firebird/firebird-mirror
firebird/firebird-mirror
8
0
Fork 1
mirror of https://github.com/FirebirdSQL/firebird.git synced 2025-01-22 20:43:02 +01:00
Code Issues

Misc

Browse Source
This commit is contained in:
asfernandes 2009-02-05 01:08:13 +00:00
parent 5f12fc864b
commit 75c0d0f353
15 changed files with 135 additions and 129 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

2
builds/install/misc/firebird.conf
View File

@ -190,7 +190,7 @@
#
# Type: string
#
#AuditTraceConfigFile =
#AuditTraceConfigFile =
# ----------------------------
# Maximum summary size of each user trace session's log files in MB.

5
builds/posix/Makefile.in.fbtrace
View File

@ -69,11 +69,6 @@ Dependencies = $(AllObjects:.o=.d)
all : fbtrace
# In the following the rpath variable probably wants to be different
# if it's going to be installed in fb specific path.
# Also the dynamic link process used in fb, will fall over if it finds
# links etc in the intl directory MOD 28-July-2002
fbtrace: $(FBTRACE)
$(FBTRACE): $(FBTRACE_Objects)

2
doc/README.services_extension
View File

@ -35,7 +35,7 @@ password are set using some other method):
(Alex Peshkov, peshkoff@mail.ru, 2008)
Nbackup performs two logical groups of operations - locking/unlocking database
and backup/restore it. It's doesn't make sense duplicating locking/unlocking in
and backup/restore it. It doesn't make sense duplicating locking/unlocking in
services, cause that functionality is present remotely in much better (from any
point of view) in SQL language interface (ALTER DATABASE). But backup and restore
must be run on localhost and the only way to access them is nbackup utility.

12
src/burp/backup.epp
View File

@ -94,7 +94,7 @@ inline void put(BurpGlobals* tdgbl, const UCHAR c)
inline void put(BurpGlobals* tdgbl, const att_type c)
{
if (--(tdgbl->io_cnt) >= 0)
if (--tdgbl->io_cnt >= 0)
*(tdgbl->io_ptr)++ = UCHAR(c);
else
MVOL_write(UCHAR(c), &tdgbl->io_cnt, &tdgbl->io_ptr);
@ -624,12 +624,12 @@ int copy( const TEXT* from, TEXT* to, ULONG size_len)
*
**************************************/
const ULONG l = (ULONG) MISC_symbol_length(from, size_len);
const ULONG len = (ULONG) MISC_symbol_length(from, size_len);
memcpy(to, from, l);
to[l] = '\0';
memcpy(to, from, len);
to[len] = '\0';
return (int) l;
return (int) len;
}
@ -2130,7 +2130,7 @@ int put_message( att_type attribute, att_type attribute2, const TEXT* text, cons
* CVC: As v6 time, put_text handles embedded blanks, too!
* The only difference is that put_text's length is SSHORT, so
* in theory put_message can handle much longer input and it's
* used for exception & trigger's messages (plus update/delete
* used for exception and trigger's messages (plus update/delete
* rules for FKs and constraint types, where it's irrelevant
* which function of the two you use).
* CVC: Responsability for FKs and constraint types transferred to put_text.

1
src/burp/burp.cpp
View File

@ -903,7 +903,6 @@ int gbak(Firebird::UtilSvc* uSvc)
break;
case IN_SW_BURP_NOD:
//tdgbl->gbl_sw_nodbtriggers = true;
dpb.insertByte(isc_dpb_no_db_triggers, 1);
break;

6
src/burp/burp.h
View File

@ -184,7 +184,6 @@ Version 6: IB6, FB1, FB1.5.
Version 7: FB2.0.
RDB$DESCRIPTION in roles and generators.
RDB$FILE_NAME in character_sets and collations
RDB$BASE_COLLATION_NAME and RDB$SPECIFIC_ATTRIBUTES in collations
Version 8: FB2.1.
@ -601,7 +600,7 @@ struct burp_fld
TEXT fld_base [GDS_NAME_LEN];
TEXT fld_query_name [GDS_NAME_LEN];
TEXT fld_security_class [GDS_NAME_LEN];
//SSHORT fld_edit_length;
//SSHORT fld_edit_length;
SSHORT fld_view_context;
SSHORT fld_update_flag;
SSHORT fld_flags;
@ -661,7 +660,7 @@ enum burp_rel_flags_vals {
struct burp_prc
{
burp_prc* prc_next;
//SSHORT prc_name_length; // Currently useless, but didn't want to delete it.
//SSHORT prc_name_length; // Currently useless, but didn't want to delete it.
GDS_NAME prc_name;
GDS_NAME prc_owner; // relation owner, if not us
};
@ -833,7 +832,6 @@ public:
bool gbl_sw_ignore_limbo;
bool gbl_sw_meta;
bool gbl_sw_novalidity;
//bool gbl_sw_nodbtriggers; // Currently useless, as the dpb is filled immediately.
USHORT gbl_sw_page_size;
bool gbl_sw_compress;
bool gbl_sw_version;

11
src/burp/restore.epp
View File

@ -2946,7 +2946,7 @@ bool get_exception(BurpGlobals* tdgbl)
default:
if (msg_seen && (tdgbl->RESTORE_format == 7 || tdgbl->RESTORE_format == 8))
{
// we have a corrup backup
// we have a corrupt backup
if (!failed_attrib)
{
failed_attrib = attribute;
@ -2960,14 +2960,14 @@ bool get_exception(BurpGlobals* tdgbl)
const int remaining = FIELD_LIMIT - l2;
if (remaining < 1) // not enough space
{
bad_attribute (scan_next_attr, failed_attrib, 287);
bad_attribute(scan_next_attr, failed_attrib, 287);
break;
}
*msg_ptr++ = char(attribute); // (1)
UCHAR* rc_ptr = get_block(tdgbl, msg_ptr, MIN(remaining - 1, 255));
if (remaining > 1 && rc_ptr == msg_ptr) // we couldn't read anything
{
bad_attribute (scan_next_attr, failed_attrib, 287);
bad_attribute(scan_next_attr, failed_attrib, 287);
break;
}
l2 += rc_ptr - msg_ptr + 1; // + 1 because (1)
@ -2977,7 +2977,7 @@ bool get_exception(BurpGlobals* tdgbl)
msg_seen = false;
}
else
bad_attribute (scan_next_attr, attribute, 287); // msg 287 exception
bad_attribute(scan_next_attr, attribute, 287); // msg 287 exception
break;
}
}
@ -6214,8 +6214,10 @@ USHORT get_text2(BurpGlobals* tdgbl, TEXT* text, ULONG length)
const USHORT len = (USHORT) gds__vax_integer(lenstr, sizeof(lenstr));
if (length <= len)
{
BURP_error_redirect (NULL, 46);
// msg 46 string truncated
}
if (len)
text = (TEXT*) get_block(tdgbl, (UCHAR*) text, len);
@ -6650,7 +6652,6 @@ bool get_trigger_message(BurpGlobals* tdgbl)
if (tdgbl->RESTORE_ods < DB_VERSION_DDL11)
message[78] = 0;
isc_tr_handle local_trans = tdgbl->global_trans ? tdgbl->global_trans : gds_trans;
STORE (TRANSACTION_HANDLE local_trans

209
src/common/classes/alloc.cpp
View File

@ -61,7 +61,7 @@ inline void PATTERN_FILL(void* ptr, size_t size, unsigned int pattern)
}
}
#else
inline void PATTERN_FILL(void *, size_t, unsigned int) { }
inline void PATTERN_FILL(void*, size_t, unsigned int) { }
#endif
// TODO (in order of importance):
@ -101,26 +101,26 @@ inline MemoryRedirectList* block_list_large(MemoryBlock* block)
}
// Returns block header from user block pointer
inline MemoryBlock* ptrToBlock(void *ptr)
inline MemoryBlock* ptrToBlock(void* ptr)
{
return (MemoryBlock*)((char*)ptr - MEM_ALIGN(sizeof(MemoryBlock)));
}
// Returns user memory pointer for block header pointer
template <typename T>
inline T blockToPtr(MemoryBlock *block)
inline T blockToPtr(MemoryBlock* block)
{
return reinterpret_cast<T>((char*)block + MEM_ALIGN(sizeof(MemoryBlock)));
}
// Returns previos block in extent. Doesn't check that next block exists
inline MemoryBlock* prev_block(MemoryBlock *block)
inline MemoryBlock* prev_block(MemoryBlock* block)
{
return (MemoryBlock*)((char*)block - block->mbk_small.mbk_prev_length - MEM_ALIGN(sizeof(MemoryBlock)));
}
// Returns next block in extent. Doesn't check that previous block exists
inline MemoryBlock* next_block(MemoryBlock *block)
inline MemoryBlock* next_block(MemoryBlock* block)
{
return (MemoryBlock*)((char*)block + block->mbk_small.mbk_length + MEM_ALIGN(sizeof(MemoryBlock)));
}
@ -190,7 +190,7 @@ inline size_t get_map_page_size()
// Race protected via cache_mutex.
struct DelayedExtent
{
void *memory; // Extent pointer
void* memory; // Extent pointer
size_t size; // Size of extent
int handle; // Valgrind handle of protected extent block
};
@ -209,7 +209,7 @@ namespace Firebird {
/****************************** Firebird::MemoryPool ***************************/
static void print_block(FILE *file, MemoryBlock *blk, bool used_only,
static void print_block(FILE* file, MemoryBlock* blk, bool used_only,
const char* filter_path, const size_t filter_len);
inline void MemoryPool::increment_usage(size_t size)
@ -324,10 +324,10 @@ void MemoryPool::setStatsGroup(MemoryStats& statsL)
parent->lock.leave();
}
MemoryPool::MemoryPool(MemoryPool* parentL, MemoryStats &statsL, void *first_extent, void *root_page)
MemoryPool::MemoryPool(MemoryPool* parentL, MemoryStats& statsL, void* first_extent, void* root_page)
: parent_redirect(parentL != NULL),
freeBlocks((InternalAllocator*)this, root_page),
extents((MemoryExtent *)first_extent),
freeBlocks((InternalAllocator*) this, root_page),
extents((MemoryExtent*) first_extent),
needSpare(false),
pendingFree(NULL),
used_memory(0),
@ -371,7 +371,7 @@ void MemoryPool::updateSpare()
// Great, if we were able to restore free blocks tree operations after critically low
// memory condition then try to add pending free blocks to our tree
while (pendingFree) {
PendingFreeBlock *temp = pendingFree;
PendingFreeBlock* temp = pendingFree;
pendingFree = temp->next;
// Blocks added with tree_deallocate may require merging with nearby ones
// This is why we do internal_deallocate
@ -387,7 +387,7 @@ void MemoryPool::updateSpare()
#ifdef USE_VALGRIND
void* MemoryPool::external_alloc(size_t &size)
void* MemoryPool::external_alloc(size_t& size)
{
// This method is assumed to return NULL in case it cannot alloc
size = FB_ALIGN(size, get_map_page_size());
@ -397,7 +397,7 @@ void* MemoryPool::external_alloc(size_t &size)
return result;
}
void MemoryPool::external_free(void *blk, size_t &size, bool pool_destroying)
void MemoryPool::external_free(void* blk, size_t& size, bool pool_destroying)
{
// Set access protection for block to prevent memory from deleted pool being accessed
int handle = VALGRIND_MAKE_NOACCESS(blk, size);
@ -416,7 +416,7 @@ void MemoryPool::external_free(void *blk, size_t &size, bool pool_destroying)
// Extend circular buffer if possible
if (delayedExtentCount < FB_NELEM(delayedExtents)) {
DelayedExtent *item = &delayedExtents[delayedExtentCount];
DelayedExtent* item = &delayedExtents[delayedExtentCount];
item->memory = blk;
item->size = size;
item->handle = handle;
@ -424,7 +424,7 @@ void MemoryPool::external_free(void *blk, size_t &size, bool pool_destroying)
return;
}
DelayedExtent *item = &delayedExtents[delayedExtentsPos];
DelayedExtent* item = &delayedExtents[delayedExtentsPos];
// Free message associated with old extent in Valgrind
VALGRIND_DISCARD(item->handle);
@ -454,14 +454,14 @@ void MemoryPool::external_free(void *blk, size_t &size, bool pool_destroying)
#else
void* MemoryPool::external_alloc(size_t &size)
void* MemoryPool::external_alloc(size_t& size)
{
// This method is assumed to return NULL in case it cannot alloc
# if !defined(DEBUG_GDS_ALLOC) && (defined(WIN_NT) || defined(HAVE_MMAP))
if (size == EXTENT_SIZE)
{
MutexLockGuard guard(*cache_mutex);
void *result = NULL;
void* result = NULL;
if (extents_cache.getCount()) {
// Use most recently used object to encourage caching
result = extents_cache[extents_cache.getCount() - 1];
@ -496,11 +496,11 @@ void* MemoryPool::external_alloc(size_t &size)
// No successful return from mmap() will return the value MAP_FAILED.
//The symbol MAP_FAILED is defined in the header <sys/mman.h>
//Solaris 2.9 #define MAP_FAILED ((void *) -1)
//Solaris 2.9 #define MAP_FAILED ((void*) -1)
size = FB_ALIGN(size, get_map_page_size());
void *result = NULL;
void* result = NULL;
# ifdef MAP_ANONYMOUS
result = mmap(0, size, PROT_READ | PROT_WRITE, MAP_PRIVATE | MAP_ANON , -1, 0);
@ -526,7 +526,7 @@ void* MemoryPool::external_alloc(size_t &size)
# endif
}
void MemoryPool::external_free(void *blk, size_t &size, bool pool_destroying)
void MemoryPool::external_free(void* blk, size_t& size, bool pool_destroying)
{
# if !defined(DEBUG_GDS_ALLOC) && (defined(WIN_NT) || defined(HAVE_MMAP))
if (size == EXTENT_SIZE) {
@ -568,16 +568,17 @@ void* MemoryPool::tree_alloc(size_t size)
{
if (!spareLeafs.getCount())
Firebird::BadAlloc::raise();
void *temp = spareLeafs[spareLeafs.getCount() - 1];
void* temp = spareLeafs[spareLeafs.getCount() - 1];
spareLeafs.shrink(spareLeafs.getCount() - 1);
needSpare = true;
return temp;
}
}
if (size == sizeof(FreeBlocksTree::NodeList)) {
if (!spareNodes.getCount())
Firebird::BadAlloc::raise();
void *temp = spareNodes[spareNodes.getCount() - 1];
void* temp = spareNodes[spareNodes.getCount() - 1];
spareNodes.shrink(spareNodes.getCount() - 1);
needSpare = true;
return temp;
@ -634,7 +635,7 @@ void* MemoryPool::allocate_nothrow(size_t size
blk->mbk_flags |= MBK_PARENT;
// Add block to the list of redirected blocks
block_list_small(parent_redirected)->mrl_prev = blk;
MemoryRedirectList *list = block_list_small(blk);
MemoryRedirectList* list = block_list_small(blk);
list->mrl_prev = NULL;
list->mrl_next = parent_redirected;
parent_redirected = blk;
@ -668,7 +669,7 @@ void* MemoryPool::allocate_nothrow(size_t size
//
// ******************************************************************* //
size_t ext_size = EXTENT_SIZE;
MemoryExtent *extent = (MemoryExtent*)external_alloc(ext_size);
MemoryExtent* extent = (MemoryExtent*)external_alloc(ext_size);
fb_assert(ext_size == EXTENT_SIZE); // Make sure exent size is a multiply of page size
if (!extent) {
@ -689,24 +690,29 @@ void* MemoryPool::allocate_nothrow(size_t size
hdr->mbk_small.mbk_prev_length = 0;
spareLeafs.add((char*)hdr + MEM_ALIGN(sizeof(MemoryBlock)));
MemoryBlock* blk = (MemoryBlock *)((char*)extent +
MemoryBlock* blk = (MemoryBlock*)((char*) extent +
MEM_ALIGN(sizeof(MemoryExtent)) +
MEM_ALIGN(sizeof(MemoryBlock)) +
MEM_ALIGN(sizeof(FreeBlocksTree::ItemList)));
const int blockLength = EXTENT_SIZE -
MEM_ALIGN(sizeof(MemoryExtent)) -
MEM_ALIGN(sizeof(MemoryBlock)) -
MEM_ALIGN(sizeof(FreeBlocksTree::ItemList)) -
MEM_ALIGN(sizeof(MemoryBlock));
blk->mbk_flags = MBK_LAST;
blk->mbk_type = 0;
blk->mbk_small.mbk_length = blockLength;
blk->mbk_small.mbk_prev_length = hdr->mbk_small.mbk_length;
blk->mbk_prev_fragment = NULL;
FreeMemoryBlock *freeBlock = blockToPtr<FreeMemoryBlock*>(blk);
FreeMemoryBlock* freeBlock = blockToPtr<FreeMemoryBlock*>(blk);
freeBlock->fbk_next_fragment = NULL;
BlockInfo temp = {blockLength, freeBlock};
freeBlocks.add(temp);
updateSpare();
}
@ -718,7 +724,7 @@ void* MemoryPool::allocate_nothrow(size_t size
if (size > EXTENT_SIZE - MEM_ALIGN(sizeof(MemoryBlock)) - MEM_ALIGN(sizeof(MemoryExtent)))
{
size_t ext_size = MEM_ALIGN(sizeof(MemoryBlock)) + size + MEM_ALIGN(sizeof(MemoryRedirectList));
MemoryBlock *blk = (MemoryBlock*) external_alloc(ext_size);
MemoryBlock* blk = (MemoryBlock*) external_alloc(ext_size);
if (!blk) {
lock.leave();
return NULL;
@ -735,7 +741,7 @@ void* MemoryPool::allocate_nothrow(size_t size
// Add block to the list of redirected blocks
if (os_redirected)
block_list_large(os_redirected)->mrl_prev = blk;
MemoryRedirectList *list = block_list_large(blk);
MemoryRedirectList* list = block_list_large(blk);
list->mrl_prev = NULL;
list->mrl_next = os_redirected;
os_redirected = blk;
@ -743,7 +749,7 @@ void* MemoryPool::allocate_nothrow(size_t size
// Update usage statistics
increment_usage(size);
lock.leave();
void *result = blockToPtr<void*>(blk);
void* result = blockToPtr<void*>(blk);
#ifdef USE_VALGRIND
VALGRIND_MEMPOOL_ALLOC(this, result, requested_size);
//VALGRIND_MAKE_NOACCESS((char*)result - VALGRIND_REDZONE, VALGRIND_REDZONE);
@ -800,21 +806,21 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
// Verify that free blocks tree is consistent and indeed contains free memory blocks
if (freeBlocks.getFirst())
do {
BlockInfo *current = &freeBlocks.current();
BlockInfo* current = &freeBlocks.current();
// Verify that head of free blocks list set correctly
mem_assert(current->bli_fragments);
mem_assert(ptrToBlock(current->bli_fragments)->mbk_prev_fragment == NULL);
// Look over all blocks in list checking that things look kosher
for (FreeMemoryBlock *fragment = current->bli_fragments;
for (FreeMemoryBlock* fragment = current->bli_fragments;
fragment; fragment = fragment->fbk_next_fragment)
{
// Make sure that list is actually doubly linked
if (fragment->fbk_next_fragment)
mem_assert(ptrToBlock(fragment->fbk_next_fragment)->mbk_prev_fragment == fragment);
MemoryBlock *blk = ptrToBlock(fragment);
MemoryBlock* blk = ptrToBlock(fragment);
// Check block flags for correctness
mem_assert(!(blk->mbk_flags & (MBK_LARGE | MBK_PARENT | MBK_USED | MBK_DELAYED)));
@ -825,7 +831,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
} while (freeBlocks.getNext());
// check each block in each segment for consistency with free blocks structure
for (MemoryExtent *extent = extents; extent; extent = extent->mxt_next)
for (MemoryExtent* extent = extents; extent; extent = extent->mxt_next)
{
// Verify doubly linked list
if (extent == extents) {
@ -837,7 +843,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
}
blk_mapped_memory += EXTENT_SIZE;
USHORT prev_length = 0;
for (MemoryBlock *blk = (MemoryBlock *)((char*)extent + MEM_ALIGN(sizeof(MemoryExtent)));
for (MemoryBlock* blk = (MemoryBlock*)((char*) extent + MEM_ALIGN(sizeof(MemoryExtent)));
;
blk = next_block(blk))
{
@ -864,9 +870,10 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
mem_assert(blk->mbk_small.mbk_prev_length == prev_length); // Prev is correct ?
bool foundPending = false;
for (PendingFreeBlock *tmp = pendingFree; tmp; tmp = tmp->next)
for (PendingFreeBlock* tmp = pendingFree; tmp; tmp = tmp->next)
{
if (tmp == (PendingFreeBlock *)((char*)blk + MEM_ALIGN(sizeof(MemoryBlock)))) {
if (tmp == (PendingFreeBlock*)((char*) blk + MEM_ALIGN(sizeof(MemoryBlock))))
{
mem_assert(!foundPending); // Block may be in pending list only one time
foundPending = true;
}
@ -879,7 +886,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
{
if (blk->mbk_prev_fragment) {
// See if previous fragment seems kosher
MemoryBlock *prev_fragment_blk = ptrToBlock(blk->mbk_prev_fragment);
MemoryBlock* prev_fragment_blk = ptrToBlock(blk->mbk_prev_fragment);
mem_assert(
!(prev_fragment_blk->mbk_flags & (MBK_LARGE | MBK_PARENT | MBK_USED | MBK_DELAYED)) &&
prev_fragment_blk->mbk_small.mbk_length);
@ -891,9 +898,9 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
// See if next fragment seems kosher
// (note that FreeMemoryBlock has the same structure as PendingFreeBlock so we can do this check)
FreeMemoryBlock *next_fragment = blockToPtr<FreeMemoryBlock*>(blk)->fbk_next_fragment;
FreeMemoryBlock* next_fragment = blockToPtr<FreeMemoryBlock*>(blk)->fbk_next_fragment;
if (next_fragment) {
MemoryBlock *next_fragment_blk = ptrToBlock(next_fragment);
MemoryBlock* next_fragment_blk = ptrToBlock(next_fragment);
mem_assert(
!(next_fragment_blk->mbk_flags & (MBK_LARGE | MBK_PARENT | MBK_USED | MBK_DELAYED)) &&
next_fragment_blk->mbk_small.mbk_length);
@ -929,7 +936,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
}
// Verify large blocks
for (MemoryBlock *large = os_redirected; large; large = block_list_large(large)->mrl_next)
for (MemoryBlock* large = os_redirected; large; large = block_list_large(large)->mrl_next)
{
MemoryRedirectList* list = block_list_large(large);
// Verify doubly linked list
@ -956,7 +963,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
// Verify memory fragments in pending free list
for (PendingFreeBlock* pBlock = pendingFree; pBlock; pBlock = pBlock->next) {
MemoryBlock *blk = ptrToBlock(pBlock);
MemoryBlock* blk = ptrToBlock(pBlock);
mem_assert(blk->mbk_prev_fragment == NULL);
// Check block flags for correctness
@ -972,7 +979,7 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
parent->lock.enter();
// Verify redirected blocks
size_t blk_redirected = 0;
for (MemoryBlock *redirected = parent_redirected; redirected; redirected = block_list_small(redirected)->mrl_next)
for (MemoryBlock* redirected = parent_redirected; redirected; redirected = block_list_small(redirected)->mrl_next)
{
MemoryRedirectList* list = block_list_small(redirected);
// Verify doubly linked list
@ -1006,10 +1013,10 @@ bool MemoryPool::verify_pool(bool fast_checks_only)
return true;
}
static void print_block(FILE *file, MemoryBlock *blk, bool used_only,
static void print_block(FILE* file, MemoryBlock* blk, bool used_only,
const char* filter_path, const size_t filter_len)
{
void *mem = blockToPtr<void*>(blk);
void* mem = blockToPtr<void*>(blk);
if (((blk->mbk_flags & MBK_USED) && !(blk->mbk_flags & MBK_DELAYED) && blk->mbk_type >= 0) ||
!used_only)
{
@ -1046,7 +1053,7 @@ static void print_block(FILE *file, MemoryBlock *blk, bool used_only,
void MemoryPool::print_contents(const char* filename, bool used_only, const char* filter_path)
{
FILE *out = fopen(filename, "w");
FILE* out = fopen(filename, "w");
if (!out)
return;
@ -1055,7 +1062,7 @@ void MemoryPool::print_contents(const char* filename, bool used_only, const char
}
// This member function can't be const because there are calls to the mutex.
void MemoryPool::print_contents(FILE *file, bool used_only, const char* filter_path)
void MemoryPool::print_contents(FILE* file, bool used_only, const char* filter_path)
{
lock.enter();
fprintf(file, "********* Printing contents of pool %p used=%ld mapped=%ld:\n",
@ -1063,10 +1070,10 @@ void MemoryPool::print_contents(FILE *file, bool used_only, const char* filter_p
const size_t filter_len = filter_path ? strlen(filter_path) : 0;
// Print extents
for (MemoryExtent *extent = extents; extent; extent = extent->mxt_next) {
for (MemoryExtent* extent = extents; extent; extent = extent->mxt_next) {
if (!used_only)
fprintf(file, "EXTENT %p:\n", extent);
for (MemoryBlock *blk = (MemoryBlock *)((char*)extent + MEM_ALIGN(sizeof(MemoryExtent)));
for (MemoryBlock* blk = (MemoryBlock*)((char*) extent + MEM_ALIGN(sizeof(MemoryExtent)));
;
blk = next_block(blk))
{
@ -1078,7 +1085,7 @@ void MemoryPool::print_contents(FILE *file, bool used_only, const char* filter_p
// Print large blocks
if (os_redirected) {
fprintf(file, "LARGE BLOCKS:\n");
for (MemoryBlock *blk = os_redirected; blk; blk = block_list_large(blk)->mrl_next)
for (MemoryBlock* blk = os_redirected; blk; blk = block_list_large(blk)->mrl_next)
print_block(file, blk, used_only, filter_path, filter_len);
}
lock.leave();
@ -1086,16 +1093,16 @@ void MemoryPool::print_contents(FILE *file, bool used_only, const char* filter_p
if (parent_redirected) {
fprintf(file, "REDIRECTED TO PARENT %p:\n", parent);
parent->lock.enter();
for (MemoryBlock *blk = parent_redirected; blk; blk = block_list_small(blk)->mrl_next)
for (MemoryBlock* blk = parent_redirected; blk; blk = block_list_small(blk)->mrl_next)
print_block(file, blk, used_only, filter_path, filter_len);
parent->lock.leave();
}
fprintf(file, "********* End of output for pool %p.\n", this);
}
MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats& stats)
{
MemoryPool *pool;
MemoryPool* pool;
#ifndef USE_VALGRIND
// If pool has a parent things are simplified.
// Note we do not use parent redirection when using Valgrind because it is
@ -1115,7 +1122,7 @@ MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
blk->mbk_pool = pool;
blk->mbk_flags |= MBK_PARENT;
// Add block to the list of redirected blocks
MemoryRedirectList *list = block_list_small(blk);
MemoryRedirectList* list = block_list_small(blk);
list->mrl_prev = NULL;
list->mrl_next = NULL;
pool->parent_redirected = blk;
@ -1138,13 +1145,13 @@ MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
// ******************************************************************* //
size_t ext_size = EXTENT_SIZE;
char* mem = (char *)external_alloc(ext_size);
char* mem = (char*) external_alloc(ext_size);
fb_assert(ext_size == EXTENT_SIZE); // Make sure exent size is a multiply of page size
if (!mem)
Firebird::BadAlloc::raise();
((MemoryExtent *)mem)->mxt_next = NULL;
((MemoryExtent *)mem)->mxt_prev = NULL;
((MemoryExtent*) mem)->mxt_next = NULL;
((MemoryExtent*) mem)->mxt_prev = NULL;
pool = new(mem +
MEM_ALIGN(sizeof(MemoryExtent)) +
@ -1157,7 +1164,7 @@ MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
pool->increment_mapping(EXTENT_SIZE);
MemoryBlock *poolBlk = (MemoryBlock*) (mem + MEM_ALIGN(sizeof(MemoryExtent)));
MemoryBlock* poolBlk = (MemoryBlock*) (mem + MEM_ALIGN(sizeof(MemoryExtent)));
poolBlk->mbk_pool = pool;
poolBlk->mbk_flags = MBK_USED;
poolBlk->mbk_type = TYPE_POOL;
@ -1173,12 +1180,14 @@ MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
hdr->mbk_type = TYPE_LEAFPAGE;
hdr->mbk_small.mbk_length = MEM_ALIGN(sizeof(FreeBlocksTree::ItemList));
hdr->mbk_small.mbk_prev_length = poolBlk->mbk_small.mbk_length;
MemoryBlock* blk = (MemoryBlock *)(mem +
MemoryBlock* blk = (MemoryBlock*)(mem +
MEM_ALIGN(sizeof(MemoryExtent)) +
MEM_ALIGN(sizeof(MemoryBlock)) +
MEM_ALIGN(sizeof(MemoryPool)) +
MEM_ALIGN(sizeof(MemoryBlock)) +
MEM_ALIGN(sizeof(FreeBlocksTree::ItemList)));
const int blockLength = EXTENT_SIZE -
MEM_ALIGN(sizeof(MemoryExtent)) -
MEM_ALIGN(sizeof(MemoryBlock)) -
@ -1186,13 +1195,16 @@ MemoryPool* MemoryPool::createPool(MemoryPool* parent, MemoryStats &stats)
MEM_ALIGN(sizeof(MemoryBlock)) -
MEM_ALIGN(sizeof(FreeBlocksTree::ItemList)) -
MEM_ALIGN(sizeof(MemoryBlock));
blk->mbk_flags = MBK_LAST;
blk->mbk_type = 0;
blk->mbk_small.mbk_length = blockLength;
blk->mbk_small.mbk_prev_length = hdr->mbk_small.mbk_length;
blk->mbk_prev_fragment = NULL;
FreeMemoryBlock *freeBlock = blockToPtr<FreeMemoryBlock*>(blk);
FreeMemoryBlock* freeBlock = blockToPtr<FreeMemoryBlock*>(blk);
freeBlock->fbk_next_fragment = NULL;
BlockInfo temp = {blockLength, freeBlock};
pool->freeBlocks.add(temp);
pool->updateSpare();
@ -1232,20 +1244,21 @@ void MemoryPool::deletePool(MemoryPool* pool)
// we delete our pool in process
// Deallocate all large blocks redirected to OS
MemoryBlock *large = pool->os_redirected;
while (large) {
MemoryBlock *next = block_list_large(large)->mrl_next;
MemoryBlock* large = pool->os_redirected;
while (large)
{
MemoryBlock* next = block_list_large(large)->mrl_next;
size_t ext_size = large->mbk_large_length;
external_free(large, ext_size, true);
large = next;
}
MemoryPool *parent = pool->parent;
MemoryPool* parent = pool->parent;
// Delete all extents now
MemoryExtent *extent = pool->extents;
MemoryExtent* extent = pool->extents;
while (extent) {
MemoryExtent *next = extent->mxt_next;
MemoryExtent* next = extent->mxt_next;
size_t ext_size = EXTENT_SIZE;
external_free(extent, ext_size, true);
fb_assert(ext_size == EXTENT_SIZE); // Make sure exent size is a multiply of page size
@ -1257,10 +1270,10 @@ void MemoryPool::deletePool(MemoryPool* pool)
if (parent)
{
parent->lock.enter();
MemoryBlock *redirected = pool->parent_redirected;
MemoryBlock* redirected = pool->parent_redirected;
while (redirected)
{
MemoryBlock *next = block_list_small(redirected)->mrl_next;
MemoryBlock* next = block_list_small(redirected)->mrl_next;
redirected->mbk_pool = parent;
redirected->mbk_flags &= ~MBK_PARENT;
#ifdef USE_VALGRIND
@ -1316,7 +1329,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
blk->mbk_file = file;
blk->mbk_line = line;
#endif
FreeMemoryBlock *next_free = current->bli_fragments->fbk_next_fragment;
FreeMemoryBlock* next_free = current->bli_fragments->fbk_next_fragment;
if (next_free) {
ptrToBlock(next_free)->mbk_prev_fragment = NULL;
current->bli_fragments = next_free;
@ -1328,7 +1341,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
{
// Cut a piece at the end of block in hope to avoid structural
// modification of free blocks tree
MemoryBlock *current_block = ptrToBlock(current->bli_fragments);
MemoryBlock* current_block = ptrToBlock(current->bli_fragments);
current_block->mbk_small.mbk_length -= MEM_ALIGN(sizeof(MemoryBlock)) + size;
blk = next_block(current_block);
blk->mbk_pool = this;
@ -1344,7 +1357,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
if (!(blk->mbk_flags & MBK_LAST))
next_block(blk)->mbk_small.mbk_prev_length = blk->mbk_small.mbk_length;
FreeMemoryBlock *next_free = current->bli_fragments->fbk_next_fragment;
FreeMemoryBlock* next_free = current->bli_fragments->fbk_next_fragment;
if (next_free)
{
@ -1388,10 +1401,10 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
{
// If we are in a critically low memory condition look up for a block in a list
// of pending free blocks. We do not do "best fit" in this case
PendingFreeBlock *itr = pendingFree, *prev = NULL;
PendingFreeBlock* itr = pendingFree, *prev = NULL;
while (itr)
{
MemoryBlock *temp = ptrToBlock(itr);
MemoryBlock* temp = ptrToBlock(itr);
if (temp->mbk_small.mbk_length >= size)
{
if (temp->mbk_small.mbk_length - size < MEM_ALIGN(sizeof(MemoryBlock)) + ALLOC_ALIGNMENT)
@ -1431,7 +1444,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
blk->mbk_small.mbk_prev_length = temp->mbk_small.mbk_length;
if (!(blk->mbk_flags & MBK_LAST))
next_block(blk)->mbk_small.mbk_prev_length = blk->mbk_small.mbk_length;
void *result = blockToPtr<void*>(blk);
void* result = blockToPtr<void*>(blk);
PATTERN_FILL(result, size, ALLOC_PATTERN);
return result;
}
@ -1440,7 +1453,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
}
// No large enough block found. We need to extend the pool
size_t ext_size = EXTENT_SIZE;
MemoryExtent* extent = (MemoryExtent *)external_alloc(ext_size);
MemoryExtent* extent = (MemoryExtent*) external_alloc(ext_size);
fb_assert(ext_size == EXTENT_SIZE); // Make sure exent size is a multiply of page size
if (!extent) {
@ -1453,7 +1466,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
extent->mxt_prev = NULL;
extents = extent;
blk = (MemoryBlock *)((char*)extent + MEM_ALIGN(sizeof(MemoryExtent)));
blk = (MemoryBlock*)((char*) extent + MEM_ALIGN(sizeof(MemoryExtent)));
blk->mbk_pool = this;
blk->mbk_flags = MBK_USED;
blk->mbk_type = type;
@ -1474,7 +1487,7 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
// Cut a piece at the beginning of the block
blk->mbk_small.mbk_length = size;
// Put the rest to the tree of free blocks
MemoryBlock *rest = next_block(blk);
MemoryBlock* rest = next_block(blk);
// Will be initialized (to NULL) by addFreeBlock code
// rest->mbk_pool = this;
rest->mbk_flags = MBK_LAST;
@ -1484,19 +1497,19 @@ void* MemoryPool::internal_alloc(size_t size, SSHORT type
addFreeBlock(rest);
}
}
void *result = blockToPtr<void*>(blk);
void* result = blockToPtr<void*>(blk);
PATTERN_FILL(result, size, ALLOC_PATTERN);
return result;
}
inline void MemoryPool::addFreeBlock(MemoryBlock *blk)
inline void MemoryPool::addFreeBlock(MemoryBlock* blk)
{
FreeMemoryBlock* fragmentToAdd = blockToPtr<FreeMemoryBlock*>(blk);
blk->mbk_prev_fragment = NULL;
// Cheap case. No modification of tree required
if (freeBlocks.locate(blk->mbk_small.mbk_length)) {
BlockInfo *current = &freeBlocks.current();
BlockInfo* current = &freeBlocks.current();
// Make new block a head of free blocks doubly linked list
fragmentToAdd->fbk_next_fragment = current->bli_fragments;
@ -1520,14 +1533,14 @@ inline void MemoryPool::addFreeBlock(MemoryBlock *blk)
}
}
void MemoryPool::removeFreeBlock(MemoryBlock *blk)
void MemoryPool::removeFreeBlock(MemoryBlock* blk)
{
// NOTE! We signal items placed into pendingFree queue via setting their
// mbk_prev_fragment to ZERO.
FreeMemoryBlock *fragmentToRemove = blockToPtr<FreeMemoryBlock*>(blk);
FreeMemoryBlock *prev = blk->mbk_prev_fragment;
FreeMemoryBlock *next = fragmentToRemove->fbk_next_fragment;
FreeMemoryBlock* fragmentToRemove = blockToPtr<FreeMemoryBlock*>(blk);
FreeMemoryBlock* prev = blk->mbk_prev_fragment;
FreeMemoryBlock* next = fragmentToRemove->fbk_next_fragment;
if (prev) {
// Cheapest case. There is no need to touch B+ tree at all.
// Simply remove item from a middle or end of doubly linked list
@ -1557,14 +1570,14 @@ void MemoryPool::removeFreeBlock(MemoryBlock *blk)
// Our block could be in the pending free blocks list if we are in a
// critically-low memory condition or if tree_free placed it there.
// Find and remove it from there.
PendingFreeBlock *itr = pendingFree,
PendingFreeBlock* itr = pendingFree,
*temp = blockToPtr<PendingFreeBlock*>(blk);
if (itr == temp)
pendingFree = itr->next;
else
{
while ( itr ) {
PendingFreeBlock *next2 = itr->next;
PendingFreeBlock* next2 = itr->next;
if (next2 == temp) {
itr->next = temp->next;
break;
@ -1576,9 +1589,9 @@ void MemoryPool::removeFreeBlock(MemoryBlock *blk)
}
}
void MemoryPool::free_blk_extent(MemoryBlock *blk)
void MemoryPool::free_blk_extent(MemoryBlock* blk)
{
MemoryExtent *extent = (MemoryExtent *)((char *)blk - MEM_ALIGN(sizeof(MemoryExtent)));
MemoryExtent* extent = (MemoryExtent*)((char*) blk - MEM_ALIGN(sizeof(MemoryExtent)));
// Delete extent from the doubly linked list
if (extent->mxt_prev)
@ -1597,9 +1610,9 @@ void MemoryPool::free_blk_extent(MemoryBlock *blk)
decrement_mapping(EXTENT_SIZE);
}
void MemoryPool::internal_deallocate(void *block)
void MemoryPool::internal_deallocate(void* block)
{
MemoryBlock *blk = ptrToBlock(block);
MemoryBlock* blk = ptrToBlock(block);
// This method is normally called for used blocks from our pool. Also it may
// be called for free blocks in pendingFree list by updateSpare routine.
@ -1607,14 +1620,14 @@ void MemoryPool::internal_deallocate(void *block)
fb_assert(blk->mbk_flags & MBK_USED ? blk->mbk_pool == this : blk->mbk_prev_fragment == NULL);
MemoryBlock *prev;
MemoryBlock* prev;
// Try to merge block with preceding free block
if (blk->mbk_small.mbk_prev_length && !((prev = prev_block(blk))->mbk_flags & MBK_USED))
{
removeFreeBlock(prev);
prev->mbk_small.mbk_length += blk->mbk_small.mbk_length + MEM_ALIGN(sizeof(MemoryBlock));
MemoryBlock *next = NULL;
MemoryBlock* next = NULL;
if (blk->mbk_flags & MBK_LAST) {
prev->mbk_flags |= MBK_LAST;
}
@ -1641,7 +1654,7 @@ void MemoryPool::internal_deallocate(void *block)
}
else
{
MemoryBlock *next;
MemoryBlock* next;
// Mark block as free
blk->mbk_flags &= ~MBK_USED;
// Try to merge block with next free block
@ -1662,7 +1675,7 @@ void MemoryPool::internal_deallocate(void *block)
}
void MemoryPool::deallocate(void *block)
void MemoryPool::deallocate(void* block)
{
if (!block)
return;
@ -1774,7 +1787,7 @@ void MemoryPool::deallocate(void *block)
if (blk->mbk_flags & MBK_LARGE)
{
// Delete block from list of redirected blocks
MemoryRedirectList *list = block_list_large(blk);
MemoryRedirectList* list = block_list_large(blk);
if (list->mrl_prev)
block_list_large(list->mrl_prev)->mrl_next = list->mrl_next;
else
@ -1830,10 +1843,10 @@ void AutoStorage::ProbeStack() const
// 1. One and only one stack is used for all kind of variables.
// 2. Objects don't grow > 64K.
//
char ProbeVar = '\0';
const char *MyStack = &ProbeVar;
const char *ThisLocation = (const char *)this;
ptrdiff_t distance = ThisLocation - MyStack;
char probeVar = '\0';
const char* myStack = &probeVar;
const char* thisLocation = (const char*) this;
ptrdiff_t distance = thisLocation - myStack;
if (distance < 0) {
distance = -distance;
}

4
src/common/classes/tree.h
View File

@ -183,7 +183,7 @@ public:
bool isEmpty() const
{
return root == NULL || (level == 0 && ((ItemList*)root)->getCount() == 0);
return root == NULL || (level == 0 && ((ItemList*) root)->getCount() == 0);
}
bool add(const Value& item) { return defaultAccessor.add(item); }
@ -557,7 +557,7 @@ public:
// Only one node left in the current page. We cannot remove it directly
// because is would invalidate our tree structure
fb_assert(this->curPos == 0);
ItemList *temp;
ItemList* temp;
if ((temp = this->curr->prev) && NEED_MERGE(temp->getCount(), LeafCount)) {
temp = this->curr->next;
tree->_removePage(0, this->curr);

2
src/jrd/DatabaseSnapshot.cpp
View File

@ -1108,7 +1108,7 @@ void DatabaseSnapshot::putRequest(const jrd_req* request, ClumpletWriter& writer
}
// sql text
const string emptyString;
const string &sql = request->req_sql_text ? (*request->req_sql_text) : emptyString;
const string& sql = request->req_sql_text ? (*request->req_sql_text) : emptyString;
writer.insertString(f_mon_stmt_sql_text, sql);
// statistics
writer.insertBigInt(f_mon_stmt_stat_id, getGlobalId(stat_id));

3
src/jrd/jrd.cpp
View File

@ -2094,7 +2094,7 @@ ISC_STATUS GDS_CREATE_DATABASE(ISC_STATUS* user_status,
{
const ISC_LONG exc = ex.stuff_exception(user_status);
const bool no_priv = (exc == isc_login || exc == isc_no_priv);
trace_failed_attach(attachment ? attachment->att_trace_manager : NULL,
trace_failed_attach(attachment ? attachment->att_trace_manager : NULL,
filename, options, true, no_priv);
return unwindAttach(ex, user_status, tdbb, attachment, dbb);
@ -4833,6 +4833,7 @@ static Database* init(thread_db* tdbb,
dbb->dbb_decrypt = (Database::crypt_routine) crypt_lib.lookupSymbol(decrypt_entrypoint);
}
#endif
return dbb;
}

2
src/jrd/trace/TraceConfigStorage.cpp
View File

@ -195,7 +195,7 @@ void ConfigStorage::checkFile()
if (len)
{
fseek(cfgFile, 0, SEEK_SET);
char* p = session.ses_config.getBuffer(len+1);
char* p = session.ses_config.getBuffer(len + 1);
if (fread(p, 1, len, cfgFile) != len)
{
Arg::Gds temp(isc_io_error);

1
src/jrd/trace/TraceManager.cpp
View File

@ -32,7 +32,6 @@
#include "../../jrd/trace/TraceManager.h"
#include "../../jrd/trace/TraceObjects.h"
#include "../../jrd/os/path_utils.h"
#include "../config/ScanDir.h"
#ifdef WIN_NT

2
src/jrd/trace/TraceService.cpp
View File

@ -341,7 +341,7 @@ bool TraceSvcJrd::checkAlive(ULONG sesId)
// service entrypoint
THREAD_ENTRY_DECLARE TRACE_main(THREAD_ENTRY_PARAM arg)
{
Service* svc = (Service*)arg;
Service* svc = (Service*) arg;
int exit_code = FB_SUCCESS;
TraceSvcJrd traceSvc(*svc);

2
src/msgs/messages2.sql
View File

@ -2461,7 +2461,7 @@ ERROR: Backup incomplete', NULL, NULL);
(NULL, 'BURP_gbak', 'burp.cpp', NULL, 12, 309, NULL, 'could not read password file @1, errno @2', NULL, NULL);
(NULL, 'BURP_gbak', 'burp.cpp', NULL, 12, 310, NULL, 'empty password file @1', NULL, NULL);
(NULL, 'get_exception', 'restore.epp', NULL, 12, 311, NULL, 'Attribute @1 was already processed for exception @2', NULL, NULL)
(NULL, 'get_exception', 'restore.epp', NULL, 12, 312, NULL, 'Skipping attribute @1 because the message already exists for exception @2 ', NULL, NULL)
(NULL, 'get_exception', 'restore.epp', NULL, 12, 312, NULL, 'Skipping attribute @1 because the message already exists for exception @2', NULL, NULL)
(NULL, 'get_exception', 'restore.epp', NULL, 12, 313, NULL, 'Trying to recover from unexpected attribute @1 due to wrong message length for exception @2', NULL, NULL)
(NULL, 'put_exception', 'backup.epp', NULL, 12, 314, NULL, 'Attribute not specified for storing text bigger than 255 bytes', NULL, NULL)
(NULL, 'put_exception', 'backup.epp', NULL, 12, 315, NULL, 'Unable to store text bigger than 65536 bytes', NULL, NULL)