static bool hbin_prs_vk_rec( const char *desc, REGF_HBIN *hbin, int depth,
REGF_VK_REC *vk, REGF_FILE *file )
{
uint32 offset;
uint16 name_length;
prs_struct *ps = &hbin->ps;
uint32 data_size, start_off, end_off;
depth++;
/* backup and get the data_size */
if ( !prs_set_offset( &hbin->ps, hbin->ps.data_offset-sizeof(uint32)) )
return false;
start_off = hbin->ps.data_offset;
if ( !prs_uint32( "rec_size", &hbin->ps, depth, &vk->rec_size ))
return false;
if ( !prs_uint8s("header", ps, depth, vk->header, sizeof( vk->header )) )
return false;
if ( !hbin->ps.io )
name_length = strlen(vk->valuename);
if ( !prs_uint16( "name_length", ps, depth, &name_length ))
return false;
if ( !prs_uint32( "data_size", ps, depth, &vk->data_size ))
return false;
if ( !prs_uint32( "data_off", ps, depth, &vk->data_off ))
return false;
if ( !prs_uint32( "type", ps, depth, &vk->type))
return false;
if ( !prs_uint16( "flag", ps, depth, &vk->flag))
return false;
offset = ps->data_offset;
offset += 2; /* skip 2 bytes */
prs_set_offset( ps, offset );
/* get the name */
if ( vk->flag&VK_FLAG_NAME_PRESENT ) {
if ( hbin->ps.io ) {
if ( !(vk->valuename = (char*)zcalloc(sizeof(char), name_length+1 )))
return false;
}
if ( !prs_uint8s("name", ps, depth,
(uint8*)vk->valuename, name_length) )
return false;
}
end_off = hbin->ps.data_offset;
/* get the data if necessary */
if ( vk->data_size != 0 )
{
/* the data is stored in the offset if the size <= 4 */
if ( !(vk->data_size & VK_DATA_IN_OFFSET) )
{
REGF_HBIN *hblock = hbin;
uint32 data_rec_size;
if ( hbin->ps.io )
{
if ( !(vk->data = (uint8*)zcalloc(sizeof(uint8), vk->data_size) ) )
return false;
}
/* this data can be in another hbin */
if ( !hbin_contains_offset( hbin, vk->data_off ) )
{
if ( !(hblock = lookup_hbin_block( file, vk->data_off )) )
return false;
}
if (!(prs_set_offset(&hblock->ps,
(vk->data_off
+ HBIN_HDR_SIZE
- hblock->first_hbin_off)
- sizeof(uint32))))
{ return false; }
if ( !hblock->ps.io )
{
data_rec_size = ( (vk->data_size+sizeof(uint32)) & 0xfffffff8 ) + 8;
data_rec_size = ( data_rec_size - 1 ) ^ 0xFFFFFFFF;
}
if ( !prs_uint32( "data_rec_size", &hblock->ps, depth, &data_rec_size ))
return false;
if(!prs_uint8s("data", &hblock->ps, depth,
vk->data, vk->data_size))
return false;
if ( !hblock->ps.io )
hblock->dirty = true;
}
else
{
if(!(vk->data = zcalloc(sizeof(uint8), 4)))
return false;
SIVAL( vk->data, 0, vk->data_off );
}
}
/* data_size must be divisible by 8 and large enough to hold the original record */
data_size = ((start_off - end_off ) & 0xfffffff8 );
/* XXX: should probably print a warning here */
/*if ( data_size != vk->rec_size )
DEBUG(10,("prs_vk_rec: data_size check failed (0x%x < 0x%x)\n", data_size, vk->rec_size));*/
if ( !hbin->ps.io )
hbin->dirty = true;
return true;
}
static bool prs_nk_rec( const char *desc, prs_struct *ps,
int depth, REGF_NK_REC *nk )
{
uint16 class_length, name_length;
uint32 start;
uint32 data_size, start_off, end_off;
uint32 unknown_off = REGF_OFFSET_NONE;
nk->hbin_off = ps->data_offset;
start = nk->hbin_off;
depth++;
/* back up and get the data_size */
if ( !prs_set_offset( ps, ps->data_offset-sizeof(uint32)) )
return false;
start_off = ps->data_offset;
if ( !prs_uint32( "rec_size", ps, depth, &nk->rec_size ))
return false;
if (!prs_uint8s("header", ps, depth, nk->header, sizeof(nk->header)))
return false;
if ( !prs_uint16( "key_type", ps, depth, &nk->key_type ))
return false;
if ( !smb_io_time( "mtime", &nk->mtime, ps, depth ))
return false;
if ( !prs_set_offset( ps, start+0x0010 ) )
return false;
if ( !prs_uint32( "parent_off", ps, depth, &nk->parent_off ))
return false;
if ( !prs_uint32( "num_subkeys", ps, depth, &nk->num_subkeys ))
return false;
if ( !prs_set_offset( ps, start+0x001c ) )
return false;
if ( !prs_uint32( "subkeys_off", ps, depth, &nk->subkeys_off ))
return false;
if ( !prs_uint32( "unknown_off", ps, depth, &unknown_off) )
return false;
if ( !prs_set_offset( ps, start+0x0024 ) )
return false;
if ( !prs_uint32( "num_values", ps, depth, &nk->num_values ))
return false;
if ( !prs_uint32( "values_off", ps, depth, &nk->values_off ))
return false;
if ( !prs_uint32( "sk_off", ps, depth, &nk->sk_off ))
return false;
if ( !prs_uint32( "classname_off", ps, depth, &nk->classname_off ))
return false;
if (!prs_uint32("max_bytes_subkeyname", ps, depth, &nk->max_bytes_subkeyname))
return false;
if ( !prs_uint32( "max_bytes_subkeyclassname", ps,
depth, &nk->max_bytes_subkeyclassname))
{ return false; }
if ( !prs_uint32( "max_bytes_valuename", ps, depth, &nk->max_bytes_valuename))
return false;
if ( !prs_uint32( "max_bytes_value", ps, depth, &nk->max_bytes_value))
return false;
if ( !prs_uint32( "unknown index", ps, depth, &nk->unk_index))
return false;
name_length = nk->keyname ? strlen(nk->keyname) : 0 ;
class_length = nk->classname ? strlen(nk->classname) : 0 ;
if ( !prs_uint16( "name_length", ps, depth, &name_length ))
return false;
if ( !prs_uint16( "class_length", ps, depth, &class_length ))
return false;
if ( class_length )
{
/* XXX: why isn't this parsed? */
;;
}
if ( name_length )
{
if(ps->io && !(nk->keyname = (char*)zcalloc(sizeof(char), name_length+1)))
return false;
if(!prs_uint8s("name", ps, depth, (uint8*)nk->keyname, name_length))
return false;
if(ps->io)
nk->keyname[name_length] = '\0';
}
end_off = ps->data_offset;
/* data_size must be divisible by 8 and large enough to hold
the original record */
data_size = ((start_off - end_off) & 0xfffffff8 );
/*if ( data_size > nk->rec_size )
DEBUG(10,("Encountered reused record (0x%x < 0x%x)\n", data_size, nk->rec_size));*/
if ( !ps->io )
nk->hbin->dirty = true;
return true;
}
static REGF_HBIN* read_hbin_block( REGF_FILE *file, off_t offset )
{
REGF_HBIN *hbin;
uint32 record_size, curr_off, block_size, header=0;
if ( !(hbin = (REGF_HBIN*)zalloc(sizeof(REGF_HBIN))) )
return NULL;
hbin->file_off = offset;
hbin->free_off = -1;
if ( read_block( file, &hbin->ps, offset, 0 ) == -1 )
return NULL;
if ( !prs_hbin_block( "hbin", &hbin->ps, 0, hbin ) )
return NULL;
/* this should be the same thing as hbin->block_size but just in case */
block_size = hbin->ps.buffer_size;
/* Find the available free space offset. Always at the end,
so walk the record list and stop when you get to the end.
The end is defined by a record header of 0xffffffff. The
previous 4 bytes contains the amount of free space remaining
in the hbin block. */
/* remember that the record_size is in the 4 bytes preceeding the record itself */
if ( !prs_set_offset( &hbin->ps, file->data_offset+HBIN_HDR_SIZE-sizeof(uint32) ) )
return false;
record_size = 0;
curr_off = hbin->ps.data_offset;
while ( header != 0xffffffff ) {
/* not done yet so reset the current offset to the
next record_size field */
curr_off = curr_off+record_size;
/* for some reason the record_size of the last record in
an hbin block can extend past the end of the block
even though the record fits within the remaining
space....aaarrrgggghhhhhh */
if ( curr_off >= block_size ) {
record_size = -1;
curr_off = -1;
break;
}
if ( !prs_set_offset( &hbin->ps, curr_off) )
return false;
if ( !prs_uint32( "rec_size", &hbin->ps, 0, &record_size ) )
return false;
if ( !prs_uint32( "header", &hbin->ps, 0, &header ) )
return false;
assert( record_size != 0 );
if ( record_size & 0x80000000 ) {
/* absolute_value(record_size) */
record_size = (record_size ^ 0xffffffff) + 1;
}
}
/* save the free space offset */
if ( header == 0xffffffff ) {
/* account for the fact that the curr_off is 4 bytes behind the actual
record header */
hbin->free_off = curr_off + sizeof(uint32);
hbin->free_size = record_size;
}
/*DEBUG(10,("read_hbin_block: free space offset == 0x%x\n", hbin->free_off));*/
if ( !prs_set_offset( &hbin->ps, file->data_offset+HBIN_HDR_SIZE ) )
return false;
return hbin;
}
/*******************************************************************
read a VK record which is contained in the HBIN block stored
in the prs_struct *ps.
*******************************************************************/
static bool hbin_prs_vk_records(const char *desc, REGF_HBIN *hbin,
int depth, REGF_NK_REC *nk, REGF_FILE *file)
{
int i;
uint32 record_size;
depth++;
/* check if we have anything to do first */
if(nk->num_values == 0)
return true;
if(hbin->ps.io)
{
if (!(nk->values = (REGF_VK_REC*)zcalloc(sizeof(REGF_VK_REC),
nk->num_values )))
return false;
}
/* convert the offset to something relative to this HBIN block */
if (!prs_set_offset(&hbin->ps,
nk->values_off
+ HBIN_HDR_SIZE
- hbin->first_hbin_off
- sizeof(uint32)))
{ return false; }
if ( !hbin->ps.io )
{
record_size = ( ( nk->num_values * sizeof(uint32) ) & 0xfffffff8 ) + 8;
record_size = (record_size - 1) ^ 0xFFFFFFFF;
}
if ( !prs_uint32( "record_size", &hbin->ps, depth, &record_size ) )
return false;
for ( i=0; i<nk->num_values; i++ )
{
if ( !prs_uint32( "vk_off", &hbin->ps, depth, &nk->values[i].rec_off ) )
return false;
}
for ( i=0; i<nk->num_values; i++ )
{
REGF_HBIN *sub_hbin = hbin;
uint32 new_offset;
if ( !hbin_contains_offset( hbin, nk->values[i].rec_off ) )
{
sub_hbin = lookup_hbin_block( file, nk->values[i].rec_off );
if ( !sub_hbin )
{
/*DEBUG(0,("hbin_prs_vk_records: Failed to find HBIN block containing offset [0x%x]\n",
nk->values[i].hbin_off));*/
return false;
}
}
new_offset = nk->values[i].rec_off
+ HBIN_HDR_SIZE
- sub_hbin->first_hbin_off;
if (!prs_set_offset(&sub_hbin->ps, new_offset))
return false;
if (!hbin_prs_vk_rec("vk_rec", sub_hbin, depth, &nk->values[i], file))
return false;
}
if ( !hbin->ps.io )
hbin->dirty = true;
return true;
}
/*******************************************************************
Stream a uint64_struct
********************************************************************/
BOOL prs_uint64(const char *name, prs_struct *ps, int depth, UINT64_S *data64)
{
return prs_uint32(name, ps, depth+1, &data64->low) &&
prs_uint32(name, ps, depth+1, &data64->high);
}
static BOOL net_io_user_info3(char *desc, NET_USER_INFO_3 *usr, prs_struct *ps, int depth)
{
int i;
if (usr == NULL)
return False;
prs_debug(ps, depth, desc, "lsa_io_lsa_user_info");
depth++;
if(!prs_align(ps))
return False;
if(!prs_uint32("ptr_user_info ", ps, depth, &usr->ptr_user_info))
return False;
if (usr->ptr_user_info == 0)
return True;
if(!smb_io_time("time", &usr->logon_time, ps, depth)) /* logon time */
return False;
if(!smb_io_time("time", &usr->logoff_time, ps, depth)) /* logoff time */
return False;
if(!smb_io_time("time", &usr->kickoff_time, ps, depth)) /* kickoff time */
return False;
if(!smb_io_time("time", &usr->pass_last_set_time, ps, depth)) /* password last set time */
return False;
if(!smb_io_time("time", &usr->pass_can_change_time , ps, depth)) /* password can change time */
return False;
if(!smb_io_time("time", &usr->pass_must_change_time, ps, depth)) /* password must change time */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_user_name, ps, depth)) /* username unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_full_name, ps, depth)) /* user's full name unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_logon_script, ps, depth)) /* logon script unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_profile_path, ps, depth)) /* profile path unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_home_dir, ps, depth)) /* home directory unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_dir_drive, ps, depth)) /* home directory drive unicode string header */
return False;
if(!prs_uint16("logon_count ", ps, depth, &usr->logon_count)) /* logon count */
return False;
if(!prs_uint16("bad_pw_count ", ps, depth, &usr->bad_pw_count)) /* bad password count */
return False;
if(!prs_uint32("user_id ", ps, depth, &usr->user_id)) /* User ID */
return False;
if(!prs_uint32("group_id ", ps, depth, &usr->group_id)) /* Group ID */
return False;
if(!prs_uint32("num_groups ", ps, depth, &usr->num_groups)) /* num groups */
return False;
if(!prs_uint32("buffer_groups ", ps, depth, &usr->buffer_groups)) /* undocumented buffer pointer to groups. */
return False;
if(!prs_uint32("user_flgs ", ps, depth, &usr->user_flgs)) /* user flags */
return False;
if(!prs_uint8s(False, "user_sess_key", ps, depth, usr->user_sess_key, 16)) /* unused user session key */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_logon_srv, ps, depth)) /* logon server unicode string header */
return False;
if(!smb_io_unihdr("unihdr", &usr->hdr_logon_dom, ps, depth)) /* logon domain unicode string header */
return False;
if(!prs_uint32("buffer_dom_id ", ps, depth, &usr->buffer_dom_id)) /* undocumented logon domain id pointer */
return False;
if(!prs_uint8s (False, "padding ", ps, depth, usr->padding, 40)) /* unused padding bytes? */
return False;
if(!prs_uint32("num_other_sids", ps, depth, &usr->num_other_sids)) /* 0 - num_sids */
return False;
if(!prs_uint32("buffer_other_sids", ps, depth, &usr->buffer_other_sids)) /* NULL - undocumented pointer to SIDs. */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_user_name, usr->hdr_user_name.buffer, ps, depth)) /* username unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_full_name, usr->hdr_full_name.buffer, ps, depth)) /* user's full name unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_logon_script, usr->hdr_logon_script.buffer, ps, depth)) /* logon script unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_profile_path, usr->hdr_profile_path.buffer, ps, depth)) /* profile path unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_home_dir, usr->hdr_home_dir.buffer, ps, depth)) /* home directory unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_dir_drive, usr->hdr_dir_drive.buffer, ps, depth)) /* home directory drive unicode string */
return False;
if(!prs_align(ps))
return False;
if(!prs_uint32("num_groups2 ", ps, depth, &usr->num_groups2)) /* num groups */
return False;
SMB_ASSERT_ARRAY(usr->gids, usr->num_groups2);
for (i = 0; i < usr->num_groups2; i++) {
if(!smb_io_gid("", &usr->gids[i], ps, depth)) /* group info */
return False;
}
if(!smb_io_unistr2("unistr2", &usr->uni_logon_srv, usr->hdr_logon_srv.buffer, ps, depth)) /* logon server unicode string */
return False;
if(!smb_io_unistr2("unistr2", &usr->uni_logon_dom, usr->hdr_logon_srv.buffer, ps, depth)) /* logon domain unicode string */
return False;
if(!smb_io_dom_sid2("", &usr->dom_sid, ps, depth)) /* domain SID */
return False;
SMB_ASSERT_ARRAY(usr->other_sids, usr->num_other_sids);
for (i = 0; i < usr->num_other_sids; i++) {
if(!smb_io_dom_sid2("", &usr->other_sids[i], ps, depth)) /* other domain SIDs */
return False;
}
return True;
}
BOOL dfs_io_dfs_info_ctr(const char *desc, DFS_INFO_CTR* ctr, uint32 num_entries, uint32 level, prs_struct* ps, int depth)
{
int i=0;
switch(level) {
case 1:
depth++;
/* should depend on whether marshalling or unmarshalling! */
if(UNMARSHALLING(ps)) {
ctr->dfs.info1 = (DFS_INFO_1 *)prs_alloc_mem(ps, sizeof(DFS_INFO_1)*num_entries);
if (!ctr->dfs.info1)
return False;
}
for(i=0;i<num_entries;i++) {
if(!prs_uint32("ptr_entrypath",ps, depth, &ctr->dfs.info1[i].ptr_entrypath))
return False;
}
for(i=0;i<num_entries;i++) {
if(!smb_io_unistr2("", &ctr->dfs.info1[i].entrypath, ctr->dfs.info1[i].ptr_entrypath, ps, depth))
return False;
if(!prs_align(ps))
return False;
}
depth--;
break;
case 2:
depth++;
if(UNMARSHALLING(ps)) {
ctr->dfs.info2 = (DFS_INFO_2 *)prs_alloc_mem(ps, num_entries*sizeof(DFS_INFO_2));
if (!ctr->dfs.info2)
return False;
}
for(i=0;i<num_entries;i++) {
if(!prs_uint32("ptr_entrypath", ps, depth, &ctr->dfs.info2[i].ptr_entrypath))
return False;
if(!prs_uint32("ptr_comment", ps, depth, &ctr->dfs.info2[i].ptr_comment))
return False;
if(!prs_uint32("state", ps, depth, &ctr->dfs.info2[i].state))
return False;
if(!prs_uint32("num_storages", ps, depth, &ctr->dfs.info2[i].num_storages))
return False;
}
for(i=0;i<num_entries;i++) {
if(!smb_io_unistr2("", &ctr->dfs.info2[i].entrypath, ctr->dfs.info2[i].ptr_entrypath, ps, depth))
return False;
if(!prs_align(ps))
return False;
if(!smb_io_unistr2("",&ctr->dfs.info2[i].comment, ctr->dfs.info2[i].ptr_comment, ps, depth))
return False;
if(!prs_align(ps))
return False;
}
depth--;
break;
case 3:
depth++;
if(UNMARSHALLING(ps)) {
ctr->dfs.info3 = (DFS_INFO_3 *)prs_alloc_mem(ps, num_entries*sizeof(DFS_INFO_3));
if (!ctr->dfs.info3)
return False;
}
for(i=0;i<num_entries;i++) {
if(!prs_uint32("ptr_entrypath", ps, depth, &ctr->dfs.info3[i].ptr_entrypath))
return False;
if(!prs_uint32("ptr_comment", ps, depth, &ctr->dfs.info3[i].ptr_comment))
return False;
if(!prs_uint32("state", ps, depth, &ctr->dfs.info3[i].state))
return False;
if(!prs_uint32("num_storages", ps, depth, &ctr->dfs.info3[i].num_storages))
return False;
if(!prs_uint32("ptr_storages", ps, depth, &ctr->dfs.info3[i].ptr_storages))
return False;
}
for(i=0;i<num_entries;i++) {
if(!smb_io_unistr2("", &ctr->dfs.info3[i].entrypath, ctr->dfs.info3[i].ptr_entrypath, ps, depth))
return False;
if(!prs_align(ps))
return False;
if(!smb_io_unistr2("", &ctr->dfs.info3[i].comment, ctr->dfs.info3[i].ptr_comment, ps, depth))
return False;
if(!prs_align(ps))
return False;
if(!prs_uint32("num_storage_infos", ps, depth, &ctr->dfs.info3[i].num_storage_infos))
return False;
if(!dfs_io_dfs_storage_info("storage_info", &ctr->dfs.info3[i], ps, depth))
return False;
}
}
return True;
}
/** Structure of response seems to be:
DWORD num_bytes_in_resp -- MUST be the same as q_u->max_read_size
for i=0..n
EVENTLOGRECORD record
DWORD sent_size -- sum of EVENTLOGRECORD lengths if records returned, 0 otherwise
DWORD real_size -- 0 if records returned, otherwise length of next record to be returned
WERROR status */
BOOL eventlog_io_r_read_eventlog(const char *desc,
EVENTLOG_Q_READ_EVENTLOG *q_u,
EVENTLOG_R_READ_EVENTLOG *r_u,
prs_struct *ps,
int depth)
{
Eventlog_entry *entry;
uint32 record_written = 0;
uint32 record_total = 0;
if(r_u == NULL)
return False;
prs_debug(ps, depth, desc, "eventlog_io_r_read_eventlog");
depth++;
/* First, see if we've read more logs than we can output */
if(r_u->num_bytes_in_resp > q_u->max_read_size) {
entry = r_u->entry;
/* remove the size of the last entry from the list */
while(entry->next != NULL)
entry = entry->next;
r_u->num_bytes_in_resp -= entry->record.length;
/* do not output the last log entry */
r_u->num_records--;
}
entry = r_u->entry;
record_total = r_u->num_records;
if(r_u->num_bytes_in_resp != 0)
r_u->sent_size = r_u->num_bytes_in_resp;
else
r_u->real_size = r_u->bytes_in_next_record;
if(!(prs_align(ps)))
return False;
if(!(prs_uint32("bytes in resp", ps, depth, &(q_u->max_read_size))))
return False;
while(entry != NULL && record_written < record_total)
{
DEBUG(11, ("eventlog_io_r_read_eventlog: writing record [%d] out of [%d].\n", record_written, record_total));
/* Encode the actual eventlog record record */
if(!(prs_uint32("length", ps, depth, &(entry->record.length))))
return False;
if(!(prs_uint32("reserved", ps, depth, &(entry->record.reserved1))))
return False;
if(!(prs_uint32("record number", ps, depth, &(entry->record.record_number))))
return False;
if(!(prs_uint32("time generated", ps, depth, &(entry->record.time_generated))))
return False;
if(!(prs_uint32("time written", ps, depth, &(entry->record.time_written))))
return False;
if(!(prs_uint32("event id", ps, depth, &(entry->record.event_id))))
return False;
if(!(prs_uint16("event type", ps, depth, &(entry->record.event_type))))
return False;
if(!(prs_uint16("num strings", ps, depth, &(entry->record.num_strings))))
return False;
if(!(prs_uint16("event category", ps, depth, &(entry->record.event_category))))
return False;
if(!(prs_uint16("reserved2", ps, depth, &(entry->record.reserved2))))
return False;
if(!(prs_uint32("closing record", ps, depth, &(entry->record.closing_record_number))))
return False;
if(!(prs_uint32("string offset", ps, depth, &(entry->record.string_offset))))
return False;
if(!(prs_uint32("user sid length", ps, depth, &(entry->record.user_sid_length))))
return False;
if(!(prs_uint32("user sid offset", ps, depth, &(entry->record.user_sid_offset))))
return False;
if(!(prs_uint32("data length", ps, depth, &(entry->record.data_length))))
return False;
if(!(prs_uint32("data offset", ps, depth, &(entry->record.data_offset))))
return False;
if(!(prs_align(ps)))
return False;
/* Now encoding data */
if(!(prs_uint8s(False, "buffer", ps, depth, entry->data,
entry->record.length - sizeof(Eventlog_record) - sizeof(entry->record.length))))
{
return False;
}
if(!(prs_align(ps)))
return False;
if(!(prs_uint32("length 2", ps, depth, &(entry->record.length))))
return False;
entry = entry->next;
record_written++;
} /* end of encoding EVENTLOGRECORD */
/* Now pad with whitespace until the end of the response buffer */
if (q_u->max_read_size - r_u->num_bytes_in_resp) {
if (!r_u->end_of_entries_padding) {
return False;
}
if(!(prs_uint8s(False, "end of entries padding", ps,
depth, r_u->end_of_entries_padding,
(q_u->max_read_size - r_u->num_bytes_in_resp)))) {
free(r_u->end_of_entries_padding);
return False;
}
free(r_u->end_of_entries_padding);
}
/* We had better be DWORD aligned here */
if(!(prs_uint32("sent size", ps, depth, &(r_u->sent_size))))
return False;
if(!(prs_uint32("real size", ps, depth, &(r_u->real_size))))
return False;
if(!(prs_ntstatus("status code", ps, depth, &r_u->status)))
return False;
return True;
}
