vertex_t *createvertex (xy_t xy) {
vertex_t *vmemp, *vp;
vmemp = vp = NULL;
if (!(vmemp = vmalloc (vvm, sizeof (vertex_t))))
goto abortcreatevertex;
vmemp->xy = xy;
if (!(vp = dtinsert (vertexdict, vmemp)))
goto abortcreatevertex;
if (vp != vmemp) {
vmfree (vvm, vmemp);
return vp;
}
if (!(vp->edgeps = vmalloc (Vmheap, 4 * sizeof (edge_t *))))
goto abortcreatevertex;
vp->edgepn = 4;
vp->edgepl = 0;
return vp;
abortcreatevertex:
SUwarning (
1, "createvertex", "create failed for vertex (%d,%d)", xy.x, xy.y
);
if (vp) {
if (vp == vmemp)
dtdelete (vertexdict, vp);
if (vp->edgeps)
vmfree (Vmheap, vp->edgeps);
}
if (vmemp)
vmfree (vvm, vmemp);
return NULL;
}
static void vmapAdd(Dt_t * map, int i, int j)
{
Ipair obj;
obj.i = i;
obj.j = j;
dtinsert(map, &obj);
}
/* insertEdge:
*/
static void insertEdge(Dt_t * map, void *t, void *h, edge_t * e)
{
item dummy;
dummy.p[0] = t;
dummy.p[1] = h;
dummy.t = e->tail;
dummy.h = e->head;
dtinsert(map, &dummy);
dummy.p[0] = h;
dummy.p[1] = t;
dummy.t = e->head;
dummy.h = e->tail;
dtinsert(map, &dummy);
}
/* constrainX:
* Create the X constrains and solve. We use a linear objective function
* (absolute values rather than squares), so we can reuse network simplex.
* The constraints are encoded as a dag with edges having a minimum length.
*/
static void constrainX(graph_t* g, nitem* nlist, int nnodes, intersectfn ifn,
int ortho)
{
Dt_t *list = dtopen(&constr, Dtobag);
nitem *p = nlist;
graph_t *cg;
int i;
for (i = 0; i < nnodes; i++) {
p->val = p->pos.x;
dtinsert(list, p);
p++;
}
if (ortho)
cg = mkConstraintG(g, list, ifn, distX);
else
cg = mkNConstraintG(g, list, ifn, distX);
rank(cg, 2, INT_MAX);
p = nlist;
for (i = 0; i < nnodes; i++) {
int newpos, oldpos, delta;
oldpos = p->pos.x;
newpos = ND_rank(p->cnode);
delta = newpos - oldpos;
p->pos.x = newpos;
p->bb.LL.x += delta;
p->bb.UR.x += delta;
p++;
}
closeGraph(cg);
dtclose(list);
}
static void update(Dict_t * Q, Agnode_t * dest, Agnode_t * src, double len)
{
double newlen = getdist(src) + len;
double oldlen = getdist(dest);
if (oldlen == 0) { /* first time to see dest */
setdist(dest, newlen);
if (doPath) setprev(dest, src);
dtinsert(Q, dest);
} else if (newlen < oldlen) {
dtdelete(Q, dest);
setdist(dest, newlen);
if (doPath) setprev(dest, src);
dtinsert(Q, dest);
}
}
void add_edge(edgelist * list, Agedge_t * e)
{
edgelistitem temp;
temp.edge = e;
dtinsert(list, &temp);
}
void push(queue * nq, void *n)
{
nsitem obj;
obj.np = n;
dtinsert(nq, &obj);
}
/* insertEdge:
*/
static void insertEdge(Dt_t * map, void *t, void *h, edge_t * e)
{
item dummy;
dummy.p[0] = t;
dummy.p[1] = h;
dummy.t = agtail(e);
dummy.h = aghead(e);
dtinsert(map, &dummy);
dummy.p[0] = h;
dummy.p[1] = t;
dummy.t = aghead(e);
dummy.h = agtail(e);
dtinsert(map, &dummy);
}
static void storeline(GVC_t *gvc, textlabel_t *lp, char *line, char terminator)
{
pointf size;
textspan_t *span;
static textfont_t tf;
int oldsz = lp->u.txt.nspans + 1;
lp->u.txt.span = ZALLOC(oldsz + 1, lp->u.txt.span, textspan_t, oldsz);
span = &(lp->u.txt.span[lp->u.txt.nspans]);
span->str = line;
span->just = terminator;
if (line && line[0]) {
tf.name = lp->fontname;
tf.size = lp->fontsize;
span->font = dtinsert(gvc->textfont_dt, &tf);
size = textspan_size(gvc, span);
}
else {
size.x = 0.0;
span->size.y = size.y = (int)(lp->fontsize * LINESPACING);
}
lp->u.txt.nspans++;
/* width = max line width */
lp->dimen.x = MAX(lp->dimen.x, size.x);
/* accumulate height */
lp->dimen.y += size.y;
}
/* insertNodeset:
* Add a node into the nodeset.
*/
void insertNodeset(nodeset_t * ns, Agnode_t * n)
{
nsitem_t key;
key.np = n;
dtinsert(ns, &key);
}
poly_t *createpoly (polydata_t *pdp) {
poly_t *pmemp, *pp;
pmemp = pp = NULL;
if (!(pmemp = vmalloc (pvm, sizeof (poly_t))))
goto abortcreatepoly;
pmemp->cenid = pdp->cenid;
pmemp->polyid = pdp->polyid;
if (!(pp = dtinsert (polydict, pmemp)))
goto abortcreatepoly;
if (pp != pmemp) {
vmfree (pvm, pmemp);
return pp;
}
if (!(pp->edgeps = vmalloc (Vmheap, 4 * sizeof (edge_t *))))
goto abortcreatepoly;
pp->edgepn = 4;
pp->edgepl = 0;
pp->mark = 0;
return pp;
abortcreatepoly:
SUwarning (
1, "createpoly", "create failed for poly %d/%d", pdp->cenid, pdp->polyid
);
if (pp) {
if (pp == pmemp)
dtdelete (polydict, pp);
if (pp->edgeps)
vmfree (Vmheap, pp->edgeps);
}
if (pmemp)
vmfree (pvm, pmemp);
return NULL;
}
void addPS(PointSet * ps, int x, int y)
{
point pt;
pt.x = x;
pt.y = y;
dtinsert(ps, mkPair(pt));
}
void
addIntSet (Dt_t* is, int v)
{
intitem obj;
obj.id = v;
dtinsert(is, &obj);
}
int
ptdelete(Pt_t* tab, Ptaddr_t min, Ptaddr_t max)
{
register Ptprefix_t* xp;
Ptprefix_t key;
Ptprefix_t cur;
tab->entries++;
key.min = min;
key.max = max;
if (xp = (Ptprefix_t*)dtsearch(tab->dict, &key))
{
do
{
cur.min = xp->min;
cur.max = xp->max;
dtdelete(tab->dict, xp);
if (key.min > cur.min)
{
max = cur.max;
cur.max = key.min - 1;
if (!dtinsert(tab->dict, &cur))
goto bad;
if (key.max < max)
{
cur.min = key.max + 1;
cur.max = max;
if (!dtinsert(tab->dict, &cur))
goto bad;
break;
}
}
else if (key.max < xp->max)
{
xp->min = key.max + 1;
if (!dtinsert(tab->dict, xp))
goto bad;
}
} while (xp = (Ptprefix_t*)dtnext(tab->dict, xp));
}
return 0;
bad:
if (tab->disc->errorf)
(*tab->disc->errorf)(NiL, tab->disc, ERROR_SYSTEM|2, "out of space");
return -1;
}
void insertPS(PointSet * ps, point pt)
{
pair *pp;
pp = mkPair(pt);
if (dtinsert(ps, pp) != pp)
free(pp);
}
/* insertDeglist:
* Add a node to the node list.
* Nodes are kept sorted by DEGREE, smallest degrees first.
*/
void insertDeglist(deglist_t * ns, Agnode_t * n)
{
degitem key;
degitem *kp;
key.deg = DEGREE(n);
kp = dtinsert(ns, &key);
ND_next(n) = kp->np;
kp->np = n;
}
static textfont_t *mkFont(GVC_t *gvc, char **atts, int flags, int ul)
{
textfont_t tf = {NULL,NULL,NULL,0.0,0,0};
tf.size = -1.0; /* unassigned */
tf.flags = flags;
if (atts)
doAttrs(&tf, font_items, sizeof(font_items) / ISIZE, atts, "<FONT>");
return dtinsert(gvc->textfont_dt, &tf);
}
void addPS(PointSet * ps, int x, int y)
{
point pt;
pair *pp;
pt.x = x;
pt.y = y;
pp = mkPair(pt);
if (dtinsert(ps, pp) != pp)
free(pp);
}
int insertPM(PointMap * pm, int x, int y, int v)
{
mpair *p;
mpair dummy;
dummy.id.x = x;
dummy.id.y = y;
dummy.v = v;
p = dtinsert(pm, &dummy);
return p->v;
}
static void associate(Agraph_t *model, void *key, rep_t val)
{
Dict_t *dict;
repkey_t *newelt;
assert(association(model,key).type == 0);
dict = repdict(model);
newelt = NEW(repkey_t);
newelt->key = key;
newelt->val = val;
dtinsert(dict,newelt);
}
int
pssttyadd(register Pss_t* pss, const char* name, Pss_dev_t dev)
{
register Tty_t* tty;
if (!dtmatch(pss->ttybyname, name))
{
if (!(tty = vmnewof(pss->vm, 0, Tty_t, 1, strlen(name))))
{
if (pss->disc->errorf)
(*pss->disc->errorf)(pss, pss->disc, ERROR_SYSTEM|2, "out of space");
return -1;
}
strcpy(tty->name, name);
tty->dev = dev;
dtinsert(pss->ttybyname, tty);
if (!dtmatch(pss->ttybydev, &dev))
dtinsert(pss->ttybydev, tty);
}
return 0;
}
tmain()
{
Dt_t* dt;
Obj_t *o, proto;
long i, k, count, n;
for(i = 0; i < N_OBJ; i = k)
{ for(k = i; k < i+R_OBJ && k < N_OBJ; ++k)
{ Obj[k].key = i;
Obj[k].ord = k;
}
}
for(k = 0; k < 2; ++k)
{ if(!(dt = dtopen(&Disc, k == 0 ? Dtrhbag : Dtobag)) )
terror("Opening dictionary");
dtcustomize(dt, DT_SHARE, 1); /* turn on sharing */
for(i = 0; i < N_OBJ; ++i)
{ if(dtinsert(dt, Obj+i) != Obj+i)
terror("Insert %d,%d", Obj[i].key, Obj[i].ord);
if(i > 0 && (i%N_CHK) == 0)
if((count = dtsize(dt)) != i+1)
terror("Bad size %d (need %d)", count, i+1);
}
count = n = 0; /* count the group of elements with key == 0 */
for(o = (Obj_t*)dtflatten(dt); o; o = (Obj_t*)dtlink(dt,o), count += 1)
if(o->key == 0)
n += 1;
if(count != N_OBJ || n != R_OBJ)
terror("flatten %s: count=%d(need=%d) n=%d(need=%d)",
k == 0 ? "bag" : "obag", count, N_OBJ, n, R_OBJ);
/* delete a bunch of objects */
for(n = 0, i = 0; i < N_OBJ; i += R_OBJ, n += 1)
if(!dtdelete(dt, Obj+i))
terror("delete %s: i=%d",
k == 0 ? "bag" : "obag", i);
count = 0; /* count the left over */
for(o = (Obj_t*)dtflatten(dt); o; o = (Obj_t*)dtlink(dt,o))
count += 1;
if(count != N_OBJ-n)
terror("%s wrong count %d",
k == 0 ? "bag" : "obag", count);
dtclose(dt);
}
texit(0);
}
tmain() {
UNUSED(argc);
UNUSED(argv);
pthread_t thread[N_THREADS];
size_t k, p, n;
Mydisc_t disc[2];
Obj_t *o, *list[2], obj;
topts();
/* create two dictionaries to volley objects back and forth */
for (n = 0; n < 2; ++n) {
if (!(Dict[n] = opendictionary(&disc[n]))) terror("Can't open dictionary %d", n);
/* make objects */
if (!(list[n] = malloc((N_OBJ / 2) * sizeof(Obj_t)))) terror("malloc failed %d", n);
memset(list[n], 0, (N_OBJ / 2) * sizeof(Obj_t));
for (o = list[n], k = 0; k < N_OBJ / 2; ++k, ++o) {
o->value = n == 0 ? k : k + N_OBJ / 2;
if (dtinsert(Dict[n], o) != o) terror("Insert failed n=%d k=%d", n, k);
if (dtsearch(Dict[n], o) != o) { /* verify insert succeeded */
terror("Search failed n=%d k=%d", n, k);
}
o->ins[n] += 1;
}
}
for (p = 0; p < N_THREADS; ++p) pthread_create(&thread[p], 0, volley, (void *)((long)(p % 2)));
for (p = 0; p < N_THREADS; ++p) pthread_join(thread[p], 0);
tinfo("\tCheck integrity");
n = dtsize(Dict[0]);
p = dtsize(Dict[1]);
tinfo("Dict[0]=%d Dict[1]=%d", n, p);
if ((n + p) != N_OBJ) {
for (k = 0; k < N_OBJ; ++k) {
obj.value = k;
if ((o = dtsearch(Dict[0], &obj))) continue;
if ((o = dtsearch(Dict[1], &obj))) continue;
terror("%d not found", k);
dtsearch(Dict[0], &obj);
dtsearch(Dict[1], &obj);
}
terror("Expecting %d objects but got (Dict[0]=%d + Dict[1]=%d) = %d", N_OBJ, n, p, n + p);
}
texit(0);
}
tmain() {
UNUSED(argc);
UNUSED(argv);
Dt_t *dt;
/* testing Dtqueue */
if (!(dt = dtopen(&Disc, Dtqueue))) terror("dtopen queue");
if ((long)dtinsert(dt, 1L) != 1) terror("Dtqueue insert 1");
if ((long)dtinsert(dt, 3L) != 3) terror("Dtqueue insert 3.1");
if ((long)dtinsert(dt, 2L) != 2) terror("Dtqueue insert 2.1");
if ((long)dtinsert(dt, 3L) != 3) terror("Dtqueue insert 3.2");
if ((long)dtinsert(dt, 2L) != 2) terror("Dtqueue insert 2.2");
if ((long)dtinsert(dt, 3L) != 3) terror("Dtqueue insert 3.3");
if ((long)dtlast(dt) != 3) terror("Dtqueue dtlast");
if ((long)dtprev(dt, 3L) != 2) terror("Dtqueue dtprev 3.3");
if ((long)dtprev(dt, 2L) != 3) terror("Dtqueue dtprev 2.2");
if ((long)dtprev(dt, 3L) != 2) terror("Dtqueue dtprev 3.2");
if ((long)dtprev(dt, 2L) != 3) terror("Dtqueue dtprev 2.1");
if ((long)dtprev(dt, 3L) != 1) terror("Dtqueue dtprev 3.1");
if ((long)dtprev(dt, 1L) != 0) terror("Dtqueue dtprev 1");
if ((long)dtdelete(dt, NULL) != 1) terror("Dtqueue pop 1");
if ((long)dtdelete(dt, NULL) != 3) terror("Dtqueue delete 3.1");
if ((long)dtdelete(dt, NULL) != 2) terror("Dtqueue delete 2");
if ((long)dtdelete(dt, NULL) != 3) terror("Dtqueue delete 3.2");
if ((long)dtdelete(dt, NULL) != 2) terror("Dtqueue delete 2.1");
if ((long)dtdelete(dt, NULL) != 3) terror("Dtqueue delete 3.3");
if (dtsize(dt) != 0) terror("Dtqueue size");
texit(0);
}
/* addGrid:
* Add node n to cell (i,j) in grid g.
*/
void addGrid(Grid * g, int i, int j, Agnode_t * n)
{
cell *cellp;
cell key;
key.p.i = i;
key.p.j = j;
cellp = dtinsert(g->data, &key);
cellp->nodes = newNode(g, n, cellp->nodes);
if (Verbose >= 3) {
fprintf(stderr, "grid(%d,%d): %s\n", i, j, agnameof(n));
}
}
/* constrainY:
* See constrainX.
*/
static void constrainY(graph_t* g, nitem* nlist, int nnodes, intersectfn ifn,
int ortho)
{
Dt_t *list = dtopen(&constr, Dtobag);
nitem *p = nlist;
graph_t *cg;
int i;
for (i = 0; i < nnodes; i++) {
p->val = p->pos.y;
dtinsert(list, p);
p++;
}
if (ortho)
cg = mkConstraintG(g, list, ifn, distY);
else
cg = mkNConstraintG(g, list, ifn, distY);
rank(cg, 2, INT_MAX);
#ifdef DEBUG
{
Agsym_t *mlsym = agedgeattr(cg, "minlen", "");
Agsym_t *rksym = agnodeattr(cg, "rank", "");
char buf[100];
node_t *n;
edge_t *e;
for (n = agfstnode(cg); n; n = agnxtnode(cg, n)) {
sprintf(buf, "%d", ND_rank(n));
agxset(n, rksym->index, buf);
for (e = agfstedge(cg, n); e; e = agnxtedge(cg, e, n)) {
sprintf(buf, "%d", ED_minlen(e));
agxset(e, mlsym->index, buf);
}
}
}
#endif
p = nlist;
for (i = 0; i < nnodes; i++) {
int newpos, oldpos, delta;
oldpos = p->pos.y;
newpos = ND_rank(p->cnode);
delta = newpos - oldpos;
p->pos.y = newpos;
p->bb.LL.y += delta;
p->bb.UR.y += delta;
p++;
}
closeGraph(cg);
dtclose(list);
}
tmain()
{
Dt_t* dt;
/* testing Dtstack */
if(!(dt = dtopen(&Disc,Dtstack)) )
terror("dtopen stack");
if((long)dtinsert(dt,1L) != 1)
terror("Dtstack insert 1");
if((long)dtinsert(dt,3L) != 3)
terror("Dtstack insert 3.1");
if((long)dtinsert(dt,2L) != 2)
terror("Dtstack insert 2.1");
if((long)dtinsert(dt,3L) != 3)
terror("Dtstack insert 3.2");
if((long)dtinsert(dt,2L) != 2)
terror("Dtstack insert 2.2");
if((long)dtinsert(dt,3L) != 3)
terror("Dtstack insert 3.3");
if((long)dtlast(dt) != 1)
terror("Dtstack dtlast");
if((long)dtprev(dt,1L) != 3)
terror("Dtstack dtprev 1");
if((long)dtprev(dt,3L) != 2)
terror("Dtstack dtprev 3.1");
if((long)dtprev(dt,2L) != 3)
terror("Dtstack dtprev 2.1");
if((long)dtprev(dt,3L) != 2)
terror("Dtstack dtprev 3.2");
if((long)dtprev(dt,2L) != 3)
terror("Dtstack dtprev 2.2");
if((long)dtprev(dt,3L) != 0)
terror("Dtstack dtprev 3.2");
if((long)dtdelete(dt,NIL(Void_t*)) != 3)
terror("Dtstack pop 3.3");
/* search to one of the 3 */
if((long)dtsearch(dt,3L) != 3)
terror("Dtstack search 3.2");
if((long)dtdelete(dt,3L) != 3)
terror("Dtstack delete 3.2");
if((long)dtdelete(dt,NIL(Void_t*)) != 2)
terror("Dtstack pop 2.2");
if((long)dtdelete(dt,NIL(Void_t*)) != 2)
terror("Dtstack pop 2.1");
if((long)dtdelete(dt,NIL(Void_t*)) != 3)
terror("Dtstack pop 3.1");
if((long)dtdelete(dt,NIL(Void_t*)) != 1)
terror("Dtstack pop 1");
if(dtsize(dt) != 0)
terror("Dtstack size");
texit(0);
}
int updatePM(PointMap * pm, int x, int y, int v)
{
mpair *p;
mpair dummy;
int old;
dummy.id.x = x;
dummy.id.y = y;
dummy.v = v;
p = dtinsert(pm, &dummy);
old = p->v;
p->v = v;
return old;
}
static void insert (Dt_t* map, char* name, int v)
{
intm* ip = (intm*)dtmatch(map, name);
if (ip) {
if (ip->v != v)
agerr(AGWARN, "Duplicate cluster name \"%s\"\n", name);
return;
}
ip = NEW(intm);
ip->id = strdup(name);
ip->v = v;
dtinsert (map, ip);
}
void Grid::add(int i, int j, FDPModel::Node *n) {
Cell *cellp;
Cell key;
key.p.i = i;
key.p.j = j;
cellp = reinterpret_cast<Cell*>(dtinsert(this, &key));
cellp->nodes.push_front(n);
/*
if(Verbose >= 3) {
fprintf(stderr, "grid(%d,%d): %s\n", i, j, n->name);
}
*/
}
