private void do_fsid_sync_internal(int id)
{
lock (REDDY.FSIDList[id])
{
RedFS_Inode inowip = REDDY.FSIDList[id].get_inode_file_wip("GC1");
REDDY.ptrRedFS.sync(inowip);
REDDY.ptrRedFS.flush_cache(inowip, true);
REDDY.FSIDList[id].sync_internal();
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[id]);
}
DEFS.DEBUG("FSIDSYNC", " Calling sync");
REDDY.FSIDList[id].rootdir.sync();
DEFS.DEBUG("FSIDSYNC", "Finished sync, calling gc");
REDDY.FSIDList[id].rootdir.gc();
DEFS.DEBUG("FSIDSYNC", " Finished gc");
if (m_shutdown == true)
{
((CInode)REDDY.FSIDList[id].rootdir).unmount(true);
}
lock (REDDY.FSIDList[id])
{
RedFS_Inode inowip = REDDY.FSIDList[id].get_inode_file_wip("GC2");
REDDY.ptrRedFS.sync(inowip);
REDDY.ptrRedFS.flush_cache(inowip, true);
REDDY.FSIDList[id].sync_internal();
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[id]);
}
}
private void do_inode_refupdate_work(UpdateReqI cu, int childcnt)
{
byte[] buffer = new byte[4096];
lock (tfile0)
{
tfile0.Seek((long)cu.tfbn * 4096, SeekOrigin.Begin);
tfile0.Read(tmpiodatatfileR, 0, 4096);
CONFIG.Decrypt_Read_WRBuf(tmpiodatatfileR, buffer);
//DEFS.DEBUG("ENCY", "READ inoLo : " + OPS.ChecksumPageWRLoader(buffer));
DEFS.DEBUG("CNTR", "do_inode_refupdate_work (" + cu.tfbn + ") childcnt =" + childcnt);
}
/*
* Parent of inowip is always -1.
*/
RedFS_Inode wip = new RedFS_Inode(WIP_TYPE.REGULAR_FILE, 0, -1);
byte[] buf = new byte[128];
for (int i = 0; i < 32; i++)
{
for (int t = 0; t < 128; t++)
{
buf[t] = buffer[i * 128 + t];
}
wip.parse_bytes(buf);
BLK_TYPE type = BLK_TYPE.IGNORE;
int numidx = 0;
switch (wip.get_inode_level())
{
case 0:
type = BLK_TYPE.REGULAR_FILE_L0;
numidx = OPS.NUML0(wip.get_filesize());
break;
case 1:
type = BLK_TYPE.REGULAR_FILE_L1;
numidx = OPS.NUML1(wip.get_filesize());
break;
case 2:
type = BLK_TYPE.REGULAR_FILE_L2;
numidx = OPS.NUML2(wip.get_filesize());
break;
}
for (int x = 0; x < numidx; x++)
{
int dbn = wip.get_child_dbn(x);
//if (dbn <= 0) continue;
DEFS.DEBUGCLR("^^^^^", "wip[" + x + "] " + dbn + "," + wip.get_wiptype() + "," + childcnt + " fsize = " + wip.get_filesize());
DEFS.DEBUGCLR("@@@", wip.get_string_rep2());
apply_update_internal(dbn, type, childcnt, cu.optype, true);
}
}
OPS.dump_inoL0_wips(buffer);
}
public void sync()
{
lock (this)
{
if (_mywip != null)
{
lock (REDDY.FSIDList[m_associated_fsid])
{
RedFS_Inode inowip = REDDY.FSIDList[m_associated_fsid].get_inode_file_wip("GC");
DEFS.DEBUG("SYNC", "CFile (" + m_inode + ") -mywip.size = " + _mywip.get_filesize());
REDDY.ptrRedFS.sync(_mywip);
OPS.Checkin_Wip(inowip, _mywip, m_inode);
_mywip.is_dirty = false;
REDDY.FSIDList[m_associated_fsid].sync_internal();
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[m_associated_fsid]);
}
}
else
{
DEFS.DEBUG("FSID", "inserted/unsyncd : " + m_name);
}
}
}
private void CheckSumBuf(RedFS_Inode wip, Red_Buffer wb)
{
lock (fpcache_buf)
{
if (fpcache_cnt == 1024)
{
fpcache_cnt = 0;
clogfile.Write(fpcache_buf, 0, fpcache_buf.Length);
clogfile.Flush();
}
if (wb.get_level() == 0 && wip.get_wiptype() == WIP_TYPE.REGULAR_FILE)
{
fingerprintCLOG fpt = (fingerprintCLOG)fptemp;
fpt.fsid = wip.get_filefsid();
fpt.inode = wip.get_ino();
fpt.fbn = (int)wb.get_start_fbn();
fpt.dbn = wb.get_ondisk_dbn();
fpt.cnt = (int)clogfile.Position;
byte[] hash = md5.ComputeHash(wb.buf_to_data());
for (int i = 0; i < 16; i++)
{
fpt.fp[i] = hash[i];
}
fptemp.get_bytes(fpcache_buf, fpcache_cnt * fptemp.get_size());
fpcache_cnt++;
}
}
}
/*
* public static bool HasChildIncore(RedFS_Inode wip, int level, long sfbn)
* {
* if (level == 1)
* {
* RedBufL1 wbl1 = (RedBufL1)wip.FindOrInsertOrRemoveBuf(FIR_OPTYPE.FIND, 1, sfbn, null, null);
* if (wbl1.get_numchildptrs_incore() != 0) return true;
* else return false;
* }
* else if (level == 2)
* {
* RedBufL2 wbl2 = (RedBufL2)wip.FindOrInsertOrRemoveBuf(FIR_OPTYPE.FIND, 2, sfbn, null, null);
* if (wbl2.get_numchildptrs_incore() != 0) return true;
* else return false;
* }
* else
* {
* DEFS.ASSERT(false, "Dont pass wrong arguments");
* return false;
* }
* }
*/
public static bool HasChildIncoreOld(RedFS_Inode wip, int level, long sfbn)
{
DEFS.ASSERT(level > 0, "Incorrect level to HasChildIncore()");
if (level == 1)
{
int count0 = wip.L0list.Count;
int span1 = 1024;
for (int i = 0; i < count0; i++)
{
RedBufL0 wbl0 = (RedBufL0)wip.L0list.ElementAt(i);
if (wbl0.m_start_fbn >= sfbn && wbl0.m_start_fbn < (sfbn + span1))
{
return(true);
}
}
return(false);
}
else
{
int count1 = wip.L1list.Count;
int span2 = 1024 * 1024;
for (int i = 0; i < count1; i++)
{
RedBufL1 wbl1 = (RedBufL1)wip.L1list.ElementAt(i);
if (wbl1.m_start_fbn >= sfbn && wbl1.m_start_fbn < (sfbn + span2))
{
return(true);
}
}
return(false);
}
}
private void CheckSumBuf(RedFS_Inode wip, int fbn, int dbn, byte[] buffer, int offset)
{
lock (fpcache_buf)
{
if (fpcache_cnt == 1024)
{
fpcache_cnt = 0;
clogfile.Write(fpcache_buf, 0, fpcache_buf.Length);
clogfile.Flush();
}
if (wip.get_wiptype() == WIP_TYPE.REGULAR_FILE)
{
fingerprintCLOG fpt = (fingerprintCLOG)fptemp;
fpt.fsid = wip.get_filefsid();
fpt.inode = wip.get_ino();
fpt.fbn = fbn;
fpt.dbn = dbn;
fpt.cnt = (int)clogfile.Position;
byte[] hash = md5.ComputeHash(buffer, offset, 4096);
for (int i = 0; i < 16; i++)
{
fpt.fp[i] = hash[i];
}
fptemp.get_bytes(fpcache_buf, fpcache_cnt * fptemp.get_size());
fpcache_cnt++;
}
}
}
/*
* public static Red_Buffer get_buf2(string who, RedFS_Inode wip, int level, int some_fbn, bool isquery)
* {
* DEFS.DEBUG("getbuf", "-> " + who + "," + wip.m_ino + "," + level + "," + some_fbn + "," + isquery);
* Red_Buffer retbuf = wip.FindOrInsertOrRemoveBuf(FIR_OPTYPE.FIND, level, some_fbn, null, null);
* if (!isquery)
* {
* DEFS.ASSERT(retbuf != null, "newer get_buf2 has failed");
* }
* return retbuf;
* }
*/
/*
* This can never return null, the caller *must* know that this buffer
* is incore before calling. Must be called with a lock held on wip. But in case
* is query is set true, then the caller is not sure if the buf is incore, in that
* case we can return null safely.
*/
public static Red_Buffer get_buf3(string who, RedFS_Inode wip, int level, int some_fbn, bool isquery)
{
List <Red_Buffer> list = null;
switch (level)
{
case 0:
list = wip.L0list;
break;
case 1:
list = wip.L1list;
break;
case 2:
list = wip.L2list;
break;
}
DEFS.ASSERT(list != null, "List cannot be null in get_buf()");
int start_fbn = SomeFBNToStartFBN(level, some_fbn);
//some optimization, 10-12 mbps more.
if (level == 1)
{
if (wip._lasthitbuf != null && wip._lasthitbuf.get_start_fbn() == start_fbn)
{
return(wip._lasthitbuf);
}
}
for (int idx = 0; idx < (list.Count); idx++)
//for (int idx = (list.Count - 1); idx >= 0; idx--)
{
int idx2 = (level == 0) ? (list.Count - idx - 1) : idx;
Red_Buffer wb = (Red_Buffer)list.ElementAt(idx2);
if (wb.get_start_fbn() == start_fbn)
{
//if (wb.get_level() > 0 && list.Count > 2) //like splay tree.
//{
// list.RemoveAt(idx2);
// list.Insert(0, wb);
//}
if (level == 1)
{
wip._lasthitbuf = wb; //good opti - gives 10-12mbps more.
}
return(wb);
}
}
DEFS.ASSERT(isquery, "who = " + who + ", get_buf() failed " + wip.get_ino() + "," + level + "," + some_fbn);
return(null);
}
public static bool CheckinZerodWipData(RedFS_Inode inowip, int m_ino)
{
long fileoffset = m_ino * 128;
byte[] data = new byte[128];
lock (inowip)
{
REDDY.ptrRedFS.redfs_write(inowip, fileoffset, data, 0, 128);
inowip.is_dirty = true;
}
return(true);
}
public RedFS_Inode get_inodemap_wip()
{
RedFS_Inode inowip = new RedFS_Inode(WIP_TYPE.PUBLIC_INODE_MAP, 0, -1);
byte[] buf = new byte[128];
for (int i = 0; i < 128; i++)
{
buf[i] = data[CFSvalueoffsets.fsid_inomap_data + i];
}
inowip.parse_bytes(buf);
return(inowip);
}
public bool set_inodemap_wip(RedFS_Inode wip)
{
byte[] buf = new byte[128];
wip.get_bytes(buf);
for (int i = 0; i < 128; i++)
{
data[CFSvalueoffsets.fsid_inomap_data + i] = buf[i];
}
set_dirty(true);
return(true);
}
private void init_internal2()
{
RedFS_Inode w2 = get_inodemap_wip();
for (int i = 0; i < 16; i++)
{
w2.set_child_dbn(i, DBN.INVALID);
}
w2.set_filesize(0);
set_inodemap_wip(w2);
set_logical_data(0);
set_dirty(true);
}
void CInode.unmount(bool inshutdown)
{
long curr = DateTime.Now.ToUniversalTime().Ticks;
int seconds = (int)((curr - creation_time) / 10000000);
DEFS.DEBUG("UNMOUNT", "CFile (" + m_inode + ") umnount : " + m_name +
" inshutdown flag = " + inshutdown + " is _mywip null = " + (_mywip == null) +
" secs = " + seconds);
if (inshutdown == false && timeoutcheck() == false && m_state == FILE_STATE.FILE_IN_DOKAN_IO)
{
return;
}
/*
* We cannot unmount a dirty wip directly, it must first be cleaned, so we
* dont do this here. The next sync iteration will clean the wip, and then
* we are good to unmount. If we are being shutdown, then we sync() here itself.
*/
if ((inshutdown == false) && ((_mywip == null)))// || _mywip.is_dirty == false))
{
DEFS.ASSERT(m_state != FILE_STATE.FILE_IN_DOKAN_IO, "Cannot be dokan io when _mywip = NULL");
return;
}
/*
* _mywip is not null and dirty, or we are shutting down.
*/
lock (this)
{
DEFS.ASSERT(m_state != FILE_STATE.FILE_ORPHANED, "We are in sync path can cannot have an orphaned file");
if (_mywip != null)
{
REDDY.ptrRedFS.sync(_mywip);
REDDY.ptrRedFS.flush_cache(_mywip, inshutdown);
}
lock (REDDY.FSIDList[m_associated_fsid])
{
if (_mywip != null)
{
RedFS_Inode inowipX = REDDY.FSIDList[m_associated_fsid].get_inode_file_wip("Umount file iwp:" + m_name);
OPS.Checkin_Wip(inowipX, _mywip, m_inode);
DEFS.ASSERT(m_state != FILE_STATE.FILE_DELETED, "Wrong state detected222!");
REDDY.FSIDList[m_associated_fsid].sync_internal();
REDDY.FSIDList[m_associated_fsid].set_dirty(true);
_mywip = null;
}
m_state = FILE_STATE.FILE_UNMOUNTED;
}
}
}
/*
* There is no need for locks for sync (shared lock) and unmount (exclusive lock).
*/
public void unmount(int fsid)
{
REDDY.FSIDList[fsid].rootdir.sync();
((CInode)REDDY.FSIDList[fsid].rootdir).unmount(true);
lock (REDDY.FSIDList[fsid])
{
RedFS_Inode inowip = REDDY.FSIDList[fsid].get_inode_file_wip("GC");
REDDY.ptrRedFS.sync(inowip);
REDDY.ptrRedFS.flush_cache(inowip, true);
REDDY.FSIDList[fsid].sync_internal();
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[fsid]);
}
}
public static bool Checkin_Wip(RedFS_Inode inowip, RedFS_Inode mywip, int m_ino)
{
DEFS.ASSERT(m_ino == mywip.get_ino(), "Inode numbers dont match, can lead to corruption " + m_ino + "," + mywip.get_ino());
long fileoffset = m_ino * 128;
lock (inowip)
{
REDDY.ptrRedFS.redfs_write(inowip, fileoffset, mywip.data, 0, 128);
DEFS.DEBUG("OPS", "CheckIn wip " + mywip.get_ino() + " size = " + mywip.get_filesize());
inowip.is_dirty = true;
}
DEFS.DEBUG("CI_WIP", mywip.get_string_rep2());
return(true);
}
public RedFS_Inode get_inode_file_wip(string requester)
{
if (_ninowip == null)
{
_ninowip = new RedFS_Inode(WIP_TYPE.PUBLIC_INODE_FILE, 0, -1);
for (int i = 0; i < 128; i++)
{
_ninowip.data[i] = data[CFSvalueoffsets.fsid_inofile_data + i];
}
_ninowip.set_wiptype(WIP_TYPE.PUBLIC_INODE_FILE);
_ninowip.setfilefsid_on_dirty(m_dbn);
}
DEFS.DEBUG("FSID", "Giving a inowip to " + requester);
return(_ninowip);
}
/*
* The below functions will be used for dedupe/user command prompt etc.
*/
private int LoadWip_FindPINO(int fsid, int ino, ref WIP_TYPE type)
{
lock (REDDY.FSIDList[fsid])
{
RedFS_Inode inowip = REDDY.FSIDList[fsid].get_inode_file_wip("Loadinode");
lock (inowip)
{
RedFS_Inode mywip = new RedFS_Inode(WIP_TYPE.UNDEFINED, ino, -1);
bool ret = OPS.Checkout_Wip2(inowip, mywip, ino);
REDDY.FSIDList[fsid].sync_internal();
type = mywip.get_wiptype();
//DEFS.DEBUG("LdIno", "Loaded ino= " + ino + "wip from disk, type = " + type);
//DEFS.DEBUG("LdIno", mywip.get_string_rep2());
return((ret) ? mywip.get_parent_ino() : -1);
}
}
}
public static void dump_inoL0_wips(byte[] buffer)
{
byte[] buf = new byte[128];
RedFS_Inode wip = new RedFS_Inode(WIP_TYPE.REGULAR_FILE, 0, 0);
for (int i = 0; i < 32; i++)
{
for (int t = 0; t < 128; t++)
{
buf[t] = buffer[i * 128 + t];
}
wip.parse_bytes(buf);
if (wip.get_ino() != 0)
{
DEFS.DEBUG("->", wip.get_string_rep2());
}
}
}
public bool write(RedFS_Inode wip, Red_Buffer wb)
{
if (!initialized)
{
return(false);
}
total_disk_writes++;
lock (dfile)
{
//DEFS.DEBUG("RAID", "Writing dbn : " + wb.get_ondisk_dbn() + " level : " + wb.get_level());
dfile.Seek((long)wb.get_ondisk_dbn() * 4096, SeekOrigin.Begin);
dfile.Write(wb.buf_to_data(), 0, 4096);
dfile.Flush();
wb.set_dirty(false);
CheckSumBuf(wip, wb);
}
return(true);
}
public bool write(RedFS_Inode wip, int fbn, int dbn, byte[] buffer, int offset)
{
if (!initialized)
{
return(false);
}
total_disk_writes++;
lock (dfile)
{
dfile.Seek((long)dbn * 4096, SeekOrigin.Begin);
dfile.Write(buffer, offset, 4096);
dfile.Flush();
//CheckSumBuf(wip, wb);
CheckSumBuf(wip, fbn, dbn, buffer, offset);
//DEFS.DEBUG("FASTWRITE", "dbn, bufoffset = " + dbn + "," + offset);
}
return(true);
}
/*
* Give a fsid, it looks into the iMapWip and gets a free bit. The fsid block has the
* largest inode number that is currently used, and the iMapWip itself. I'm not using anylocks
* for this wip since this operation will never be concurrent. All FS modification code that
* may use this path already would have a lock on the rootdir. Ex duping, deleting, inserting etc.
*
* XXX: Note that we are never freeing the inode bit once set!. So basically this is a dummy function.
* We still work because we can afford to wait for 500M inodes to allocated before we do a wrap around!!.
*/
private int find_free_ino_bit(int fsid)
{
int max_fbns = 16384;
int curr_max_inode = REDDY.FSIDList[fsid].get_start_inonumber();
byte[] buffer = new byte[4096];
RedFS_Inode iMapWip = REDDY.FSIDList[fsid].get_inodemap_wip();
int fbn = OPS.OffsetToFBN(curr_max_inode / 8);
for (int cfbn = fbn; cfbn < max_fbns; cfbn++)
{
OPS.BZERO(buffer);
REDDY.ptrRedFS.redfs_read(iMapWip, (cfbn * 4096), buffer, 0, 4096);
int startsearchoffset = ((cfbn == fbn) ? (curr_max_inode / 8) : 0) % 4096;
int free_bit = get_free_bitoffset(startsearchoffset, buffer);
if (free_bit != -1)
{
int free_inode = ((cfbn * (4096 * 8)) + free_bit);
REDDY.ptrRedFS.redfs_write(iMapWip, (cfbn * 4096), buffer, 0, 4096);
REDDY.ptrRedFS.sync(iMapWip);
REDDY.FSIDList[fsid].set_inodemap_wip(iMapWip);
REDDY.ptrRedFS.flush_cache(iMapWip, true);
REDDY.FSIDList[fsid].set_start_inonumber(free_inode + 1);
DEFS.DEBUG("IFSDMux", "Found free ino = " + free_inode + " so setting currmaxino = " + curr_max_inode + " for fsid = " + fsid);
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[fsid]);
return(free_inode);
}
}
REDDY.FSIDList[fsid].set_start_inonumber(64);
REDDY.ptrRedFS.redfs_commit_fsid(REDDY.FSIDList[fsid]); //do we need this regularly?
DEFS.DEBUG("FSID", "XXXXX VERY RARE EVENT XXXX INODE WRAP AROUND XXXX");
return(find_free_ino_bit(fsid));
}
public void remove_ondisk_data2()
{
open_file(false);
touch();
if (m_state == FILE_STATE.FILE_DELETED)
{
return;
}
m_state = FILE_STATE.FILE_DELETED;
DEFS.ASSERT(_mywip != null, "Cannot be null in remove() after calling open()");
lock (this)
{
lock (REDDY.FSIDList[m_associated_fsid])
{
DEFS.ASSERT(_mywip != null, "Unmount couldnt have worked on this");
RedFS_Inode inowip = REDDY.FSIDList[m_associated_fsid].get_inode_file_wip("DF:" + m_name);
//REDDY.ptrRedFS.sync(_mywip);
REDDY.ptrRedFS.flush_cache(_mywip, false);
REDDY.ptrRedFS.redfs_delete_wip(m_associated_fsid, _mywip, true);
DEFS.ASSERT(_mywip.get_filesize() == 0, "After delete, all the wip contents must be cleared off");
for (int i = 0; i < 16; i++)
{
DEFS.ASSERT(_mywip.get_child_dbn(i) == DBN.INVALID, "dbns are not set after delete wip " +
i + " " + _mywip.get_child_dbn(i));
}
OPS.CheckinZerodWipData(inowip, m_inode);
REDDY.FSIDList[m_associated_fsid].sync_internal();
_mywip = null;
}
}
DEFS.DEBUG("IFSD", "<<<< DELETED FILE >>>> " + m_name);
}
public static bool Checkout_Wip2(RedFS_Inode inowip, RedFS_Inode mywip, int m_ino)
{
WIP_TYPE oldtype = mywip.get_wiptype();
for (int i = 0; i < 16; i++)
{
DEFS.ASSERT(mywip.get_child_dbn(i) == DBN.INVALID, "Wip cannot be valid during checkout, " +
i + " value = " + mywip.get_child_dbn(i));
}
long fileoffset = m_ino * 128;
lock (inowip)
{
REDDY.ptrRedFS.redfs_read(inowip, fileoffset, mywip.data, 0, 128);
if (oldtype != WIP_TYPE.UNDEFINED)
{
mywip.set_wiptype(oldtype);
}
}
DEFS.DEBUG("CO_WIP", mywip.get_string_rep2());
return(mywip.verify_inode_number());
}
public bool read(RedFS_Inode wip, int dbn, byte[] buffer, int offset)
{
if (!initialized)
{
return(false);
}
total_disk_reads++;
if (dbn == 0)
{
Array.Clear(buffer, offset, 4096);
return(true);
}
lock (dfile)
{
dfile.Seek((long)dbn * 4096, SeekOrigin.Begin);
dfile.Read(buffer, offset, 4096);
dfile.Flush();
}
return(true);
}
/*
* We dont expect a write to come before opening because, cdirectory would
* call a open_file() before inserting into the DIR CACHE. We shouldnt call
* this with cfile-lock held.
*/
public bool open_file(bool justcreated)
{
if (m_state == FILE_STATE.FILE_DELETED)
{
return(false);
}
else if (m_state == FILE_STATE.FILE_IN_DOKAN_IO)
{
DEFS.ASSERT(_mywip != null, "My wip cannot be null when dokan_io flag is set in open_file");
return(true);
}
touch();
if (_mywip == null)
{
lock (this)
{
if (_mywip != null)
{
/*
* It could be the case that someone already opend it, maybe previous call
* that was locked in open_file(), just bail out.
*/
DEFS.ASSERT(m_state != FILE_STATE.FILE_IN_DOKAN_IO, "Suddendly cannot be in dokan io when it was just null");
return(true);
}
lock (REDDY.FSIDList[m_associated_fsid])
{
_mywip = new RedFS_Inode(WIP_TYPE.REGULAR_FILE, m_inode, m_parent_inode);
long oldsize = _mywip.get_filesize();
RedFS_Inode inowip = REDDY.FSIDList[m_associated_fsid].get_inode_file_wip("OF:" + m_name);
DEFS.DEBUG("F(_mywip)", "Loaded ino= " + m_inode + "wip from disk, size = " + _mywip.get_filesize());
bool ret = OPS.Checkout_Wip2(inowip, _mywip, m_inode);
if (ret)
{
DEFS.DEBUG("FILE", "Loaded ino= " + m_inode + "wip from disk, size = " + _mywip.get_filesize());
}
else
{
DEFS.DEBUG("FILE", "Loaded ino = " + m_inode + " (new) size = " + _mywip.get_filesize());
_mywip.set_ino(m_parent_inode, m_inode);
}
DEFS.ASSERT(m_size == _mywip.get_filesize(), "File size should match, irrespecitive of weather its " +
" from disk, (=0) then, or inserted from an existing dir load, >= 0 in that case, msize:" + m_size +
" _mywip.size:" + _mywip.get_filesize() + " fname =" + m_name + " ino=" + m_inode + " beforeread size = " +
oldsize + " contents : " + _mywip.get_string_rep2() + " ret = " + ret);
if (justcreated)
{
DEFS.ASSERT(ret == false, "This should be a new file " + _mywip.get_filesize() + " fname =" + m_name +
" ino=" + m_inode + " beforeread size = " + oldsize + " contents : " + _mywip.get_string_rep2());
_mywip.setfilefsid_on_dirty(m_associated_fsid);
_mywip.is_dirty = true; //this must make it to disk.
}
REDDY.FSIDList[m_associated_fsid].sync_internal();
m_state = FILE_STATE.FILE_DEFAULT;
}
}
}
return(true);
}
public static long ComputeNextStartFbn(RedFS_Inode wip)
{
int cnt = NUML0(wip.get_filesize());
return((long)cnt * 4096);
}
