex.o mutex_noop.o mutex_unix.o mutex_w32.o \
         opcodes.o os.o \
         pragma.o prepare.o printf.o \
         random.o resolve.o rowset.o rtree.o select.o status.o \
         tokenize.o trigger.o \
         update.o util.o varint.o \
         vdbeapi.o vdbeaux.o vdbecodec.o vdbecursor.o \
................................................................................
  $(TOP)/src/lsm_unix.c \
  $(TOP)/src/lsm_varint.c \
  $(TOP)/src/main.c \
  $(TOP)/src/malloc.c \
  $(TOP)/src/math.c \
  $(TOP)/src/mem.c \
  $(TOP)/src/mem0.c \
  $(TOP)/src/mem1.c \
  $(TOP)/src/mem2.c \
  $(TOP)/src/mem3.c \
  $(TOP)/src/mem5.c \
  $(TOP)/src/mutex.c \
  $(TOP)/src/mutex.h \
  $(TOP)/src/mutex_noop.c \
  $(TOP)/src/mutex_unix.c \

         callback.o complete.o ctime.o date.o delete.o env.o expr.o \
         fault.o fkey.o fts5.o fts5func.o \
         func.o global.o hash.o \
         icu.o insert.o kv.o kvlsm.o kvmem.o legacy.o \
         lsm_ckpt.o lsm_file.o lsm_log.o lsm_main.o lsm_mem.o lsm_mutex.o \
         lsm_shared.o lsm_str.o lsm_sorted.o lsm_tree.o \
         lsm_unix.o lsm_varint.o \
         main.o malloc.o math.o mem.o mem0.o mem2.o mem3.o mem5.o \
         mutex.o mutex_noop.o mutex_unix.o mutex_w32.o \
         opcodes.o os.o \
         pragma.o prepare.o printf.o \
         random.o resolve.o rowset.o rtree.o select.o status.o \
         tokenize.o trigger.o \
         update.o util.o varint.o \
         vdbeapi.o vdbeaux.o vdbecodec.o vdbecursor.o \
................................................................................
  $(TOP)/src/lsm_unix.c \
  $(TOP)/src/lsm_varint.c \
  $(TOP)/src/main.c \
  $(TOP)/src/malloc.c \
  $(TOP)/src/math.c \
  $(TOP)/src/mem.c \
  $(TOP)/src/mem0.c \

  $(TOP)/src/mem2.c \
  $(TOP)/src/mem3.c \
  $(TOP)/src/mem5.c \
  $(TOP)/src/mutex.c \
  $(TOP)/src/mutex.h \
  $(TOP)/src/mutex_noop.c \
  $(TOP)/src/mutex_unix.c \

   SQLITE4_DEFAULT_MEMSTATUS, /* bMemstat */
   1,                         /* bCoreMutex */
   SQLITE4_THREADSAFE==1,     /* bFullMutex */
   0x7ffffffe,                /* mxStrlen */
   0,                         /* szLookaside */
   0,                         /* nLookaside */
   &sqlite4MMSystem,          /* pMM */
#if 0
   {0,0,0,0,0,0,0,0,0},       /* m */
#endif
   {0,0,0,0,0,0,0,0,0,0},     /* mutex */
   (void*)0,                  /* pHeap */
   0,                         /* nHeap */
   0, 0,                      /* mnHeap, mxHeap */
   0,                         /* mxParserStack */
   &sqlite4BuiltinFactory,    /* pFactory */
   sqlite4OsRandomness,       /* xRandomness */

   SQLITE4_DEFAULT_MEMSTATUS, /* bMemstat */
   1,                         /* bCoreMutex */
   SQLITE4_THREADSAFE==1,     /* bFullMutex */
   0x7ffffffe,                /* mxStrlen */
   0,                         /* szLookaside */
   0,                         /* nLookaside */
   &sqlite4MMSystem,          /* pMM */



   {0,0,0,0,0,0,0,0,0,0},     /* mutex */
   (void*)0,                  /* pHeap */
   0,                         /* nHeap */
   0, 0,                      /* mnHeap, mxHeap */
   0,                         /* mxParserStack */
   &sqlite4BuiltinFactory,    /* pFactory */
   sqlite4OsRandomness,       /* xRandomness */

/*
** CAPIREF: Run-time environment of a database connection
**
** Return the sqlite4_env object to which the database connection
** belongs.
*/
sqlite4_env *sqlite4_db_env(sqlite4*);

/*
** CAPIREF: Memory Allocation Routines
**
** An instance of this object defines the interface between SQLite
** and low-level memory allocation routines.
**
** This object is used in only one place in the SQLite interface.
** A pointer to an instance of this object is the argument to
** [sqlite4_env_config()] when the configuration option is
** [SQLITE4_ENVCONFIG_MALLOC] or [SQLITE4_ENVCONFIG_GETMALLOC].  
** By creating an instance of this object
** and passing it to [sqlite4_env_config]([SQLITE4_ENVCONFIG_MALLOC])
** during configuration, an application can specify an alternative
** memory allocation subsystem for SQLite to use for all of its
** dynamic memory needs.
**
** Note that SQLite comes with several [built-in memory allocators]
** that are perfectly adequate for the overwhelming majority of applications
** and that this object is only useful to a tiny minority of applications
** with specialized memory allocation requirements.  This object is
** also used during testing of SQLite in order to specify an alternative
** memory allocator that simulates memory out-of-memory conditions in
** order to verify that SQLite recovers gracefully from such
** conditions.
**
** The xMalloc, xRealloc, and xFree methods must work like the
** malloc(), realloc() and free() functions from the standard C library.
** ^SQLite guarantees that the second argument to
** xRealloc is always a value returned by a prior call to xRoundup.
**
** xSize should return the allocated size of a memory allocation
** previously obtained from xMalloc or xRealloc.  The allocated size
** is always at least as big as the requested size but may be larger.
**
** The xRoundup method returns what would be the allocated size of
** a memory allocation given a particular requested size.  Most memory
** allocators round up memory allocations at least to the next multiple
** of 8.  Some allocators round up to a larger multiple or to a power of 2.
** Every memory allocation request coming in through [sqlite4_malloc()]
** or [sqlite4_realloc()] first calls xRoundup.  If xRoundup returns 0, 
** that causes the corresponding memory allocation to fail.
**
** The xInit method initializes the memory allocator.  (For example,
** it might allocate any require mutexes or initialize internal data
** structures.  The xShutdown method is invoked (indirectly) by
** [sqlite4_shutdown()] and should deallocate any resources acquired
** by xInit.  The pMemEnv pointer is used as the only parameter to
** xInit and xShutdown.
**
** SQLite holds the [SQLITE4_MUTEX_STATIC_MASTER] mutex when it invokes
** the xInit method, so the xInit method need not be threadsafe.  The
** xShutdown method is only called from [sqlite4_shutdown()] so it does
** not need to be threadsafe either.  For all other methods, SQLite
** holds the [SQLITE4_MUTEX_STATIC_MEM] mutex as long as the
** [SQLITE4_CONFIG_MEMSTATUS] configuration option is turned on (which
** it is by default) and so the methods are automatically serialized.
** However, if [SQLITE4_CONFIG_MEMSTATUS] is disabled, then the other
** methods must be threadsafe or else make their own arrangements for
** serialization.
**
** SQLite will never invoke xInit() more than once without an intervening
** call to xShutdown().
*/
typedef struct sqlite4_mem_methods sqlite4_mem_methods;
struct sqlite4_mem_methods {
  void *(*xMalloc)(void*,sqlite4_size_t); /* Memory allocation function */
  void (*xFree)(void*,void*);             /* Free a prior allocation */
  void *(*xRealloc)(void*,void*,int);     /* Resize an allocation */
  sqlite4_size_t (*xSize)(void*,void*);   /* Return the size of an allocation */
  int (*xInit)(void*);                    /* Initialize the memory allocator */
  void (*xShutdown)(void*);               /* Deinitialize the allocator */
  void (*xBeginBenign)(void*);            /* Enter a benign malloc region */
  void (*xEndBenign)(void*);              /* Leave a benign malloc region */
  void *pMemEnv;                         /* 1st argument to all routines */
};


/*
** CAPIREF: Database Connection Configuration Options
**
** These constants are the available integer configuration options that
** can be passed as the second argument to the [sqlite4_db_config()] interface.
**

/*
** CAPIREF: Run-time environment of a database connection
**
** Return the sqlite4_env object to which the database connection
** belongs.
*/
sqlite4_env *sqlite4_db_env(sqlite4*);














































































/*
** CAPIREF: Database Connection Configuration Options
**
** These constants are the available integer configuration options that
** can be passed as the second argument to the [sqlite4_db_config()] interface.
**

  int bMemstat;                     /* True to enable memory status */
  int bCoreMutex;                   /* True to enable core mutexing */
  int bFullMutex;                   /* True to enable full mutexing */
  int mxStrlen;                     /* Maximum string length */
  int szLookaside;                  /* Default lookaside buffer size */
  int nLookaside;                   /* Default lookaside buffer count */
  sqlite4_mm *pMM;                  /* Memory allocator for this environment */
#if 0
  sqlite4_mem_methods m;            /* Low-level memory allocation interface */
#endif
  sqlite4_mutex_methods mutex;      /* Low-level mutex interface */
  void *pHeap;                      /* Heap storage space */
  int nHeap;                        /* Size of pHeap[] */
  int mnReq, mxReq;                 /* Min and max heap requests sizes */
  int mxParserStack;                /* maximum depth of the parser stack */
  KVFactory *pFactory;              /* List of factories */
  int (*xRandomness)(sqlite4_env*, int, unsigned char*);

  int bMemstat;                     /* True to enable memory status */
  int bCoreMutex;                   /* True to enable core mutexing */
  int bFullMutex;                   /* True to enable full mutexing */
  int mxStrlen;                     /* Maximum string length */
  int szLookaside;                  /* Default lookaside buffer size */
  int nLookaside;                   /* Default lookaside buffer count */
  sqlite4_mm *pMM;                  /* Memory allocator for this environment */



  sqlite4_mutex_methods mutex;      /* Low-level mutex interface */
  void *pHeap;                      /* Heap storage space */
  int nHeap;                        /* Size of pHeap[] */
  int mnReq, mxReq;                 /* Min and max heap requests sizes */
  int mxParserStack;                /* maximum depth of the parser stack */
  KVFactory *pFactory;              /* List of factories */
  int (*xRandomness)(sqlite4_env*, int, unsigned char*);

  hasFK = sqlite4FkRequired(pParse, pTab, aXRef);

  /* Allocate memory for the array aRegIdx[].  There is one entry in the
  ** array for each index associated with table being updated.  Fill in
  ** the value with a register number for indices that are to be used
  ** and with zero for unused indices.  */
  for(nIdx=0, pIdx=pTab->pIndex; pIdx; pIdx=pIdx->pNext, nIdx++){}


  aRegIdx = sqlite4DbMallocZero(db, sizeof(Index*) * nIdx );
  if( aRegIdx==0 ) goto update_cleanup;


  /* Allocate registers for and populate the aRegIdx array. */
  for(j=0, pIdx=pTab->pIndex; pIdx; pIdx=pIdx->pNext, j++){
    if( pIdx==pPk || hasFK || bChngPk ){
      aRegIdx[j] = ++pParse->nMem;
    }else{
      for(i=0; i<pIdx->nColumn; i++){

  hasFK = sqlite4FkRequired(pParse, pTab, aXRef);

  /* Allocate memory for the array aRegIdx[].  There is one entry in the
  ** array for each index associated with table being updated.  Fill in
  ** the value with a register number for indices that are to be used
  ** and with zero for unused indices.  */
  for(nIdx=0, pIdx=pTab->pIndex; pIdx; pIdx=pIdx->pNext, nIdx++){}
  assert( nIdx>0 || isView );
  if( nIdx ){
    aRegIdx = sqlite4DbMallocZero(db, sizeof(Index*) * nIdx );
    if( aRegIdx==0 ) goto update_cleanup;
  }

  /* Allocate registers for and populate the aRegIdx array. */
  for(j=0, pIdx=pTab->pIndex; pIdx; pIdx=pIdx->pNext, j++){
    if( pIdx==pPk || hasFK || bChngPk ){
      aRegIdx[j] = ++pParse->nMem;
    }else{
      for(i=0; i<pIdx->nColumn; i++){

      INSERT INTO v1chng VALUES(OLD.x,NEW.x);
    END;
    SELECT * FROM v1;
  }
} {115 117}
do_test auth-4.3 {
  set authargs {}

  execsql {
    UPDATE v1 SET x=1 WHERE x=117
  }
  set authargs
} [list \
  SQLITE4_UPDATE v1     x  main {} \
  SQLITE4_SELECT {}     {} {}   v1 \

      INSERT INTO v1chng VALUES(OLD.x,NEW.x);
    END;
    SELECT * FROM v1;
  }
} {115 117}
do_test auth-4.3 {
  set authargs {}
  breakpoint
  execsql {
    UPDATE v1 SET x=1 WHERE x=117
  }
  set authargs
} [list \
  SQLITE4_UPDATE v1     x  main {} \
  SQLITE4_SELECT {}     {} {}   v1 \

  1 utf16
} {
if {$DO_MALLOC_TEST || $enc=="utf16"} continue

  db close
  forcedelete test.db
  sqlite4 db test.db
  sqlite4_db_config_lookaside db 0 0 0
  db eval "PRAGMA encoding = \"$enc\""

  # Set variable $T to the test name prefix for this iteration of the loop.
  #
  set T "fts5snippet-$enc"
  
  ##########################################################################

  1 utf16
} {
if {$DO_MALLOC_TEST || $enc=="utf16"} continue

  db close
  forcedelete test.db
  sqlite4 db test.db

  db eval "PRAGMA encoding = \"$enc\""

  # Set variable $T to the test name prefix for this iteration of the loop.
  #
  set T "fts5snippet-$enc"
  
  ##########################################################################

#   faultsim_delete_and_reopen
#
proc faultsim_save {args} { uplevel db_save $args }
proc faultsim_save_and_close {args} { uplevel db_save_and_close $args }
proc faultsim_restore {args} { uplevel db_restore $args }
proc faultsim_restore_and_reopen {args} { 
  uplevel db_restore_and_reopen $args 
  sqlite4_db_config_lookaside db 0 0 0
}
proc faultsim_delete_and_reopen {args} {
  uplevel db_delete_and_reopen $args 
  sqlite4_db_config_lookaside db 0 0 0
}

proc faultsim_integrity_check {{db db}} {
  set ic [$db eval { PRAGMA integrity_check }]
  if {$ic != "ok"} { error "Integrity check: $ic" }
}

................................................................................
        forcedelete test2.db
        forcedelete test2.db-journal
        forcedelete test2.db-wal
        if {[info exists ::mallocopts(-testdb)]} {
          copy_file $::mallocopts(-testdb) test.db
        }
        catch { sqlite4 db test.db }
        sqlite4_db_config_lookaside db 0 0 0
  
        # Execute any -tclprep and -sqlprep scripts.
        #
        if {[info exists ::mallocopts(-tclprep)]} {
          eval $::mallocopts(-tclprep)
        }
        if {[info exists ::mallocopts(-sqlprep)]} {

#   faultsim_delete_and_reopen
#
proc faultsim_save {args} { uplevel db_save $args }
proc faultsim_save_and_close {args} { uplevel db_save_and_close $args }
proc faultsim_restore {args} { uplevel db_restore $args }
proc faultsim_restore_and_reopen {args} { 
  uplevel db_restore_and_reopen $args 
  #sqlite4_db_config_lookaside db 0 0 0
}
proc faultsim_delete_and_reopen {args} {
  uplevel db_delete_and_reopen $args 
  #sqlite4_db_config_lookaside db 0 0 0
}

proc faultsim_integrity_check {{db db}} {
  set ic [$db eval { PRAGMA integrity_check }]
  if {$ic != "ok"} { error "Integrity check: $ic" }
}

................................................................................
        forcedelete test2.db
        forcedelete test2.db-journal
        forcedelete test2.db-wal
        if {[info exists ::mallocopts(-testdb)]} {
          copy_file $::mallocopts(-testdb) test.db
        }
        catch { sqlite4 db test.db }
        #sqlite4_db_config_lookaside db 0 0 0
  
        # Execute any -tclprep and -sqlprep scripts.
        #
        if {[info exists ::mallocopts(-tclprep)]} {
          eval $::mallocopts(-tclprep)
        }
        if {[info exists ::mallocopts(-sqlprep)]} {

#ifdef SQLITE4_DISABLE_LFS
  Tcl_SetVar2(interp, "sqlite_options", "lfs", "0", TCL_GLOBAL_ONLY);
#else
  Tcl_SetVar2(interp, "sqlite_options", "lfs", "1", TCL_GLOBAL_ONLY);
#endif

#if 1 /* def SQLITE4_MEMDEBUG */
  Tcl_SetVar2(interp, "sqlite_options", "memdebug", "1", TCL_GLOBAL_ONLY);
#else
  Tcl_SetVar2(interp, "sqlite_options", "memdebug", "0", TCL_GLOBAL_ONLY);
#endif

#ifdef SQLITE4_ENABLE_8_3_NAMES
  Tcl_SetVar2(interp, "sqlite_options", "8_3_names", "1", TCL_GLOBAL_ONLY);

#ifdef SQLITE4_DISABLE_LFS
  Tcl_SetVar2(interp, "sqlite_options", "lfs", "0", TCL_GLOBAL_ONLY);
#else
  Tcl_SetVar2(interp, "sqlite_options", "lfs", "1", TCL_GLOBAL_ONLY);
#endif

#if 0 /* def SQLITE4_MEMDEBUG */
  Tcl_SetVar2(interp, "sqlite_options", "memdebug", "1", TCL_GLOBAL_ONLY);
#else
  Tcl_SetVar2(interp, "sqlite_options", "memdebug", "0", TCL_GLOBAL_ONLY);
#endif

#ifdef SQLITE4_ENABLE_8_3_NAMES
  Tcl_SetVar2(interp, "sqlite_options", "8_3_names", "1", TCL_GLOBAL_ONLY);

#include "tcl.h"
#include <stdlib.h>
#include <string.h>
#include <assert.h>

#include "testInt.h"


/*
** This structure is used to encapsulate the global state variables used 
** by malloc() fault simulation.
*/
static struct MemFault {
  int iCountdown;         /* Number of pending successes before a failure */
  int nRepeat;            /* Number of times to repeat the failure */
................................................................................
  if( rc==SQLITE4_OK ){
    memfault.isInstalled = 1;
  }
  return rc;
#endif
}


#ifdef SQLITE4_TEST



/*
** This function is implemented in test1.c. Returns a pointer to a static
** buffer containing the symbolic SQLite error code that corresponds to
** the least-significant 8-bits of the integer passed as an argument.
** For example:
**
................................................................................
#ifdef SQLITE4_ENABLE_MEMSYS3
  const sqlite4_mem_methods *sqlite4MemGetMemsys3(void);
  rc = sqlite4_env_config(0, SQLITE4_ENVCONFIG_MALLOC, sqlite4MemGetMemsys3());
#endif
  Tcl_SetResult(interp, (char *)sqlite4TestErrorName(rc), TCL_VOLATILE);
  return TCL_OK;
}



static sqlite4_mm *pMMDebug = 0;

/*
** tclcmd: test_mm_install ?debug? ?backtrace? ?stats?
*/
static int test_mm_install(
................................................................................
*/
int Sqlitetest_malloc_Init(Tcl_Interp *interp){
  static struct {
     char *zName;
     Tcl_ObjCmdProc *xProc;
     int clientData;
  } aObjCmd[] = {

     { "sqlite4_malloc",                 test_malloc                   ,0 },
     { "sqlite4_realloc",                test_realloc                  ,0 },
     { "sqlite4_free",                   test_free                     ,0 },
     { "memset",                         test_memset                   ,0 },
     { "memget",                         test_memget                   ,0 },
     { "sqlite4_memdebug_backtrace",     test_memdebug_backtrace       ,0 },
     { "sqlite4_memdebug_dump",          test_memdebug_dump            ,0 },
................................................................................
     { "sqlite4_db_status",              test_db_status                ,0 },
     { "install_malloc_faultsim",        test_install_malloc_faultsim  ,0 },
     { "sqlite4_env_config_memstatus",   test_config_memstatus         ,0 },
     { "sqlite4_envconfig_lookaside",    test_envconfig_lookaside      ,0 },
     { "sqlite4_config_error",           test_config_error             ,0 },
     { "sqlite4_db_config_lookaside",    test_db_config_lookaside      ,0 },
     { "sqlite4_install_memsys3",        test_install_memsys3          ,0 },


     { "test_mm_install",                test_mm_install               ,0 },
     { "test_mm_stat",                   test_mm_stat                  ,0 },
     { "test_mm_report",                 test_mm_report                ,0 },
  };
  int i;
  for(i=0; i<sizeof(aObjCmd)/sizeof(aObjCmd[0]); i++){
    ClientData c = (ClientData)SQLITE4_INT_TO_PTR(aObjCmd[i].clientData);
    Tcl_CreateObjCommand(interp, aObjCmd[i].zName, aObjCmd[i].xProc, c, 0);
  }
  return TCL_OK;
}
#endif

#include "tcl.h"
#include <stdlib.h>
#include <string.h>
#include <assert.h>

#include "testInt.h"

#if 0 
/*
** This structure is used to encapsulate the global state variables used 
** by malloc() fault simulation.
*/
static struct MemFault {
  int iCountdown;         /* Number of pending successes before a failure */
  int nRepeat;            /* Number of times to repeat the failure */
................................................................................
  if( rc==SQLITE4_OK ){
    memfault.isInstalled = 1;
  }
  return rc;
#endif
}

#endif
#ifdef SQLITE4_TEST

#if 0

/*
** This function is implemented in test1.c. Returns a pointer to a static
** buffer containing the symbolic SQLite error code that corresponds to
** the least-significant 8-bits of the integer passed as an argument.
** For example:
**
................................................................................
#ifdef SQLITE4_ENABLE_MEMSYS3
  const sqlite4_mem_methods *sqlite4MemGetMemsys3(void);
  rc = sqlite4_env_config(0, SQLITE4_ENVCONFIG_MALLOC, sqlite4MemGetMemsys3());
#endif
  Tcl_SetResult(interp, (char *)sqlite4TestErrorName(rc), TCL_VOLATILE);
  return TCL_OK;
}

#endif

static sqlite4_mm *pMMDebug = 0;

/*
** tclcmd: test_mm_install ?debug? ?backtrace? ?stats?
*/
static int test_mm_install(
................................................................................
*/
int Sqlitetest_malloc_Init(Tcl_Interp *interp){
  static struct {
     char *zName;
     Tcl_ObjCmdProc *xProc;
     int clientData;
  } aObjCmd[] = {
#if 0
     { "sqlite4_malloc",                 test_malloc                   ,0 },
     { "sqlite4_realloc",                test_realloc                  ,0 },
     { "sqlite4_free",                   test_free                     ,0 },
     { "memset",                         test_memset                   ,0 },
     { "memget",                         test_memget                   ,0 },
     { "sqlite4_memdebug_backtrace",     test_memdebug_backtrace       ,0 },
     { "sqlite4_memdebug_dump",          test_memdebug_dump            ,0 },
................................................................................
     { "sqlite4_db_status",              test_db_status                ,0 },
     { "install_malloc_faultsim",        test_install_malloc_faultsim  ,0 },
     { "sqlite4_env_config_memstatus",   test_config_memstatus         ,0 },
     { "sqlite4_envconfig_lookaside",    test_envconfig_lookaside      ,0 },
     { "sqlite4_config_error",           test_config_error             ,0 },
     { "sqlite4_db_config_lookaside",    test_db_config_lookaside      ,0 },
     { "sqlite4_install_memsys3",        test_install_memsys3          ,0 },
#endif

     { "test_mm_install",                test_mm_install               ,0 },
     { "test_mm_stat",                   test_mm_stat                  ,0 },
     { "test_mm_report",                 test_mm_report                ,0 },
  };
  int i;
  for(i=0; i<sizeof(aObjCmd)/sizeof(aObjCmd[0]); i++){
    ClientData c = (ClientData)SQLITE4_INT_TO_PTR(aObjCmd[i].clientData);
    Tcl_CreateObjCommand(interp, aObjCmd[i].zName, aObjCmd[i].xProc, c, 0);
  }
  return TCL_OK;
}
#endif

# 64KB into the database file instead of the one 1GB in. This means
# the code that handles that special case can be tested without creating
# very large database files.
#
set tcl_precision 15
#sqlite4_test_control_pending_byte 0x0010000

test_mm_install stats debug


# If the pager codec is available, create a wrapper for the [sqlite4] 
# command that appends "-key {xyzzy}" to the command line. i.e. this:
#
#     sqlite4 db test.db
#
# becomes
................................................................................
      default {
        lappend leftover $a
      }
    }
  }
  set argv $leftover

  # Install the malloc layer used to inject OOM errors. And the 'automatic'
  # extensions. This only needs to be done once for the process.
  #
  sqlite4_shutdown 





  # install_malloc_faultsim 1 
  if {$cmdlinearg(malloctrace)} { testmem install }
  kvwrap install
  sqlite4_initialize
  #autoinstall_test_functions


  # If the --binarylog option was specified, create the logging VFS. This
  # call installs the new VFS as the default for all SQLite connections.
  #
  if {$cmdlinearg(binarylog)} {
    vfslog new binarylog {} vfslog.bin
  }
................................................................................
}
reset_db

# Abort early if this script has been run before.
#
if {[info exists TC(count)]} return

# Make sure memory statistics are enabled.
#
sqlite4_env_config_memstatus 1

# Initialize the test counters and set up commands to access them.
# Or, if this is a slave interpreter, set up aliases to write the
# counters in the parent interpreter.
#
if {0==[info exists ::SLAVE]} {
  set TC(errors)    0
  set TC(count)     0
................................................................................
#
proc do_test {name cmd expected} {

  global argv cmdlinearg

  fix_testname name

  sqlite4_memdebug_settitle $name

#  if {[llength $argv]==0} { 
#    set go 1
#  } else {
#    set go 0
#    foreach pattern $argv {
#      if {[string match $pattern $name]} {
................................................................................
  set nUnit [test_mm_stat units]
  if {$nOut!=0 || $nUnit!=0} {
    puts "Unfreed memory: $nOut bytes in $nUnit allocations"
  } else {
    puts "All memory allocations freed - no leaks"
  }
  show_memstats


  test_mm_report malloc.txt


#  if {[lindex [sqlite4_env_status SQLITE4_ENVSTATUS_MALLOC_COUNT 0] 1]>0 ||
#              [sqlite4_memory_used]>0} {
#    puts "Unfreed memory: [sqlite4_memory_used] bytes in\
#         [lindex [sqlite4_env_status SQLITE4_ENVSTATUS_MALLOC_COUNT 0] 1] allocations"
#    incr nErr
#    ifcapable memdebug||mem5||(mem3&&debug) {
................................................................................
#    }
#  }
  #puts "Maximum memory usage: [sqlite4_memory_highwater 1] bytes"
  #puts "Current memory usage: [sqlite4_memory_highwater] bytes"
  #if {[info commands sqlite4_memdebug_malloc_count] ne ""} {
  #  puts "Number of malloc()  : [sqlite4_memdebug_malloc_count] calls"
  #}
  if {$::cmdlinearg(malloctrace)} {
    puts "Writing malloc() report to malloc.txt..."
    testmem report malloc.txt
  }
  foreach f [glob -nocomplain test.db-*-journal] {
    forcedelete $f
  }
  foreach f [glob -nocomplain test.db-mj*] {
    forcedelete $f
  }
  exit [expr {$nErr>0}]

# 64KB into the database file instead of the one 1GB in. This means
# the code that handles that special case can be tested without creating
# very large database files.
#
set tcl_precision 15
#sqlite4_test_control_pending_byte 0x0010000




# If the pager codec is available, create a wrapper for the [sqlite4] 
# command that appends "-key {xyzzy}" to the command line. i.e. this:
#
#     sqlite4 db test.db
#
# becomes
................................................................................
      default {
        lappend leftover $a
      }
    }
  }
  set argv $leftover

  # Install the various malloc wrappers. This only needs to be done 
  # once for the process.

  sqlite4_shutdown 
  set mm stats
  if {$cmdlinearg(malloctrace)} { lappend mm debug }
  test_mm_install {*}$mm


  # install_malloc_faultsim 1 

  kvwrap install

  #autoinstall_test_functions
  sqlite4_initialize

  # If the --binarylog option was specified, create the logging VFS. This
  # call installs the new VFS as the default for all SQLite connections.
  #
  if {$cmdlinearg(binarylog)} {
    vfslog new binarylog {} vfslog.bin
  }
................................................................................
}
reset_db

# Abort early if this script has been run before.
#
if {[info exists TC(count)]} return





# Initialize the test counters and set up commands to access them.
# Or, if this is a slave interpreter, set up aliases to write the
# counters in the parent interpreter.
#
if {0==[info exists ::SLAVE]} {
  set TC(errors)    0
  set TC(count)     0
................................................................................
#
proc do_test {name cmd expected} {

  global argv cmdlinearg

  fix_testname name

  #sqlite4_memdebug_settitle $name

#  if {[llength $argv]==0} { 
#    set go 1
#  } else {
#    set go 0
#    foreach pattern $argv {
#      if {[string match $pattern $name]} {
................................................................................
  set nUnit [test_mm_stat units]
  if {$nOut!=0 || $nUnit!=0} {
    puts "Unfreed memory: $nOut bytes in $nUnit allocations"
  } else {
    puts "All memory allocations freed - no leaks"
  }
  show_memstats
  if {$::cmdlinearg(malloctrace)} { 
    puts "Writing malloc() report to malloc.txt..."
    test_mm_report malloc.txt
  }

#  if {[lindex [sqlite4_env_status SQLITE4_ENVSTATUS_MALLOC_COUNT 0] 1]>0 ||
#              [sqlite4_memory_used]>0} {
#    puts "Unfreed memory: [sqlite4_memory_used] bytes in\
#         [lindex [sqlite4_env_status SQLITE4_ENVSTATUS_MALLOC_COUNT 0] 1] allocations"
#    incr nErr
#    ifcapable memdebug||mem5||(mem3&&debug) {
................................................................................
#    }
#  }
  #puts "Maximum memory usage: [sqlite4_memory_highwater 1] bytes"
  #puts "Current memory usage: [sqlite4_memory_highwater] bytes"
  #if {[info commands sqlite4_memdebug_malloc_count] ne ""} {
  #  puts "Number of malloc()  : [sqlite4_memdebug_malloc_count] calls"
  #}




  foreach f [glob -nocomplain test.db-*-journal] {
    forcedelete $f
  }
  foreach f [glob -nocomplain test.db-mj*] {
    forcedelete $f
  }
  exit [expr {$nErr>0}]

#***********************************************************************
# This file tests that bug  9d68c883132c8e9ffcd5b0c148c990807b5df1b7
# is fixed.
#

set testdir [file dirname $argv0]
source $testdir/tester.tcl






do_test tkt-9d68c88-1.1 {
  execsql {
    PRAGMA page_size = 1024;
    PRAGMA auto_vacuum = 2;
    CREATE TABLE t3(x);
    CREATE TABLE t4(x);

#***********************************************************************
# This file tests that bug  9d68c883132c8e9ffcd5b0c148c990807b5df1b7
# is fixed.
#

set testdir [file dirname $argv0]
source $testdir/tester.tcl

ifcapable !memdebug {
  finish_test
  return
}

do_test tkt-9d68c88-1.1 {
  execsql {
    PRAGMA page_size = 1024;
    PRAGMA auto_vacuum = 2;
    CREATE TABLE t3(x);
    CREATE TABLE t4(x);

# At one point the following tests provoked an invalid write error (writing
# to memory that had already been freed). It was not possible to demonstrate
# that this bug could cause a query to return bad data.
# 
do_test where8-5.1 {
  db close
  sqlite4 db test.db
  sqlite4_db_config_lookaside db 0 0 0
  execsql {
    CREATE TABLE tA(
      a, b, c, d, e, f, g, h, 
      i, j, k, l, m, n, o, p
    );
  }
  execsql {

# At one point the following tests provoked an invalid write error (writing
# to memory that had already been freed). It was not possible to demonstrate
# that this bug could cause a query to return bad data.
# 
do_test where8-5.1 {
  db close
  sqlite4 db test.db
  #sqlite4_db_config_lookaside db 0 0 0
  execsql {
    CREATE TABLE tA(
      a, b, c, d, e, f, g, h, 
      i, j, k, l, m, n, o, p
    );
  }
  execsql {