static inline struct buf *read_mbr(int root)
{
if(root>MAXDEV) return NULL;
int rv;
int unit = disks[root].unit;
struct buf *bp = getnewbuf();
DEBUG8("rd%d: read mbr from device %d\n",root,unit);
rv = disks[root].read(unit,0,bp->b_addr,512);
if(rv==0)
{
DEBUG8("rd%d: mbr read FAIL\n",root);
brelse(buf);
return NULL;
}
DEBUG8("rd%d: mbr read OK\n",root);
return bp;
}
int
SMSTPDUContainer::decodeHexMessage(char* hexData)
{
DEBUG1(cerr << "hexData = " << hexData << endl);
int length = strlen(hexData);
int size = 0;
for(int i=0; i < length; i+=2 ) {
// Put two of the hex characters in a string
char hexChars[3] = { hexData[i], hexData[i+1], '\0'};
DEBUG8(cerr << "hexChars=" << hexChars << endl);
unsigned int value = 0;
sscanf(hexChars, "%x", &value);
*pnext++ = (uint8)value;
size++;
}
reset();
// Now it's time to decode the real message and set
// the member variables accordingly.
int position = 0;
if ( 0 ) {
// Skip SMSC-address
if ( data[position] != 0 )
position += data[position] + 1;
}
strcpy(m_serviceCenter, "");
// Flags ( I think they are always == 4 )
int flags = data[position++];
int addressLength = data[position++];
// Skip addresstype
position++;
char* senderAddress = new char[addressLength+1];
unpackAddress(senderAddress, data, position, addressLength);
strcpy(m_recipientPhone, senderAddress);
delete [] senderAddress;
// Skip the address (the length is given in nibbles) + PID + DCS + timestamp
position += ((addressLength + 1) / 2) + 1 + 1 + 7;
int dataLength = data[position++];
m_payLoadSize = SMSUtil::getDecoded160x7(m_payLoad,
&data[position],
dataLength);
if ( ( flags & 0x40 ) == 0x40 ) {
DEBUG2(cout << "Skipping udh!!!!" << endl);
// Header indication set.
int udh_len = data[position++];
// Remove udh from payload
uint8 tempPay[256];
memcpy(tempPay, m_payLoad, m_payLoadSize);
int udh_offset = (( udh_len + 1 ) * 8) / 7 + 2;
m_payLoadSize -= udh_offset;
memcpy(m_payLoad, tempPay + udh_offset, m_payLoadSize);
}
return size;
}
static inline int init_device(int root,int flag)
{
int i;
int e;
if(root>MAXDEV) return ENODEV;
struct buf *bp;
struct mbr *mbr;
int unit = disks[root].unit;
e = disks[root].init(unit,flag);
if(e!=0)
return e;
DEBUG8("rd%d: about to read mbr\n",root);
bp = read_mbr(root);
if(!bp)
return ENXIO;
DEBUG8("rd%d: mbr read\n",root);
mbr = (struct mbr *)bp->b_addr;
DEBUG5("rd%d: partition types: %02X %02X %02X %02X\n",root,
mbr->partitions[0].type,
mbr->partitions[1].type,
mbr->partitions[2].type,
mbr->partitions[3].type
);
DEBUG8("rd%d: partition 1 start: %p length: %p\n",root,
mbr->partitions[0].lbastart, mbr->partitions[0].lbalength
);
DEBUG8("rd%d: partition 2 start: %p length: %p\n",root,
mbr->partitions[1].lbastart, mbr->partitions[1].lbalength
);
DEBUG8("rd%d: partition 3 start: %p length: %p\n",root,
mbr->partitions[2].lbastart, mbr->partitions[2].lbalength
);
DEBUG8("rd%d: partition 4 start: %p length: %p\n",root,
mbr->partitions[3].lbastart, mbr->partitions[3].lbalength
);
for(i=0; i<4; i++)
{
dflags[root].start[i] = mbr->partitions[i].lbastart>>1;
dflags[root].len[i] = mbr->partitions[i].lbalength>>1;
}
dflags[root].blocks = disks[root].size(unit);
brelse(bp);
return 0;
}
GLOBAL void UMF_garbage_collection
(
NumericType *Numeric,
WorkType *Work,
Int drnew, /* compact current front to drnew-by-dcnew */
Int dcnew,
Int do_Fcpos
)
{
/* ---------------------------------------------------------------------- */
/* local variables */
/* ---------------------------------------------------------------------- */
Int size, e, n_row, n_col, nrows, ncols, nrowsleft, ncolsleft, prevsize,
csize, size2, i2, j2, i, j, cdeg, rdeg, *E, row, col,
*Rows, *Cols, *Rows2, *Cols2, nel, e2, *Row_tuples, *Col_tuples,
*Row_degree, *Col_degree ;
Entry *C, *C1, *C3, *C2 ;
Unit *psrc, *pdest, *p, *pnext ;
Element *epsrc, *epdest ;
#ifndef NDEBUG
Int nmark ;
#endif
/* ---------------------------------------------------------------------- */
/* get parameters */
/* ---------------------------------------------------------------------- */
Col_degree = Numeric->Cperm ; /* for NON_PIVOTAL_COL macro */
Row_degree = Numeric->Rperm ; /* for NON_PIVOTAL_ROW macro */
Row_tuples = Numeric->Uip ;
Col_tuples = Numeric->Lip ;
E = Work->E ;
n_row = Work->n_row ;
n_col = Work->n_col ;
/* note that the tuple lengths (Col_tlen and Row_tlen) are updated, but */
/* the tuple lists themselves are stale and are about to be destroyed */
/* and recreated. Do not attempt to scan them until they are recreated. */
#ifndef NDEBUG
DEBUGm1 (("::::GARBAGE COLLECTION::::\n")) ;
UMF_dump_memory (Numeric) ;
#endif
Numeric->ngarbage++ ;
/* ---------------------------------------------------------------------- */
/* delete the tuple lists by marking the blocks as free */
/* ---------------------------------------------------------------------- */
/* do not modify Row_tlen and Col_tlen */
/* those are needed for UMF_build_tuples */
for (row = 0 ; row < n_row ; row++)
{
if (NON_PIVOTAL_ROW (row) && Row_tuples [row])
{
DEBUG2 (("row "ID" tuples "ID"\n", row, Row_tuples [row])) ;
p = Numeric->Memory + Row_tuples [row] - 1 ;
DEBUG2 (("Freeing tuple list row "ID", p-S "ID", size "ID"\n",
row, (Int) (p-Numeric->Memory), p->header.size)) ;
ASSERT (p->header.size > 0) ;
ASSERT (p >= Numeric->Memory + Numeric->itail) ;
ASSERT (p < Numeric->Memory + Numeric->size) ;
p->header.size = -p->header.size ;
Row_tuples [row] = 0 ;
}
}
for (col = 0 ; col < n_col ; col++)
{
if (NON_PIVOTAL_COL (col) && Col_tuples [col])
{
DEBUG2 (("col "ID" tuples "ID"\n", col, Col_tuples [col])) ;
p = Numeric->Memory + Col_tuples [col] - 1 ;
DEBUG2 (("Freeing tuple list col "ID", p-S "ID", size "ID"\n",
col, (Int) (p-Numeric->Memory), p->header.size)) ;
ASSERT (p->header.size > 0) ;
ASSERT (p >= Numeric->Memory + Numeric->itail) ;
ASSERT (p < Numeric->Memory + Numeric->size) ;
p->header.size = -p->header.size ;
Col_tuples [col] = 0 ;
}
}
/* ---------------------------------------------------------------------- */
/* mark the elements, and compress the name space */
/* ---------------------------------------------------------------------- */
nel = Work->nel ;
ASSERT (nel < Work->elen) ;
#ifndef NDEBUG
nmark = 0 ;
UMF_dump_current_front (Numeric, Work, FALSE) ;
DEBUGm1 (("E [0] "ID" \n", E [0])) ;
ASSERT (IMPLIES (E [0],
Work->Flublock == (Entry *) (Numeric->Memory + E [0]))) ;
ASSERT (IMPLIES (Work->Flublock,
Work->Flublock == (Entry *) (Numeric->Memory + E [0]))) ;
ASSERT ((E [0] != 0) == (Work->Flublock != (Entry *) NULL)) ;
#endif
e2 = 0 ;
for (e = 0 ; e <= nel ; e++) /* for all elements in order of creation */
{
if (E [e])
{
psrc = Numeric->Memory + E [e] ;
psrc-- ; /* get the header of this block */
if (e > 0)
{
e2++ ; /* do not renumber element zero */
}
ASSERT (psrc->header.size > 0) ;
psrc->header.size = e2 ; /* store the new name in the header */
#ifndef NDEBUG
nmark++ ;
#endif
DEBUG7 ((ID":: Mark e "ID" at psrc-S "ID", new e "ID"\n",
nmark, e, (Int) (psrc-Numeric->Memory), e2)) ;
E [e] = 0 ;
if (e == Work->prior_element)
{
Work->prior_element = e2 ;
}
}
}
/* all 1..e2 are now in use (element zero may or may not be in use) */
Work->nel = e2 ;
nel = Work->nel ;
#ifndef NDEBUG
for (e = 0 ; e < Work->elen ; e++)
{
ASSERT (!E [e]) ;
}
#endif
/* ---------------------------------------------------------------------- */
/* compress the elements */
/* ---------------------------------------------------------------------- */
/* point to tail marker block of size 1 + header */
psrc = Numeric->Memory + Numeric->size - 2 ;
pdest = psrc ;
prevsize = psrc->header.prevsize ;
DEBUG7 (("Starting the compression:\n")) ;
while (prevsize > 0)
{
/* ------------------------------------------------------------------ */
/* move up to the next element above the current header, and */
/* get the element name and size */
/* (if it is an element, the name will be positive) */
/* ------------------------------------------------------------------ */
size = prevsize ;
psrc -= (size + 1) ;
e = psrc->header.size ;
prevsize = psrc->header.prevsize ;
/* top block at tail has prevsize of 0 */
/* a free block will have a negative size, so skip it */
/* otherwise, if size >= 0, it holds the element name, not the size */
DEBUG8 (("psrc-S: "ID" prevsize: "ID" size: "ID,
(Int) (psrc-Numeric->Memory), prevsize, size)) ;
if (e == 0)
{
/* -------------------------------------------------------------- */
/* this is the current frontal matrix */
/* -------------------------------------------------------------- */
Entry *F1, *F2, *Fsrc, *Fdst ;
Int c, r, k, dr, dc, gap, gap1, gap2, nb ;
/* shift the frontal matrix down */
F1 = (Entry *) (psrc + 1) ;
/* get the size of the current front. r and c could be zero */
k = Work->fnpiv ;
dr = Work->fnr_curr ;
dc = Work->fnc_curr ;
r = Work->fnrows ;
c = Work->fncols ;
nb = Work->nb ;
ASSERT ((dr >= 0 && (dr % 2) == 1) || dr == 0) ;
ASSERT (drnew >= 0) ;
if (drnew % 2 == 0)
{
/* make sure leading frontal matrix dimension is always odd */
drnew++ ;
}
drnew = MIN (dr, drnew) ;
ASSERT ((drnew >= 0 && (drnew % 2) == 1) || drnew == 0) ;
pnext = pdest ;
#ifndef NDEBUG
DEBUGm2 (("move front: dr "ID" dc "ID" r "ID" drnew "ID" c "ID
" dcnew " ID" k "ID"\n", dr, dc, r, drnew, c, dcnew, k)) ;
DEBUG7 (("\n")) ;
DEBUG7 ((ID":: Move current frontal matrix from: psrc-S: "ID" \n",
nmark, (Int) (psrc-Numeric->Memory))) ;
nmark-- ;
ASSERT (E [e] == 0) ;
ASSERT (Work->Flublock == F1) ;
ASSERT (Work->Flblock == Work->Flublock + nb*nb) ;
ASSERT (Work->Fublock == Work->Flblock + dr*nb) ;
ASSERT (Work->Fcblock == Work->Fublock + nb*dc) ;
DEBUG7 (("C block: ")) ;
UMF_dump_dense (Work->Fcblock, dr, r, c) ;
DEBUG7 (("L block: ")) ;
UMF_dump_dense (Work->Flblock, dr, r, k);
DEBUG7 (("U' block: ")) ;
UMF_dump_dense (Work->Fublock, dc, c, k) ;
DEBUG7 (("LU block: ")) ;
UMF_dump_dense (Work->Flublock, nb, k, k) ;
ASSERT (r <= drnew && c <= dcnew && drnew <= dr && dcnew <= dc) ;
#endif
/* compact frontal matrix to drnew-by-dcnew before moving it */
/* do not compact the LU block (nb-by-nb) */
/* compact the columns of L (from dr-by-nb to drnew-by-nb) */
Fsrc = Work->Flblock ;
Fdst = Work->Flblock ;
ASSERT (Fdst == F1 + nb*nb) ;
gap1 = dr - r ;
gap2 = drnew - r ;
ASSERT (gap1 >= 0) ;
for (j = 0 ; j < k ; j++)
{
for (i = 0 ; i < r ; i++)
{
*Fdst++ = *Fsrc++ ;
}
Fsrc += gap1 ;
Fdst += gap2 ;
}
ASSERT (Fdst == F1 + nb*nb + drnew*k) ;
Fdst += drnew * (nb - k) ;
/* compact the rows of U (U' from dc-by-nb to dcnew-by-nb) */
Fsrc = Work->Fublock ;
ASSERT (Fdst == F1 + nb*nb + drnew*nb) ;
gap1 = dc - c ;
gap2 = dcnew - c ;
for (i = 0 ; i < k ; i++)
{
for (j = 0 ; j < c ; j++)
{
*Fdst++ = *Fsrc++ ;
}
Fsrc += gap1 ;
Fdst += gap2 ;
}
ASSERT (Fdst == F1 + nb*nb + drnew*nb + dcnew*k) ;
Fdst += dcnew * (nb - k) ;
/* compact the columns of C (from dr-by-dc to drnew-by-dcnew) */
Fsrc = Work->Fcblock ;
ASSERT (Fdst == F1 + nb*nb + drnew*nb + nb*dcnew) ;
gap1 = dr - r ;
gap2 = drnew - r ;
for (j = 0 ; j < c ; j++)
{
for (i = 0 ; i < r ; i++)
{
*Fdst++ = *Fsrc++ ;
}
Fsrc += gap1 ;
Fdst += gap2 ;
}
ASSERT (Fdst == F1 + nb*nb + drnew*nb + nb*dcnew + drnew*c) ;
/* recompute Fcpos, if necessary */
if (do_Fcpos)
{
Int *Fcols, *Fcpos ;
Fcols = Work->Fcols ;
Fcpos = Work->Fcpos ;
for (j = 0 ; j < c ; j++)
{
col = Fcols [j] ;
ASSERT (col >= 0 && col < Work->n_col) ;
ASSERT (Fcpos [col] == j * dr) ;
Fcpos [col] = j * drnew ;
}
#ifndef NDEBUG
{
Int cnt = 0 ;
for (j = 0 ; j < Work->n_col ; j++)
{
if (Fcpos [j] != EMPTY) cnt++ ;
}
DEBUGm2 (("Recompute Fcpos cnt "ID" c "ID"\n", cnt, c)) ;
ASSERT (cnt == c) ;
}
#endif
}
#ifndef NDEBUG
DEBUGm2 (("Compacted front, drnew "ID" dcnew "ID"\n", drnew, dcnew)) ;
DEBUG7 (("C block: ")) ;
UMF_dump_dense (F1 + nb*nb + drnew*nb + nb*dcnew, drnew, r, c) ;
DEBUG7 (("L block: ")) ;
UMF_dump_dense (F1 + nb*nb, drnew, r, k) ;
DEBUG7 (("U block: ")) ;
UMF_dump_dense (F1 + nb*nb + drnew*nb, nb, k, c) ;
DEBUG7 (("LU block: ")) ;
UMF_dump_dense (F1, nb, k, k) ;
#endif
/* Compacted dimensions of the new frontal matrix. */
Work->fnr_curr = drnew ;
Work->fnc_curr = dcnew ;
Work->fcurr_size = (drnew + nb) * (dcnew + nb) ;
size = UNITS (Entry, Work->fcurr_size) ;
/* make sure the object doesn't evaporate. The front can have
* zero size (Work->fcurr_size = 0), but the size of the memory
* block containing it cannot have zero size. */
size = MAX (1, size) ;
/* get the destination of frontal matrix */
pnext->header.prevsize = size ;
pdest -= (size + 1) ;
F2 = (Entry *) (pdest + 1) ;
ASSERT ((unsigned Int) psrc + 1 + size <= (unsigned Int) pnext) ;
ASSERT (psrc <= pdest) ;
ASSERT (F1 <= F2) ;
/* move the C block first */
Fsrc = F1 + nb*nb + drnew*nb + nb*dcnew + drnew*c ;
Fdst = F2 + nb*nb + drnew*nb + nb*dcnew + drnew*c ;
gap = drnew - r ;
for (j = c-1 ; j >= 0 ; j--)
{
Fsrc -= gap ;
Fdst -= gap ;
/* move column j of C */
for (i = r-1 ; i >= 0 ; i--)
{
*--Fdst = *--Fsrc ;
}
}
ASSERT (Fsrc == F1 + nb*nb + drnew*nb + nb*dcnew) ;
ASSERT (Fdst == F2 + nb*nb + drnew*nb + nb*dcnew) ;
/* move the U block */
Fsrc -= dcnew * (nb - k) ;
Fdst -= dcnew * (nb - k) ;
ASSERT (Fsrc == F1 + nb*nb + drnew*nb + dcnew*k) ;
ASSERT (Fdst == F2 + nb*nb + drnew*nb + dcnew*k) ;
gap = dcnew - c ;
for (i = k-1 ; i >= 0 ; i--)
{
Fsrc -= gap ;
Fdst -= gap ;
for (j = c-1 ; j >= 0 ; j--)
{
*--Fdst = *--Fsrc ;
}
}
ASSERT (Fsrc == F1 + nb*nb + drnew*nb) ;
ASSERT (Fdst == F2 + nb*nb + drnew*nb) ;
/* move the L block */
Fsrc -= drnew * (nb - k) ;
Fdst -= drnew * (nb - k) ;
ASSERT (Fsrc == F1 + nb*nb + drnew*k) ;
ASSERT (Fdst == F2 + nb*nb + drnew*k) ;
gap = drnew - r ;
for (j = k-1 ; j >= 0 ; j--)
{
Fsrc -= gap ;
Fdst -= gap ;
for (i = r-1 ; i >= 0 ; i--)
{
*--Fdst = *--Fsrc ;
}
}
ASSERT (Fsrc == F1 + nb*nb) ;
ASSERT (Fdst == F2 + nb*nb) ;
/* move the LU block */
Fsrc -= nb * (nb - k) ;
Fdst -= nb * (nb - k) ;
ASSERT (Fsrc == F1 + nb*k) ;
ASSERT (Fdst == F2 + nb*k) ;
gap = nb - k ;
for (j = k-1 ; j >= 0 ; j--)
{
Fsrc -= gap ;
Fdst -= gap ;
for (i = k-1 ; i >= 0 ; i--)
{
*--Fdst = *--Fsrc ;
}
}
ASSERT (Fsrc == F1) ;
ASSERT (Fdst == F2) ;
E [0] = (pdest + 1) - Numeric->Memory ;
Work->Flublock = (Entry *) (Numeric->Memory + E [0]) ;
ASSERT (Work->Flublock == F2) ;
Work->Flblock = Work->Flublock + nb * nb ;
Work->Fublock = Work->Flblock + drnew * nb ;
Work->Fcblock = Work->Fublock + nb * dcnew ;
pdest->header.prevsize = 0 ;
pdest->header.size = size ;
#ifndef NDEBUG
DEBUG7 (("After moving compressed current frontal matrix:\n")) ;
DEBUG7 (("C block: ")) ;
UMF_dump_dense (Work->Fcblock, drnew, r, c) ;
DEBUG7 (("L block: ")) ;
UMF_dump_dense (Work->Flblock, drnew, r, k);
DEBUG7 (("U' block: ")) ;
UMF_dump_dense (Work->Fublock, dcnew, c, k) ;
DEBUG7 (("LU block: ")) ;
UMF_dump_dense (Work->Flublock, nb, k, k) ;
#endif
}
else if (e > 0)
{
/* -------------------------------------------------------------- */
/* this is an element, compress and move from psrc down to pdest */
/* -------------------------------------------------------------- */
#ifndef NDEBUG
DEBUG7 (("\n")) ;
DEBUG7 ((ID":: Move element "ID": from: "ID" \n",
nmark, e, (Int) (psrc-Numeric->Memory))) ;
nmark-- ;
ASSERT (e <= nel) ;
ASSERT (E [e] == 0) ;
#endif
/* -------------------------------------------------------------- */
/* get the element scalars, and pointers to C, Rows, and Cols: */
/* -------------------------------------------------------------- */
p = psrc + 1 ;
GET_ELEMENT (epsrc, p, Cols, Rows, ncols, nrows, C) ;
nrowsleft = epsrc->nrowsleft ;
ncolsleft = epsrc->ncolsleft ;
cdeg = epsrc->cdeg ;
rdeg = epsrc->rdeg ;
#ifndef NDEBUG
DEBUG7 ((" nrows "ID" nrowsleft "ID"\n", nrows, nrowsleft)) ;
DEBUG7 ((" ncols "ID" ncolsleft "ID"\n", ncols, ncolsleft)) ;
DEBUG8 ((" Rows:")) ;
for (i = 0 ; i < nrows ; i++) DEBUG8 ((" "ID, Rows [i])) ;
DEBUG8 (("\n Cols:")) ;
for (j = 0 ; j < ncols ; j++) DEBUG8 ((" "ID, Cols [j])) ;
DEBUG8 (("\n")) ;
#endif
/* -------------------------------------------------------------- */
/* determine the layout of the new element */
/* -------------------------------------------------------------- */
csize = nrowsleft * ncolsleft ;
size2 = UNITS (Element, 1)
+ UNITS (Int, nrowsleft + ncolsleft)
+ UNITS (Entry, csize) ;
DEBUG7 (("Old size "ID" New size "ID"\n", size, size2)) ;
pnext = pdest ;
pnext->header.prevsize = size2 ;
pdest -= (size2 + 1) ;
ASSERT (size2 <= size) ;
ASSERT ((unsigned Int) psrc + 1 + size <= (unsigned Int) pnext) ;
ASSERT (psrc <= pdest) ;
p = pdest + 1 ;
epdest = (Element *) p ;
p += UNITS (Element, 1) ;
Cols2 = (Int *) p ;
Rows2 = Cols2 + ncolsleft ;
p += UNITS (Int, nrowsleft + ncolsleft) ;
C2 = (Entry *) p ;
ASSERT (epdest >= epsrc) ;
ASSERT (Rows2 >= Rows) ;
ASSERT (Cols2 >= Cols) ;
ASSERT (C2 >= C) ;
ASSERT (p + UNITS (Entry, csize) == pnext) ;
/* -------------------------------------------------------------- */
/* move the contribution block */
/* -------------------------------------------------------------- */
/* overlap = psrc + size + 1 > pdest ; */
if (nrowsleft < nrows || ncolsleft < ncols)
{
/* ---------------------------------------------------------- */
/* compress contribution block in place prior to moving it */
/* ---------------------------------------------------------- */
DEBUG7 (("Compress C in place prior to move:\n"));
#ifndef NDEBUG
UMF_dump_dense (C, nrows, nrows, ncols) ;
#endif
C1 = C ;
C3 = C ;
for (j = 0 ; j < ncols ; j++)
{
if (Cols [j] >= 0)
{
for (i = 0 ; i < nrows ; i++)
{
if (Rows [i] >= 0)
{
*C3++ = C1 [i] ;
}
}
}
C1 += nrows ;
}
ASSERT (C3-C == csize) ;
DEBUG8 (("Newly compressed contrib. block (all in use):\n")) ;
#ifndef NDEBUG
UMF_dump_dense (C, nrowsleft, nrowsleft, ncolsleft) ;
#endif
}
/* shift the contribution block down */
C += csize ;
C2 += csize ;
for (i = 0 ; i < csize ; i++)
{
*--C2 = *--C ;
}
/* -------------------------------------------------------------- */
/* move the row indices */
/* -------------------------------------------------------------- */
i2 = nrowsleft ;
for (i = nrows - 1 ; i >= 0 ; i--)
{
ASSERT (Rows2+i2 >= Rows+i) ;
if (Rows [i] >= 0)
{
Rows2 [--i2] = Rows [i] ;
}
}
ASSERT (i2 == 0) ;
j2 = ncolsleft ;
for (j = ncols - 1 ; j >= 0 ; j--)
{
ASSERT (Cols2+j2 >= Cols+j) ;
if (Cols [j] >= 0)
{
Cols2 [--j2] = Cols [j] ;
}
}
ASSERT (j2 == 0) ;
/* -------------------------------------------------------------- */
/* construct the new header */
/* -------------------------------------------------------------- */
/* E [0...e] is now valid */
E [e] = (pdest + 1) - Numeric->Memory ;
epdest = (Element *) (pdest + 1) ;
epdest->next = EMPTY ; /* destroys the son list */
epdest->ncols = ncolsleft ;
epdest->nrows = nrowsleft ;
epdest->ncolsleft = ncolsleft ;
epdest->nrowsleft = nrowsleft ;
epdest->rdeg = rdeg ;
epdest->cdeg = cdeg ;
ASSERT (size2 <= size) ;
pdest->header.prevsize = 0 ;
pdest->header.size = size2 ;
DEBUG7 (("After moving it:\n")) ;
#ifndef NDEBUG
UMF_dump_element (Numeric, Work, e, FALSE) ;
#endif
}
#ifndef NDEBUG
else
{
DEBUG8 ((" free\n")) ;
}
#endif
DEBUG7 (("psrc "ID" tail "ID"\n",
(Int) (psrc-Numeric->Memory), Numeric->itail)) ;
}
ASSERT (psrc == Numeric->Memory + Numeric->itail) ;
ASSERT (nmark == 0) ;
/* ---------------------------------------------------------------------- */
/* final tail pointer */
/* ---------------------------------------------------------------------- */
ASSERT (pdest >= Numeric->Memory + Numeric->itail) ;
Numeric->itail = pdest - Numeric->Memory ;
pdest->header.prevsize = 0 ;
Numeric->ibig = EMPTY ;
Numeric->tail_usage = Numeric->size - Numeric->itail ;
/* ---------------------------------------------------------------------- */
/* clear the unused E [nel+1 .. Work->elen - 1] */
/* ---------------------------------------------------------------------- */
for (e = nel+1 ; e < Work->elen ; e++)
{
E [e] = 0 ;
}
#ifndef NDEBUG
UMF_dump_packed_memory (Numeric, Work) ;
#endif
DEBUG8 (("::::GARBAGE COLLECTION DONE::::\n")) ;
}
Packet*
RouteProcessor::handleRequestPacket( const RequestPacket& requestPacket,
char* packetInfo )
{
DEBUG1( cerr << "***" << endl);
DEBUG4( cerr << "RouteProcessor::handleRequest" << endl );
Packet* replyPacket = NULL;
uint16 subType = requestPacket.getSubType();
if ( m_packetFileName != NULL ) {
// Use this code to write the packets to disk for later profiling
FILE* packetFile = fopen("routePacks", "ab");
uint32 packLen = ntohl(requestPacket.getLength());
fwrite(&packLen, 4, 1, packetFile);
fwrite(requestPacket.getBuf(),
requestPacket.getLength(), 1, packetFile);
fclose(packetFile);
}
switch (subType) {
case Packet::PACKETTYPE_UPDATETRAFFICCOSTREQUEST : {
DEBUG1(
MC2INFO("RouteProcessor got UpdatetrafficCostRequestPacket"));
const UpdateTrafficCostRequestPacket* updateTrafficCostPacket =
static_cast<const UpdateTrafficCostRequestPacket*>(&requestPacket);
replyPacket =
processUpdateTrafficCostRequestPacket(updateTrafficCostPacket);
}
break;
case Packet::PACKETTYPE_SUBROUTEREQUEST : {
mc2dbg << "RouteProcessor got SubRouteRequestPacket - size = "
<< requestPacket.getLength() << endl;
const RMSubRouteRequestPacket* subRoutePacket =
static_cast<const RMSubRouteRequestPacket*>(&requestPacket);
replyPacket = processSubRouteRequestPacket(subRoutePacket);
}
break;
case Packet::PACKETTYPE_EDGENODESREQUEST: {
mc2dbg << "RouteProcessor got EdgeNodesRequestPacket" << endl;
const EdgeNodesRequestPacket* edgeNodesReq =
static_cast<const EdgeNodesRequestPacket*>(&requestPacket);
replyPacket = processEdgeNodesRequestPacket(edgeNodesReq);
}
break;
case Packet::PACKETTYPE_IDTRANSLATIONREQUEST: {
mc2dbg4 << "RouteProcessor got IDTranslationRequestPacket" << endl;
const IDTranslationRequestPacket* levelReq =
static_cast<const IDTranslationRequestPacket*>(&requestPacket);
mc2dbg8 << "Incoming packet:" << endl;
DEBUG8(
HEXDUMP(mc2dbg8, levelReq->getBuf(), levelReq->getLength(),""));
replyPacket = processIDTranslationRequestPacket(levelReq);
mc2dbg8 << "Outgoing packet:" << endl;
DEBUG8(HEXDUMP(mc2dbg8, replyPacket->getBuf(),
replyPacket->getLength(), ""));
}
break;
case Packet::PACKETTYPE_DISTURBANCEPUSH: {
mc2dbg << "RouteProcessor got DisturbancePushPacket " << endl;
const DisturbancePushPacket* distPushReq =
static_cast<const DisturbancePushPacket*>( &requestPacket );
int nbrDist = processDisturbancePushPacket( distPushReq );
replyPacket = NULL; // We cannot reply to this.
// Add info about the number of disturbances.
sprintf(packetInfo, "ndist = %d", nbrDist);
}
break;
default : {
mc2log << warn
<< "RouteProcessor received packet with unknown type = "
<< requestPacket.getSubTypeAsString()
<< " ip=" << requestPacket.getOriginIP()
<< ", port=" << requestPacket.getOriginPort() << endl;
replyPacket = NULL;
}
}// end switch
// If a mapload failed packets in the queue might lack the right map.
// and need to be sent again
if((dynamic_cast<ReplyPacket*>(replyPacket) != NULL) &&
(static_cast<ReplyPacket*>(replyPacket)->getStatus() ==
StringTable::MAPNOTFOUND)) {
delete replyPacket;
replyPacket = new AcknowledgeRequestReplyPacket(&requestPacket,
StringTable::OK,
ACKTIME_NOMAP);
}
DEBUG1(cout << endl);
return replyPacket;
} // handleRequest
inline UpdateTrafficCostReplyPacket*
RouteProcessor::processUpdateTrafficCostRequestPacket(
const UpdateTrafficCostRequestPacket* updateCostsPacket)
{
mc2dbg2 << "RouteProcessor::processUpdateTrafficCostRequestPacket"
<< endl;
// Temporary trick
UpdateTrafficCostReplyPacket* reply =
new UpdateTrafficCostReplyPacket( updateCostsPacket );
reply->setStatus(StringTable::OK);
return reply;
UpdateTrafficCostReplyPacket* replyPacket = NULL;
if (updateCostsPacket != NULL) {
uint32 mapID = updateCostsPacket->getMapID();
DEBUG8(updateCostsPacket->dump());
mc2dbg << "Updating map " << mapID << endl;
// Get the CalcRoute for the map.
CalcRoute* calcRoute = getCalcRoute(mapID);
StringTable::stringCode status = StringTable::OK;
if (calcRoute != NULL) {
RoutingMap* mapToUpdate = calcRoute->getMap();
uint32 nbrNodesToUpdate = updateCostsPacket->getNbrCosts();
for (uint32 j = 0; j < nbrNodesToUpdate; j++) {
uint32 nodeID = MAX_UINT32;
uint32 cost = MAX_UINT32;
if (updateCostsPacket->getCost(nodeID, cost, j)) {
RoutingNode* node =
mapToUpdate->getNodeFromTrueNodeNumber(nodeID);
if (node != NULL) {
RoutingConnection* connection =
node->getFirstConnection();
while (connection != NULL) {
RoutingConnectionData* connData =
connection->getData();
// RoutingNode* toNode =
// mapToUpdate->getNode(connection->getIndex());
RoutingNode* toNode = connection->getNode();
if ( toNode == NULL ) {
mc2dbg << "Coulnd't find connection from "
<< hex << nodeID << " to node with index "
<< connection << endl;
continue;
}
uint32 costC = connData->getCostB(0) + cost;
mapToUpdate->changeConnectionCosts(
node,
connection,
false,
connData->getCostA(0),
connData->getCostB(0),
costC,
connData->getVehicleRestriction(false));
connection = connection->getNext();
}
}
else {
MC2WARNING("Node not found");
cerr << "map " << mapID << " nodeID: " << hex << nodeID
<< dec << " (" << nodeID << ")" << endl;
status = StringTable::NOTFOUND;
}
}
else {
cerr << "Could not get cost " << j << endl;
}
}
}
else {
handleMapNotFound(mapID, updateCostsPacket);
status = StringTable::MAPNOTFOUND;
}
replyPacket = new UpdateTrafficCostReplyPacket(updateCostsPacket);
replyPacket->setStatus(status);
} // end if (calcRoute != NULL)
return replyPacket;
} // updateTrafficCostRequestPacket
// ---------------------------------------------------------------------------
// ---------------------------------------------------------------------------
//
core_error_e core_operation_protected_setup_c::next_state()
{
DEBUG( "core_operation_protected_setup_c::next_state()" );
switch( operation_state_m )
{
case core_state_init:
{
// This state is for initial actions.
DEBUG( "- core_state_init" );
DEBUG1S("User selected SSID: ", core_iap_data_m.ssid.length, core_iap_data_m.ssid.ssid);
if ( core_iap_data_m.wpa_preshared_key.key_length == 0 )
{
DEBUG( "Using Pushbutton method" );
is_pushbutton_method_used_m = true_t;
}
else
{
DEBUG( "Using Pincode method" );
is_pushbutton_method_used_m = false_t;
}
scan_data_m = new ScanList;
if( !scan_data_m )
{
DEBUG( "core_operation_protected_setup_c::next_state() - unable to create ScanList" );
return core_error_no_memory;
}
core_callback_c* timer_callback =
new core_callback_c( &(core_operation_protected_setup_c::timer_expired), this );
if( !timer_callback )
{
DEBUG( "core_operation_protected_setup_c::next_state() - unable to create callbacks" );
return core_error_no_memory;
}
walktime_timer_m = core_timer_factory_c::create_timer( timer_callback );
if( !walktime_timer_m )
{
DEBUG( "core_operation_protected_setup_c::next_state() - unable to create timer" );
delete timer_callback;
return core_error_no_memory;
}
if ( server_m->get_core_settings().is_connected() )
{
DEBUG( "core_operation_protected_setup_c::next_state() - already connected, completing request" );
return core_error_connection_already_active;
}
// Override the security mode just in case.
core_iap_data_m.security_mode = core_security_mode_protected_setup;
if ( !server_m->create_eapol_instance( core_eapol_operating_mode_wfa ) )
{
DEBUG( "core_operation_protected_setup_c::next_state() - unable to instantiate EAPOL" );
return core_error_no_memory;
}
walktime_timer_m->start( CORE_OPERATION_PROTECTED_SETUP_WALKTIME );
return goto_state( core_state_prepare_scanning );
}
// This state is for actions what should be done at start or after core_operation_release_c.
case core_state_prepare_scanning:
{
DEBUG( "- core_state_prepare_scanning" );
core_error_e ret = server_m->init_connection_data(
core_iap_data_m,
server_m->get_device_settings() );
if ( ret != core_error_ok )
{
DEBUG1( "core_operation_protected_setup_c::next_state() - unable to initialize connection data (%d)", ret );
return ret;
}
if ( !server_m->get_connection_data()->iap_data().is_eap_used() )
{
DEBUG( "core_operation_protected_setup_c::next_state() - is_eap_used() == false, it should be true." );
return core_error_illegal_argument;
}
server_m->get_core_settings().set_connection_state( core_connection_state_searching );
return goto_state( core_state_start_scanning );
}
case core_state_start_scanning:
{
DEBUG( "- core_state_start_scanning" );
operation_state_m = core_state_scan;
// Clear scanlist
ASSERT( scan_data_m );
scan_data_m->ClearAll();
// add tag to help scanlist iteration
server_m->get_scan_list().set_tag( tag_m );
selected_ap_data_m = NULL;
// Broadcast scan is used to detect session overlap.
// Otherwise this could be direct scan.
core_operation_base_c* operation = new core_operation_scan_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
core_scan_mode_active,
BROADCAST_SSID,
all_valid_scan_channels_m,
0,
*scan_data_m,
false_t,
false_t );
return run_sub_operation( operation );
}
case core_state_scan:
{
DEBUG( "- core_state_scan" );
operation_state_m = core_state_MAX; // This is just to spot leak in following switch.
++wps_scan_count_m;
#ifdef SCANLIST_PARSING_AND_PRINTING
core_scan_list_iterator_by_tag_c parsing_iter(
server_m->get_scan_list(),
tag_m);
for ( core_ap_data_c* ap_data = parsing_iter.first(); ap_data; ap_data = parsing_iter.next() )
{
u8_t buffer[70];
core_tools_c::fillz(buffer, sizeof(buffer) );
for (u32_t i=0; i<ap_data->ssid().length; ++i)
{
buffer[2*i] = ap_data->ssid().ssid[i];
buffer[2*i+1] = 0;
}
DEBUG8("RADAR: SSID:%s BSSID:%02x.%02x.%02x.%02x.%02x.%02x RCPI:%u",
buffer,
//ap_data->ssid().ssid,
ap_data->bssid().addr[0],
ap_data->bssid().addr[1],
ap_data->bssid().addr[2],
ap_data->bssid().addr[3],
ap_data->bssid().addr[4],
ap_data->bssid().addr[5],
ap_data->rcpi()
);
}
#endif // SCANLIST_PARSING_AND_PRINTING
// Decide whether ap_data should be copied even when selected_registrar is not set.
bool_t copy_ap_data( false_t );
if( wps_scan_count_m == 1 ||
( wps_scan_count_m >= CORE_OPERATION_PROTECTED_SETUP_ROUNDTRIP_START &&
( wps_scan_count_m % CORE_OPERATION_PROTECTED_SETUP_ROUNDTRIP_INTERVAL == 1 ) ) )
{
copy_ap_data = true_t;
}
DEBUG2( "core_operation_protected_setup_c::next_state() - wps_scan_count_m=%d, copy_ap_data=%d", wps_scan_count_m, copy_ap_data );
abs_core_scan_list_iterator_c * iter;
if ( is_pushbutton_method_used_m )
{
// Pushbutton: Check all APs from scanlist.
iter = new core_scan_list_iterator_by_tag_c(
server_m->get_scan_list(),
tag_m);
}
else
{
// Pincode: Check only APs with given SSID from scanlist.
iter = new core_scan_list_iterator_by_tag_and_ssid_c(
server_m->get_scan_list(),
tag_m,
core_iap_data_m.ssid);
}
u32_t selected_registrar_count( check_selected_registrars( iter, copy_ap_data ) );
delete iter;
iter = NULL;
switch ( selected_registrar_count )
{
case 0: // No selected registrars yet. We should wait until some registrar appears
{
// Second round-trip should not start before selected_registrar is found.
if ( !selected_ap_data_m )
{
// Wait some time before new scan
return asynch_goto( core_state_start_scanning, CORE_OPERATION_PROTECTED_SETUP_DELAY_FOR_NEXT_SCAN );
}
}
/*
* This will fall through in first round-trip if selected AP was found.
* It means that selected_registrar flag is not required until second round-trip.
*/
//lint -fallthrough
case 1: // Successfull case: one and only one selected registrar
{
// AP not found. It is coding error.
ASSERT( selected_ap_data_m );
// Check that selected registrar is in SSID where it should be...
if ( core_iap_data_m.ssid != selected_ap_data_m->ssid() )
{
// If it is not, then wait some time before new scan
DEBUG( "core_operation_protected_setup_c::next_state() - selected registrar is not in wanted AP, ignoring" );
return asynch_goto( core_state_start_scanning, CORE_OPERATION_PROTECTED_SETUP_DELAY_FOR_NEXT_SCAN );
}
if ( selected_registrar_count > 0 )
{
// selected_registrar == true was found in correct AP.
is_selected_registrar_found_m = true_t;
}
return asynch_goto( core_state_connect_and_setup, CORE_OPERATION_PROTECTED_SETUP_START_DELAY );
}
default: // More than one selected registrar: It means "multiple PBC sessions detected"
{
// But if we are using pincode method, then we just try connection with first AP.
// No need to check SSID, because it is already filtered.
if ( !is_pushbutton_method_used_m )
{
DEBUG1( "core_operation_protected_setup_c::next_state() - %i selected registrars found for the same SSID, trying pincode for first AP.", selected_registrar_count );
is_selected_registrar_found_m = true_t;
return asynch_goto( core_state_connect_and_setup, CORE_OPERATION_PROTECTED_SETUP_START_DELAY );
}
protected_setup_status_m = core_protected_setup_status_multiple_PBC_sessions_detected;
walktime_timer_m->stop();
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
return core_error_ok;
}
}
}
case core_state_connect_and_setup:
{
DEBUG( "- core_state_connect_and_setup" );
if ( is_selected_registrar_found_m )
{
/**
* Walk time timer can be stopped because user has pressed
* Push-button or PIN-code from both phone and registrar.
* Do not stop timer, if selected registrar is not found.
*/
ASSERT( walktime_timer_m );
walktime_timer_m->stop();
}
core_iap_data_c core_iap_data( core_iap_data_m );
operation_state_m = core_state_setup_completed;
// Add WSC IE to association request
core_frame_wsc_ie_c* wsc_ie = core_frame_wsc_ie_c::instance(
CORE_FRAME_WSC_IE_USED_VERSION,
CORE_FRAME_WSC_IE_REQUEST_TYPE_ENROLLEE );
if ( wsc_ie == NULL )
{
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
return core_error_no_memory;
}
assoc_ie_list_m.append(
wsc_ie,
wsc_ie->element_id() );
ASSERT( selected_ap_data_m != NULL );
server_m->set_protected_setup_handler( this );
server_m->get_core_settings().set_connection_state( core_connection_state_secureinfra );
// WPA connect initiates connection and start authentication (in this case starts protected setup)
core_operation_base_c* operation = new core_sub_operation_wpa_connect_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
is_connected_m,
management_status_m,
core_iap_data_m.ssid,
*selected_ap_data_m,
is_reassociation_m,
assoc_ie_list_m,
NULL );
return run_sub_operation( operation );
}
case core_state_setup_completed:
{
DEBUG( "- core_state_setup_completed" );
protected_setup_status_m = core_protected_setup_status_ok;
ASSERT( walktime_timer_m );
walktime_timer_m->stop();
DEBUG( "Wi-Fi Protected Setup done, starting disconnect." );
operation_state_m = core_state_disconnect;
core_operation_base_c* operation = new core_operation_release_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
core_release_reason_other );
return run_sub_operation( operation );
}
case core_state_disconnect:
{
DEBUG( "- core_state_disconnect" );
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
return core_error_ok;
}
case core_state_user_cancel:
{
DEBUG( "- core_state_user_cancel" );
operation_state_m = core_state_disconnect_on_cancel;
//
ASSERT( walktime_timer_m );
walktime_timer_m->stop();
// We should cancel this timer, because asynch_goto could be ongoing.
server_m->cancel_operation_timer();
// This is not necessary? operation release will check this also...
if( server_m->get_core_settings().connection_state()
== core_connection_state_secureinfra )
{
core_operation_base_c* operation = new core_operation_release_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
core_release_reason_external_request );
return run_sub_operation( operation );
}
return next_state( );
}
case core_state_disconnect_on_cancel:
{
DEBUG( "- core_state_disconnect_on_cancel" );
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
return core_error_cancel;
}
case core_state_setup_failed:
{
DEBUG( "- core_state_setup_failed" );
operation_state_m = core_state_disconnect_on_error;
ASSERT( walktime_timer_m );
walktime_timer_m->stop();
// Get EAPOL errorcode before releasing connection.
wlan_eapol_if_eap_status_e eapol_status = static_cast<wlan_eapol_if_eap_status_e>( server_m->get_connection_data()->last_eap_error() );
protected_setup_status_m = core_tools_c::convert_eapol_error_to_protected_setup_status( eapol_status );
DEBUG2( "Protected Setup has failed, starting disconnect. (EAPOL status %i, protected setup status %i)",
eapol_status,
protected_setup_status_m );
server_m->get_core_settings().set_connection_state( core_connection_state_secureinfra );
core_operation_base_c* operation = new core_operation_release_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
core_release_reason_other );
return run_sub_operation( operation );
}
case core_state_disconnect_on_error:
{
DEBUG( "- core_state_disconnect_on_error" );
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
DEBUG1( "core_operation_protected_setup_c::next_state() - failure_reason_m is %u",
failure_reason_m );
DEBUG1( "core_operation_protected_setup_c::next_state() - management_status_m is %u",
management_status_m );
core_error_e ret = protected_setup_status(
failure_reason_m,
management_status_m,
protected_setup_status_m );
DEBUG1( "core_operation_protected_setup_c::next_state() - returned error code is %u",
ret );
DEBUG1( "core_operation_protected_setup_c::next_state() - returned status is %u",
protected_setup_status_m );
return ret;
}
case core_state_disconnect_before_second_round_trip:
{
DEBUG( "- core_state_disconnect_before_second_round_trip" );
operation_state_m = core_state_prepare_scanning;
// Get EAPOL errorcode before releasing connection.
wlan_eapol_if_eap_status_e eapol_status = static_cast<wlan_eapol_if_eap_status_e>( server_m->get_connection_data()->last_eap_error() );
protected_setup_status_m = core_tools_c::convert_eapol_error_to_protected_setup_status( eapol_status );
DEBUG2( "Protected Setup has failed (first round-trip), starting disconnect. (EAPOL status %i, protected setup status %i)",
eapol_status,
protected_setup_status_m );
server_m->get_core_settings().set_connection_state( core_connection_state_secureinfra );
core_operation_base_c* operation = new core_operation_release_c(
request_id_m,
server_m,
drivers_m,
adaptation_m,
core_release_reason_other );
return run_sub_operation( operation );
}
case core_state_walktime_expiration:
{
DEBUG( "- core_state_walktime_expiration" );
server_m->get_core_settings().set_connection_state( core_connection_state_notconnected );
// indicate unsuccessfully completed protected setup
protected_setup_status_m = core_protected_setup_status_walktime_expired;
return core_error_ok;
}
default:
{
ASSERT( false_t );
}
}
return core_error_request_pending;
}
void
GfxCountryMapGenerator::run()
{
const int maxHandshake = 1024;
char handshake[maxHandshake];
TCPSocket* socket = waitForConnection(handshake, maxHandshake);
if ( socket == NULL ) {
mc2log << error << "No connection for GfxCountryMapGenerator" << endl;
return;
}
DEBUG2(uint32 startTime = TimeUtility::getCurrentTime());
// We've got an request for a map...
mc2dbg4 << "GfxCountryMapGenerator, sending map with ID "
<< mapIDs[0] << endl;
CountryOverviewMap* theMap =
dynamic_cast<CountryOverviewMap*>(mapHandler->getMap(mapIDs[0]));
DEBUG8(cerr << "MAPID " << mapIDs[0] << endl);
// Check if the map is valid or not
if (theMap != NULL) {
// OK, map valid!
uint32 nbrMaps = theMap->getNbrMaps();
const GfxData* mapGfx = theMap->getGfxData();
// Calculate the size of the filtered map when written to a buffer.
uint32 filtMapsBufSize = 0;
const uint32 nbrFiltLevels =
CountryOverviewMap::NBR_SIMPLIFIED_COUNTRY_GFX;
for (uint32 i = 0; i < nbrFiltLevels; i++ ) {
for (uint32 j = 0; j < mapGfx->getNbrPolygons(); j++ ) {
const Stack* filtStack = theMap->getFilterStack(i,j);
filtMapsBufSize += 4; // writes number of filt stack elements.
for (uint32 k = 0; k < filtStack->getStackSize(); k++) {
filtMapsBufSize += 4; // writes filt stack element.
}
}
}
// Claculate size of buffer needed.
uint32 bufSize = 4; // nbrMaps
bufSize += nbrMaps * 24; // nbrMaps * (mapId, creationTime, Bbox)
bufSize += 4; // polygons closed, nbrPolygons
bufSize += mapGfx->getNbrPolygons() * 4; // nbr coordinates per polygon.
bufSize += theMap->getGfxData()->getTotalNbrCoordinates() * 8; // coords.
bufSize += 4; // nbrFiltLevels
bufSize += filtMapsBufSize; // Size of the filter data.
DataBuffer idsAndGfx(bufSize);
// Note that we multiply the size of the coordinates with two in
// order to make space for the filtered versions of the country
// GfxData as well.
// DataBuffer idsAndGfx(nbrMaps * 24 + // ID + ver + Bbox
// theMap->getGfxData()->getTotalNbrCoordinates()*8*2 +
// 102400); // approx gfxdata
idsAndGfx.writeNextLong(nbrMaps);
for (uint32 i=0; i<nbrMaps; i++) {
uint32 creationTime;
int32 maxLat, minLat, maxLon, minLon;
uint32 mapID = theMap->getMapData(i, creationTime,
maxLat, minLon,
minLat, maxLon);
idsAndGfx.writeNextLong(mapID);
idsAndGfx.writeNextLong(creationTime);
idsAndGfx.writeNextLong(maxLat);
idsAndGfx.writeNextLong(minLon);
idsAndGfx.writeNextLong(minLat);
idsAndGfx.writeNextLong(maxLon);
mc2dbg1 << " Wrote mapID=" << mapID << ", version="
<< creationTime << ", bbox="
<< maxLat << ", " << minLon << ", " << minLat << ", "
<< maxLon << endl;
}
// Save the GfxData of the country
//uint32 nbrPolygons = MIN(5, mapGfx->getNbrPolygons());
uint32 nbrPolygons = 0;
// The polygons being sorted on nbrCoordinates, we an accept
// to skip(send) 5 small polys with many coords, in order to
// send larger polygons with fewer coordinates.
uint32 maxNbrSkipPolys = 5;
uint32 skipPolys[maxNbrSkipPolys];
for (uint32 i = 0; i < maxNbrSkipPolys;i++) {
skipPolys[i] = MAX_UINT32;
}
bool cont = true;
uint32 nbrSkip = 0;
while (cont && (nbrPolygons < mapGfx->getNbrPolygons())) {
mc2dbg8 << "poly " << nbrPolygons << " nbrC="
<< mapGfx->getNbrCoordinates(nbrPolygons)
<< " length=" << mapGfx->getLength(nbrPolygons);
if (mapGfx->getLength(nbrPolygons) < 35000) {
skipPolys[nbrSkip] = nbrPolygons;
mc2dbg8 << " - \"skipping\" ";
nbrSkip++;
if (nbrSkip >= maxNbrSkipPolys) {
cont = false;
}
}
mc2dbg8 << endl;
nbrPolygons++;
}
// Don't send if any of the small polygons are the last ones..
uint32 p = maxNbrSkipPolys;
while ( (p > 0) && (skipPolys[p-1] >= nbrPolygons-1)) {
if (skipPolys[p-1] == nbrPolygons-1) {
mc2dbg8 << " skip poly in the end of nbrPolygons" << endl;
nbrPolygons--;
}
p--;
}
nbrPolygons=MAX(1, nbrPolygons);
mc2dbg << "Sending " << nbrPolygons << " polygons of "
<< mapGfx->getNbrPolygons() << endl;
idsAndGfx.writeNextBool(true); // polygons closed
idsAndGfx.writeNextByte(0); // PAD
idsAndGfx.writeNextShort(nbrPolygons);// # polygons
for (uint32 p=0; p<nbrPolygons;p++) {
uint32 nbrCoordinates = mapGfx->getNbrCoordinates(p);
idsAndGfx.writeNextLong(nbrCoordinates);
for (uint32 i = 0; i < nbrCoordinates; i++) {
idsAndGfx.writeNextLong(mapGfx->getLat(p, i));
idsAndGfx.writeNextLong(mapGfx->getLon(p, i));
}
}
// Send filtered gfxdata information.
// Nbr filtering levels
idsAndGfx.writeNextLong(nbrFiltLevels);
for (uint32 i = 0; i < nbrFiltLevels; i++ ) {
// Nbr polygons already written before
for (uint32 j = 0; j < nbrPolygons; j++ ) {
const Stack* filtStack = theMap->getFilterStack(i,j);
// Nbr indices in the filtering stack.
idsAndGfx.writeNextLong(filtStack->getStackSize());
for (uint32 k = 0; k < filtStack->getStackSize(); k++) {
// Index
idsAndGfx.writeNextLong(filtStack->getElementAt(k));
}
}
}
// Create and fill a buffer with the string items in this country
DataBuffer stringItems(theMap->getMaximunSizeOfStringItems()*2 +
40000000); // length of items
if (!theMap->saveStringItems(&stringItems)) {
mc2log << error <<"Error saving string items for country" << endl;
}
// Create and fill buffer with items.
// Nbr items. To be filled in later.
uint32 offset = stringItems.getCurrentOffset();
stringItems.writeNextLong(0);
uint32 maxCountryMapZoom = 3;
uint32 nbrItems = 0;
for (uint32 z = 0; z < maxCountryMapZoom; z++) {
writeItemsInZoomLevel(theMap, &stringItems, z, nbrItems);
}
// Fill in nbr items
stringItems.writeLong(nbrItems, offset);
// Create and fill buffer with version and length
DataBuffer versionAndLengthBuffer(8);
versionAndLengthBuffer.writeNextLong(theMap->getCreationTime());
uint32 length = idsAndGfx.getCurrentOffset() +
stringItems.getCurrentOffset();
versionAndLengthBuffer.writeNextLong(length);
// Send the buffers via TCP
uint32 nbrBytes =
socket->writeAll( versionAndLengthBuffer.getBufferAddress(),
versionAndLengthBuffer.getCurrentOffset() );
mc2dbg4 << " Sent " << nbrBytes << " with version ("
<< theMap->getCreationTime() << ") and length ("
<< length << ")" << endl;
nbrBytes = socket->writeAll( idsAndGfx.getBufferAddress(),
idsAndGfx.getCurrentOffset() );
mc2dbg4 << " Sent " << nbrBytes << " with map IDs and GfxData"
<< endl;
nbrBytes = socket->writeAll( stringItems.getBufferAddress(),
stringItems.getCurrentOffset() );
mc2dbg4<< " Sent " << nbrBytes << " with string items"
<< endl;
// Delete the socket
delete socket;
}
DEBUG2(
mc2dbg << "GfxCountryMapGenerator sent all data for map "
<< mapIDs[0] << ", processing time "
<< TimeUtility::getCurrentTime()-startTime << " ms" << endl;
);
GLOBAL Int UMF_create_element
(
NumericType *Numeric,
WorkType *Work,
SymbolicType *Symbolic
)
{
/* ---------------------------------------------------------------------- */
/* local variables */
/* ---------------------------------------------------------------------- */
Int j, col, row, *Fcols, *Frows, fnrows, fncols, *Cols, len, needunits, t1,
t2, size, e, i, *E, *Fcpos, *Frpos, *Rows, eloc, fnr_curr, f,
got_memory, *Row_tuples, *Row_degree, *Row_tlen, *Col_tuples, max_mark,
*Col_degree, *Col_tlen, nn, n_row, n_col, r2, c2, do_Fcpos ;
Entry *C, *Fcol ;
Element *ep ;
Unit *p, *Memory ;
Tuple *tp, *tp1, *tp2, tuple, *tpend ;
#ifndef NDEBUG
DEBUG2 (("FRONTAL WRAPUP\n")) ;
UMF_dump_current_front (Numeric, Work, TRUE) ;
#endif
/* ---------------------------------------------------------------------- */
/* get parameters */
/* ---------------------------------------------------------------------- */
ASSERT (Work->fnpiv == 0) ;
ASSERT (Work->fnzeros == 0) ;
Row_degree = Numeric->Rperm ;
Row_tuples = Numeric->Uip ;
Row_tlen = Numeric->Uilen ;
Col_degree = Numeric->Cperm ;
Col_tuples = Numeric->Lip ;
Col_tlen = Numeric->Lilen ;
n_row = Work->n_row ;
n_col = Work->n_col ;
nn = MAX (n_row, n_col) ;
Fcols = Work->Fcols ;
Frows = Work->Frows ;
Fcpos = Work->Fcpos ;
Frpos = Work->Frpos ;
Memory = Numeric->Memory ;
fncols = Work->fncols ;
fnrows = Work->fnrows ;
tp = (Tuple *) NULL ;
tp1 = (Tuple *) NULL ;
tp2 = (Tuple *) NULL ;
/* ---------------------------------------------------------------------- */
/* add the current frontal matrix to the degrees of each column */
/* ---------------------------------------------------------------------- */
if (!Symbolic->fixQ)
{
/* but only if the column ordering is not fixed */
#pragma ivdep
for (j = 0 ; j < fncols ; j++)
{
/* add the current frontal matrix to the degree */
ASSERT (Fcols [j] >= 0 && Fcols [j] < n_col) ;
Col_degree [Fcols [j]] += fnrows ;
}
}
/* ---------------------------------------------------------------------- */
/* add the current frontal matrix to the degrees of each row */
/* ---------------------------------------------------------------------- */
#pragma ivdep
for (i = 0 ; i < fnrows ; i++)
{
/* add the current frontal matrix to the degree */
ASSERT (Frows [i] >= 0 && Frows [i] < n_row) ;
Row_degree [Frows [i]] += fncols ;
}
/* ---------------------------------------------------------------------- */
/* Reset the external degree counters */
/* ---------------------------------------------------------------------- */
E = Work->E ;
max_mark = MAX_MARK (nn) ;
if (!Work->pivcol_in_front)
{
/* clear the external column degrees. no more Usons of current front */
Work->cdeg0 += (nn + 1) ;
if (Work->cdeg0 >= max_mark)
{
/* guard against integer overflow. This is very rare */
DEBUG1 (("Integer overflow, cdeg\n")) ;
Work->cdeg0 = 1 ;
#pragma ivdep
for (e = 1 ; e <= Work->nel ; e++)
{
if (E [e])
{
ep = (Element *) (Memory + E [e]) ;
ep->cdeg = 0 ;
}
}
}
}
if (!Work->pivrow_in_front)
{
/* clear the external row degrees. no more Lsons of current front */
Work->rdeg0 += (nn + 1) ;
if (Work->rdeg0 >= max_mark)
{
/* guard against integer overflow. This is very rare */
DEBUG1 (("Integer overflow, rdeg\n")) ;
Work->rdeg0 = 1 ;
#pragma ivdep
for (e = 1 ; e <= Work->nel ; e++)
{
if (E [e])
{
ep = (Element *) (Memory + E [e]) ;
ep->rdeg = 0 ;
}
}
}
}
/* ---------------------------------------------------------------------- */
/* clear row/col offsets */
/* ---------------------------------------------------------------------- */
if (!Work->pivrow_in_front)
{
#pragma ivdep
for (j = 0 ; j < fncols ; j++)
{
Fcpos [Fcols [j]] = EMPTY ;
}
}
if (!Work->pivcol_in_front)
{
#pragma ivdep
for (i = 0 ; i < fnrows ; i++)
{
Frpos [Frows [i]] = EMPTY ;
}
}
if (fncols <= 0 || fnrows <= 0)
{
/* no element to create */
DEBUG2 (("Element evaporation\n")) ;
Work->prior_element = EMPTY ;
return (TRUE) ;
}
/* ---------------------------------------------------------------------- */
/* create element for later assembly */
/* ---------------------------------------------------------------------- */
#ifndef NDEBUG
UMF_allocfail = FALSE ;
if (UMF_gprob > 0)
{
double rrr = ((double) (rand ( ))) / (((double) RAND_MAX) + 1) ;
DEBUG4 (("Check random %e %e\n", rrr, UMF_gprob)) ;
UMF_allocfail = rrr < UMF_gprob ;
if (UMF_allocfail) DEBUGm2 (("Random garbage collection (create)\n"));
}
#endif
needunits = 0 ;
got_memory = FALSE ;
eloc = UMF_mem_alloc_element (Numeric, fnrows, fncols, &Rows, &Cols, &C,
&needunits, &ep) ;
/* if UMF_get_memory needs to be called */
if (Work->do_grow)
{
/* full compaction of current frontal matrix, since UMF_grow_front will
* be called next anyway. */
r2 = fnrows ;
c2 = fncols ;
do_Fcpos = FALSE ;
}
else
{
/* partial compaction. */
r2 = MAX (fnrows, Work->fnrows_new + 1) ;
c2 = MAX (fncols, Work->fncols_new + 1) ;
/* recompute Fcpos if pivot row is in the front */
do_Fcpos = Work->pivrow_in_front ;
}
if (!eloc)
{
/* Do garbage collection, realloc, and try again. */
/* Compact the current front if it needs to grow anyway. */
/* Note that there are no pivot rows or columns in the current front */
DEBUGm3 (("get_memory from umf_create_element, 1\n")) ;
if (!UMF_get_memory (Numeric, Work, needunits, r2, c2, do_Fcpos))
{
/* :: out of memory in umf_create_element (1) :: */
DEBUGm4 (("out of memory: create element (1)\n")) ;
return (FALSE) ; /* out of memory */
}
got_memory = TRUE ;
Memory = Numeric->Memory ;
eloc = UMF_mem_alloc_element (Numeric, fnrows, fncols, &Rows, &Cols, &C,
&needunits, &ep) ;
ASSERT (eloc >= 0) ;
if (!eloc)
{
/* :: out of memory in umf_create_element (2) :: */
DEBUGm4 (("out of memory: create element (2)\n")) ;
return (FALSE) ; /* out of memory */
}
}
e = ++(Work->nel) ; /* get the name of this new frontal matrix */
Work->prior_element = e ;
DEBUG8 (("wrapup e "ID" nel "ID"\n", e, Work->nel)) ;
ASSERT (e > 0 && e < Work->elen) ;
ASSERT (E [e] == 0) ;
E [e] = eloc ;
if (Work->pivcol_in_front)
{
/* the new element is a Uson of the next frontal matrix */
ep->cdeg = Work->cdeg0 ;
}
if (Work->pivrow_in_front)
{
/* the new element is an Lson of the next frontal matrix */
ep->rdeg = Work->rdeg0 ;
}
/* ---------------------------------------------------------------------- */
/* copy frontal matrix into the new element */
/* ---------------------------------------------------------------------- */
#pragma ivdep
for (i = 0 ; i < fnrows ; i++)
{
Rows [i] = Frows [i] ;
}
#pragma ivdep
for (i = 0 ; i < fncols ; i++)
{
Cols [i] = Fcols [i] ;
}
Fcol = Work->Fcblock ;
DEBUG0 (("copy front "ID" by "ID"\n", fnrows, fncols)) ;
fnr_curr = Work->fnr_curr ;
ASSERT (fnr_curr >= 0 && fnr_curr % 2 == 1) ;
for (j = 0 ; j < fncols ; j++)
{
copy_column (fnrows, Fcol, C) ;
Fcol += fnr_curr ;
C += fnrows ;
}
DEBUG8 (("element copied\n")) ;
/* ---------------------------------------------------------------------- */
/* add tuples for the new element */
/* ---------------------------------------------------------------------- */
tuple.e = e ;
if (got_memory)
{
/* ------------------------------------------------------------------ */
/* UMF_get_memory ensures enough space exists for each new tuple */
/* ------------------------------------------------------------------ */
/* place (e,f) in the element list of each column */
for (tuple.f = 0 ; tuple.f < fncols ; tuple.f++)
{
col = Fcols [tuple.f] ;
ASSERT (col >= 0 && col < n_col) ;
ASSERT (NON_PIVOTAL_COL (col)) ;
ASSERT (Col_tuples [col]) ;
tp = ((Tuple *) (Memory + Col_tuples [col])) + Col_tlen [col]++ ;
*tp = tuple ;
}
/* ------------------------------------------------------------------ */
/* place (e,f) in the element list of each row */
for (tuple.f = 0 ; tuple.f < fnrows ; tuple.f++)
{
row = Frows [tuple.f] ;
ASSERT (row >= 0 && row < n_row) ;
ASSERT (NON_PIVOTAL_ROW (row)) ;
ASSERT (Row_tuples [row]) ;
tp = ((Tuple *) (Memory + Row_tuples [row])) + Row_tlen [row]++ ;
*tp = tuple ;
}
}
else
{
/* ------------------------------------------------------------------ */
/* place (e,f) in the element list of each column */
/* ------------------------------------------------------------------ */
/* might not have enough space for each tuple */
for (tuple.f = 0 ; tuple.f < fncols ; tuple.f++)
{
col = Fcols [tuple.f] ;
ASSERT (col >= 0 && col < n_col) ;
ASSERT (NON_PIVOTAL_COL (col)) ;
t1 = Col_tuples [col] ;
DEBUG1 (("Placing on col:"ID" , tuples at "ID"\n",
col, Col_tuples [col])) ;
size = 0 ;
len = 0 ;
if (t1)
{
p = Memory + t1 ;
tp = (Tuple *) p ;
size = GET_BLOCK_SIZE (p) ;
len = Col_tlen [col] ;
tp2 = tp + len ;
}
needunits = UNITS (Tuple, len + 1) ;
DEBUG1 (("len: "ID" size: "ID" needunits: "ID"\n",
len, size, needunits));
if (needunits > size && t1)
{
/* prune the tuples */
tp1 = tp ;
tp2 = tp ;
tpend = tp + len ;
for ( ; tp < tpend ; tp++)
{
e = tp->e ;
ASSERT (e > 0 && e <= Work->nel) ;
if (!E [e]) continue ; /* element already deallocated */
f = tp->f ;
p = Memory + E [e] ;
ep = (Element *) p ;
p += UNITS (Element, 1) ;
Cols = (Int *) p ;
;
if (Cols [f] == EMPTY) continue ; /* already assembled */
ASSERT (col == Cols [f]) ;
*tp2++ = *tp ; /* leave the tuple in the list */
}
len = tp2 - tp1 ;
Col_tlen [col] = len ;
needunits = UNITS (Tuple, len + 1) ;
}
if (needunits > size)
{
/* no room exists - reallocate elsewhere */
DEBUG1 (("REALLOCATE Col: "ID", size "ID" to "ID"\n",
col, size, 2*needunits)) ;
#ifndef NDEBUG
UMF_allocfail = FALSE ;
if (UMF_gprob > 0) /* a double relop, but ignore NaN case */
{
double rrr = ((double) (rand ( ))) /
(((double) RAND_MAX) + 1) ;
DEBUG1 (("Check random %e %e\n", rrr, UMF_gprob)) ;
UMF_allocfail = rrr < UMF_gprob ;
if (UMF_allocfail) DEBUGm2 (("Random gar. (col tuple)\n")) ;
}
#endif
needunits = MIN (2*needunits, (Int) UNITS (Tuple, nn)) ;
t2 = UMF_mem_alloc_tail_block (Numeric, needunits) ;
if (!t2)
{
/* :: get memory in umf_create_element (1) :: */
/* get memory, reconstruct all tuple lists, and return */
/* Compact the current front if it needs to grow anyway. */
/* Note: no pivot rows or columns in the current front */
DEBUGm4 (("get_memory from umf_create_element, 1\n")) ;
return (UMF_get_memory (Numeric, Work, 0, r2, c2,do_Fcpos));
}
Col_tuples [col] = t2 ;
tp2 = (Tuple *) (Memory + t2) ;
if (t1)
{
for (i = 0 ; i < len ; i++)
{
*tp2++ = *tp1++ ;
}
UMF_mem_free_tail_block (Numeric, t1) ;
}
}
/* place the new (e,f) tuple in the element list of the column */
Col_tlen [col]++ ;
*tp2 = tuple ;
}
/* ------------------------------------------------------------------ */
/* place (e,f) in the element list of each row */
/* ------------------------------------------------------------------ */
for (tuple.f = 0 ; tuple.f < fnrows ; tuple.f++)
{
row = Frows [tuple.f] ;
ASSERT (row >= 0 && row < n_row) ;
ASSERT (NON_PIVOTAL_ROW (row)) ;
t1 = Row_tuples [row] ;
DEBUG1 (("Placing on row:"ID" , tuples at "ID"\n",
row, Row_tuples [row])) ;
size = 0 ;
len = 0 ;
if (t1)
{
p = Memory + t1 ;
tp = (Tuple *) p ;
size = GET_BLOCK_SIZE (p) ;
len = Row_tlen [row] ;
tp2 = tp + len ;
}
needunits = UNITS (Tuple, len + 1) ;
DEBUG1 (("len: "ID" size: "ID" needunits: "ID"\n",
len, size, needunits)) ;
if (needunits > size && t1)
{
/* prune the tuples */
tp1 = tp ;
tp2 = tp ;
tpend = tp + len ;
for ( ; tp < tpend ; tp++)
{
e = tp->e ;
ASSERT (e > 0 && e <= Work->nel) ;
if (!E [e])
{
continue ; /* element already deallocated */
}
f = tp->f ;
p = Memory + E [e] ;
ep = (Element *) p ;
p += UNITS (Element, 1) ;
Cols = (Int *) p ;
Rows = Cols + (ep->ncols) ;
if (Rows [f] == EMPTY) continue ; /* already assembled */
ASSERT (row == Rows [f]) ;
*tp2++ = *tp ; /* leave the tuple in the list */
}
len = tp2 - tp1 ;
Row_tlen [row] = len ;
needunits = UNITS (Tuple, len + 1) ;
}
if (needunits > size)
{
/* no room exists - reallocate elsewhere */
DEBUG1 (("REALLOCATE Row: "ID", size "ID" to "ID"\n",
row, size, 2*needunits)) ;
#ifndef NDEBUG
UMF_allocfail = FALSE ;
if (UMF_gprob > 0) /* a double relop, but ignore NaN case */
{
double rrr = ((double) (rand ( ))) /
(((double) RAND_MAX) + 1) ;
DEBUG1 (("Check random %e %e\n", rrr, UMF_gprob)) ;
UMF_allocfail = rrr < UMF_gprob ;
if (UMF_allocfail) DEBUGm2 (("Random gar. (row tuple)\n")) ;
}
#endif
needunits = MIN (2*needunits, (Int) UNITS (Tuple, nn)) ;
t2 = UMF_mem_alloc_tail_block (Numeric, needunits) ;
if (!t2)
{
/* :: get memory in umf_create_element (2) :: */
/* get memory, reconstruct all tuple lists, and return */
/* Compact the current front if it needs to grow anyway. */
/* Note: no pivot rows or columns in the current front */
DEBUGm4 (("get_memory from umf_create_element, 2\n")) ;
return (UMF_get_memory (Numeric, Work, 0, r2, c2,do_Fcpos));
}
Row_tuples [row] = t2 ;
tp2 = (Tuple *) (Memory + t2) ;
if (t1)
{
for (i = 0 ; i < len ; i++)
{
*tp2++ = *tp1++ ;
}
UMF_mem_free_tail_block (Numeric, t1) ;
}
}
/* place the new (e,f) tuple in the element list of the row */
Row_tlen [row]++ ;
*tp2 = tuple ;
}
}
/* ---------------------------------------------------------------------- */
#ifndef NDEBUG
DEBUG1 (("Done extending\nFINAL: element row pattern: len="ID"\n", fncols));
for (j = 0 ; j < fncols ; j++) DEBUG1 ((""ID"\n", Fcols [j])) ;
DEBUG1 (("FINAL: element col pattern: len="ID"\n", fnrows)) ;
for (j = 0 ; j < fnrows ; j++) DEBUG1 ((""ID"\n", Frows [j])) ;
for (j = 0 ; j < fncols ; j++)
{
col = Fcols [j] ;
ASSERT (col >= 0 && col < n_col) ;
UMF_dump_rowcol (1, Numeric, Work, col, !Symbolic->fixQ) ;
}
for (j = 0 ; j < fnrows ; j++)
{
row = Frows [j] ;
ASSERT (row >= 0 && row < n_row) ;
UMF_dump_rowcol (0, Numeric, Work, row, TRUE) ;
}
if (n_row < 1000 && n_col < 1000)
{
UMF_dump_memory (Numeric) ;
}
DEBUG1 (("New element, after filling with stuff: "ID"\n", e)) ;
UMF_dump_element (Numeric, Work, e, TRUE) ;
if (nn < 1000)
{
DEBUG4 (("Matrix dump, after New element: "ID"\n", e)) ;
UMF_dump_matrix (Numeric, Work, TRUE) ;
}
DEBUG3 (("FRONTAL WRAPUP DONE\n")) ;
#endif
return (TRUE) ;
}