void leaveCB(Widget w, XtPointer client_data, XtPointer calld)
{
double *datap;
String **cells;
char buf[128];
EditPoints *ep = (EditPoints *) client_data;
XbaeMatrixLeaveCellCallbackStruct *cs =
(XbaeMatrixLeaveCellCallbackStruct *) calld;
XtVaGetValues(w, XmNcells, &cells, NULL);
datap = getcol(ep->gno, ep->setno, cs->column);
sprintf(buf, scformat[(ep->cformat[cs->column])], ep->cprec[cs->column],
datap[cs->row]);
if (strcmp(buf, cs->value) != 0) {
String s = (String) XtMalloc(sizeof(char) * (strlen(buf) + 1));
strcpy(s, buf);
cells[cs->row][cs->column] = s;
datap[cs->row] = atof(cs->value);
updatesetminmax(ep->gno, ep->setno);
update_set_status(ep->gno, ep->setno);
drawgraph();
}
}
static void eblock_accept_notify_proc(Widget, XtPointer, XtPointer)
{
int i = 0;
char buf[256];
int setno, graphno;
int cx, cy, c1 = 0, c2 = 0, c3 = 0, c4 = 0; //d1,
double *tx, *ty, *t2, *t3, *t4, *t5;
//d1 = (int) GetChoice(eblock_type_choice_item);
cx = (int)GetChoice(eblock_x_choice_item) - 1;
cy = (int)GetChoice(eblock_y_choice_item);
if (cx >= 0 && cx >= blockncols)
{
errwin("Column for X exceeds the number of columns in block data");
return;
}
if (cy >= blockncols)
{
errwin("Column for Y exceeds the number of columns in block data");
return;
}
switch (block_curtype)
{
case XY:
break;
case XYRT:
case XYDX:
case XYDY:
case XYZ:
c1 = (int)GetChoice(eblock_e1_choice_item);
if (c1 >= blockncols)
{
errwin("Column for E1 exceeds the number of columns in block data");
return;
}
break;
case XYDXDX:
case XYDYDY:
case XYDXDY:
c1 = (int)GetChoice(eblock_e1_choice_item);
c2 = (int)GetChoice(eblock_e2_choice_item);
if (c1 >= blockncols)
{
errwin("Column for E1 exceeds the number of columns in block data");
return;
}
if (c2 >= blockncols)
{
errwin("Column for E2 exceeds the number of columns in block data");
return;
}
break;
case XYHILO:
case XYBOX:
c1 = (int)GetChoice(eblock_e1_choice_item);
c2 = (int)GetChoice(eblock_e2_choice_item);
c3 = (int)GetChoice(eblock_e3_choice_item);
if (c1 >= blockncols)
{
errwin("Column for E1 exceeds the number of columns in block data");
return;
}
if (c2 >= blockncols)
{
errwin("Column for E2 exceeds the number of columns in block data");
return;
}
if (c3 >= blockncols)
{
errwin("Column for E3 exceeds the number of columns in block data");
return;
}
break;
case XYBOXPLOT:
c1 = (int)GetChoice(eblock_e1_choice_item);
c2 = (int)GetChoice(eblock_e2_choice_item);
c3 = (int)GetChoice(eblock_e3_choice_item);
c4 = (int)GetChoice(eblock_e4_choice_item);
if (c1 >= blockncols)
{
errwin("Column for E1 exceeds the number of columns in block data");
return;
}
if (c2 >= blockncols)
{
errwin("Column for E2 exceeds the number of columns in block data");
return;
}
if (c3 >= blockncols)
{
errwin("Column for E3 exceeds the number of columns in block data");
return;
}
if (c4 >= blockncols)
{
errwin("Column for E4 exceeds the number of columns in block data");
return;
}
}
setno = -1;
graphno = (int)GetChoice(eblock_graph_choice_item) - 1;
if (graphno == -1)
{
graphno = cg;
}
if (setno == -1)
{
setno = nextset(graphno);
}
if (setno == -1)
{
return;
}
if (g[graphno].active == OFF)
{
set_graph_active(graphno);
}
activateset(graphno, setno);
settype(graphno, setno, block_curtype);
tx = (double *)calloc(blocklen, sizeof(double));
if (tx == NULL)
{
errwin("Can't allocate memory for X");
return;
}
ty = (double *)calloc(blocklen, sizeof(double));
if (ty == NULL)
{
cfree(tx);
errwin("Can't allocate memory for Y");
return;
}
for (i = 0; i < blocklen; i++)
{
if (cx == -1)
{
tx[i] = i + 1;
}
else
{
tx[i] = blockdata[cx][i];
}
ty[i] = blockdata[cy][i];
}
setcol(graphno, tx, setno, blocklen, 0);
setcol(graphno, ty, setno, blocklen, 1);
switch (block_curtype)
{
case XY:
sprintf(buf, "Cols %d %d", cx + 1, cy + 1);
break;
case XYRT:
case XYDX:
case XYDY:
case XYZ:
sprintf(buf, "Cols %d %d %d", cx + 1, cy + 1, c1 + 1);
t2 = (double *)calloc(blocklen, sizeof(double));
for (i = 0; i < blocklen; i++)
{
t2[i] = blockdata[c1][i];
}
setcol(graphno, t2, setno, blocklen, 2);
break;
case XYDXDX:
case XYDYDY:
case XYDXDY:
sprintf(buf, "Cols %d %d %d %d", cx + 1, cy + 1, c1 + 1, c2 + 1);
t2 = (double *)calloc(blocklen, sizeof(double));
t3 = (double *)calloc(blocklen, sizeof(double));
for (i = 0; i < blocklen; i++)
{
t2[i] = blockdata[c1][i];
t3[i] = blockdata[c2][i];
}
setcol(graphno, t2, setno, blocklen, 2);
setcol(graphno, t3, setno, blocklen, 3);
break;
case XYHILO:
case XYBOX:
sprintf(buf, "Cols %d %d %d %d %d", cx + 1, cy + 1, c1 + 1, c2 + 1, c3 + 1);
t2 = (double *)calloc(blocklen, sizeof(double));
t3 = (double *)calloc(blocklen, sizeof(double));
t4 = (double *)calloc(blocklen, sizeof(double));
for (i = 0; i < blocklen; i++)
{
t2[i] = blockdata[c1][i];
t3[i] = blockdata[c2][i];
t4[i] = blockdata[c3][i];
}
setcol(graphno, t2, setno, blocklen, 2);
setcol(graphno, t3, setno, blocklen, 3);
setcol(graphno, t4, setno, blocklen, 4);
break;
case XYBOXPLOT:
sprintf(buf, "Cols %d %d %d %d %d %d", cx + 1, cy + 1, c1 + 1, c2 + 1, c3 + 1, c4 + 1);
t2 = (double *)calloc(blocklen, sizeof(double));
t3 = (double *)calloc(blocklen, sizeof(double));
t4 = (double *)calloc(blocklen, sizeof(double));
t5 = (double *)calloc(blocklen, sizeof(double));
for (i = 0; i < blocklen; i++)
{
t2[i] = blockdata[c1][i];
t3[i] = blockdata[c2][i];
t4[i] = blockdata[c3][i];
t5[i] = blockdata[c4][i];
}
setcol(graphno, t2, setno, blocklen, 2);
setcol(graphno, t3, setno, blocklen, 3);
setcol(graphno, t4, setno, blocklen, 4);
setcol(graphno, t5, setno, blocklen, 5);
break;
}
setcomment(graphno, setno, buf);
updatesetminmax(graphno, setno);
update_status_popup(NULL, NULL, NULL);
drawgraph();
}
void flipxy(int gno)
{
int i, j;
tickmarks t;
double *x, *y;
for (i = 0; i < MAXAXES; i += 2)
{
memcpy(&t, &g[gno].t[i], sizeof(tickmarks));
memcpy(&g[gno].t[i], &g[gno].t[i + 1], sizeof(tickmarks));
memcpy(&g[gno].t[i + 1], &t, sizeof(tickmarks));
if (g[gno].t[i].t_op == RIGHT)
{
g[gno].t[i].t_op = TOP;
}
else if (g[gno].t[i].t_op == LEFT)
{
g[gno].t[i].t_op = BOTTOM;
}
if (g[gno].t[i].tl_op == RIGHT)
{
g[gno].t[i].tl_op = TOP;
}
else if (g[gno].t[i].tl_op == LEFT)
{
g[gno].t[i].tl_op = BOTTOM;
}
if (g[gno].t[i + 1].t_op == TOP)
{
g[gno].t[i + 1].t_op = RIGHT;
}
else if (g[gno].t[i + 1].t_op == BOTTOM)
{
g[gno].t[i + 1].t_op = LEFT;
}
if (g[gno].t[i + 1].tl_op == TOP)
{
g[gno].t[i + 1].tl_op = RIGHT;
}
else if (g[gno].t[i + 1].tl_op == BOTTOM)
{
g[gno].t[i + 1].tl_op = LEFT;
}
}
if (g[gno].type == LOGX)
{
g[gno].type = LOGY;
}
else if (g[gno].type == LOGY)
{
g[gno].type = LOGX;
}
fswap(&g[gno].w.xg1, &g[gno].w.yg1);
fswap(&g[gno].w.xg2, &g[gno].w.yg2);
fswap(&g[gno].dsx, &g[gno].dsy);
iswap(&g[gno].fx, &g[gno].fy);
iswap(&g[gno].px, &g[gno].py);
for (i = 0; i < g[gno].maxplot; i++)
{
if (isactive(gno, i))
{
x = getx(gno, i); /* TODO really need to just swap pointers */
y = gety(gno, i);
for (j = 0; j < getsetlength(gno, i); j++)
{
fswap(&x[j], &y[j]);
}
updatesetminmax(gno, i);
}
}
update_all(gno);
}
