solvespace/src/file.cpp
whitequark 5e63d8301e Add a simple harness for automated, headless testing.
This commit alters the build system substantially; it adds another
platform, `headless`, that provides stubs in place of all GUI
functions, and provides a library `solvespace_headless` alongside
the main executable. To cut down build times, only the few files
that have #if defined(HEADLESS) are built twice for the executable
and the library; the rest is grouped into a new `solvespace_cad`
library. It is not usable on its own and just serves for grouping.

This commit also gates the tests behind a -DENABLE_TESTS=ON CMake
option, ON by default (but suggested as OFF in the README so that
people don't ever have to install cairo to build the executable.)

The tests introduced in this commit are (so far) rudimentary,
although functional, and they serve as a stepping point towards
introducing coverage analysis.
2016-08-01 00:48:37 +00:00

825 lines
32 KiB
C++

//-----------------------------------------------------------------------------
// Routines to write and read our .slvs file format.
//
// Copyright 2008-2013 Jonathan Westhues.
//-----------------------------------------------------------------------------
#include "solvespace.h"
#define VERSION_STRING "\261\262\263" "SolveSpaceREVa"
static int StrStartsWith(const char *str, const char *start) {
return memcmp(str, start, strlen(start)) == 0;
}
//-----------------------------------------------------------------------------
// Clear and free all the dynamic memory associated with our currently-loaded
// sketch. This does not leave the program in an acceptable state (with the
// references created, and so on), so anyone calling this must fix that later.
//-----------------------------------------------------------------------------
void SolveSpaceUI::ClearExisting() {
UndoClearStack(&redo);
UndoClearStack(&undo);
for(int i = 0; i < SK.groupOrder.n; i++) {
Group *g = SK.GetGroup(SK.groupOrder.elem[i]);
g->Clear();
}
SK.constraint.Clear();
SK.request.Clear();
SK.group.Clear();
SK.groupOrder.Clear();
SK.style.Clear();
SK.entity.Clear();
SK.param.Clear();
}
hGroup SolveSpaceUI::CreateDefaultDrawingGroup() {
Group g = {};
// And an empty group, for the first stuff the user draws.
g.visible = true;
g.name = "sketch-in-plane";
g.type = Group::Type::DRAWING_WORKPLANE;
g.subtype = Group::Subtype::WORKPLANE_BY_POINT_ORTHO;
g.order = 1;
g.predef.q = Quaternion::From(1, 0, 0, 0);
hRequest hr = Request::HREQUEST_REFERENCE_XY;
g.predef.origin = hr.entity(1);
SK.group.AddAndAssignId(&g);
SK.GetGroup(g.h)->activeWorkplane = g.h.entity(0);
return g.h;
}
void SolveSpaceUI::NewFile() {
ClearExisting();
// Our initial group, that contains the references.
Group g = {};
g.visible = true;
g.name = "#references";
g.type = Group::Type::DRAWING_3D;
g.order = 0;
g.h = Group::HGROUP_REFERENCES;
SK.group.Add(&g);
// Let's create three two-d coordinate systems, for the coordinate
// planes; these are our references, present in every sketch.
Request r = {};
r.type = Request::Type::WORKPLANE;
r.group = Group::HGROUP_REFERENCES;
r.workplane = Entity::FREE_IN_3D;
r.h = Request::HREQUEST_REFERENCE_XY;
SK.request.Add(&r);
r.h = Request::HREQUEST_REFERENCE_YZ;
SK.request.Add(&r);
r.h = Request::HREQUEST_REFERENCE_ZX;
SK.request.Add(&r);
CreateDefaultDrawingGroup();
}
const SolveSpaceUI::SaveTable SolveSpaceUI::SAVED[] = {
{ 'g', "Group.h.v", 'x', &(SS.sv.g.h.v) },
{ 'g', "Group.type", 'd', &(SS.sv.g.type) },
{ 'g', "Group.order", 'd', &(SS.sv.g.order) },
{ 'g', "Group.name", 'S', &(SS.sv.g.name) },
{ 'g', "Group.activeWorkplane.v", 'x', &(SS.sv.g.activeWorkplane.v) },
{ 'g', "Group.opA.v", 'x', &(SS.sv.g.opA.v) },
{ 'g', "Group.opB.v", 'x', &(SS.sv.g.opB.v) },
{ 'g', "Group.valA", 'f', &(SS.sv.g.valA) },
{ 'g', "Group.valB", 'f', &(SS.sv.g.valB) },
{ 'g', "Group.valC", 'f', &(SS.sv.g.valB) },
{ 'g', "Group.color", 'c', &(SS.sv.g.color) },
{ 'g', "Group.subtype", 'd', &(SS.sv.g.subtype) },
{ 'g', "Group.skipFirst", 'b', &(SS.sv.g.skipFirst) },
{ 'g', "Group.meshCombine", 'd', &(SS.sv.g.meshCombine) },
{ 'g', "Group.forceToMesh", 'd', &(SS.sv.g.forceToMesh) },
{ 'g', "Group.predef.q.w", 'f', &(SS.sv.g.predef.q.w) },
{ 'g', "Group.predef.q.vx", 'f', &(SS.sv.g.predef.q.vx) },
{ 'g', "Group.predef.q.vy", 'f', &(SS.sv.g.predef.q.vy) },
{ 'g', "Group.predef.q.vz", 'f', &(SS.sv.g.predef.q.vz) },
{ 'g', "Group.predef.origin.v", 'x', &(SS.sv.g.predef.origin.v) },
{ 'g', "Group.predef.entityB.v", 'x', &(SS.sv.g.predef.entityB.v) },
{ 'g', "Group.predef.entityC.v", 'x', &(SS.sv.g.predef.entityC.v) },
{ 'g', "Group.predef.swapUV", 'b', &(SS.sv.g.predef.swapUV) },
{ 'g', "Group.predef.negateU", 'b', &(SS.sv.g.predef.negateU) },
{ 'g', "Group.predef.negateV", 'b', &(SS.sv.g.predef.negateV) },
{ 'g', "Group.visible", 'b', &(SS.sv.g.visible) },
{ 'g', "Group.suppress", 'b', &(SS.sv.g.suppress) },
{ 'g', "Group.relaxConstraints", 'b', &(SS.sv.g.relaxConstraints) },
{ 'g', "Group.allowRedundant", 'b', &(SS.sv.g.allowRedundant) },
{ 'g', "Group.allDimsReference", 'b', &(SS.sv.g.allDimsReference) },
{ 'g', "Group.scale", 'f', &(SS.sv.g.scale) },
{ 'g', "Group.remap", 'M', &(SS.sv.g.remap) },
{ 'g', "Group.impFile", 'S', &(SS.sv.g.linkFile) },
{ 'g', "Group.impFileRel", 'S', &(SS.sv.g.linkFileRel) },
{ 'p', "Param.h.v.", 'x', &(SS.sv.p.h.v) },
{ 'p', "Param.val", 'f', &(SS.sv.p.val) },
{ 'r', "Request.h.v", 'x', &(SS.sv.r.h.v) },
{ 'r', "Request.type", 'd', &(SS.sv.r.type) },
{ 'r', "Request.extraPoints", 'd', &(SS.sv.r.extraPoints) },
{ 'r', "Request.workplane.v", 'x', &(SS.sv.r.workplane.v) },
{ 'r', "Request.group.v", 'x', &(SS.sv.r.group.v) },
{ 'r', "Request.construction", 'b', &(SS.sv.r.construction) },
{ 'r', "Request.style", 'x', &(SS.sv.r.style) },
{ 'r', "Request.str", 'S', &(SS.sv.r.str) },
{ 'r', "Request.font", 'S', &(SS.sv.r.font) },
{ 'e', "Entity.h.v", 'x', &(SS.sv.e.h.v) },
{ 'e', "Entity.type", 'd', &(SS.sv.e.type) },
{ 'e', "Entity.construction", 'b', &(SS.sv.e.construction) },
{ 'e', "Entity.style", 'x', &(SS.sv.e.style) },
{ 'e', "Entity.str", 'S', &(SS.sv.e.str) },
{ 'e', "Entity.font", 'S', &(SS.sv.e.font) },
{ 'e', "Entity.point[0].v", 'x', &(SS.sv.e.point[0].v) },
{ 'e', "Entity.point[1].v", 'x', &(SS.sv.e.point[1].v) },
{ 'e', "Entity.point[2].v", 'x', &(SS.sv.e.point[2].v) },
{ 'e', "Entity.point[3].v", 'x', &(SS.sv.e.point[3].v) },
{ 'e', "Entity.point[4].v", 'x', &(SS.sv.e.point[4].v) },
{ 'e', "Entity.point[5].v", 'x', &(SS.sv.e.point[5].v) },
{ 'e', "Entity.point[6].v", 'x', &(SS.sv.e.point[6].v) },
{ 'e', "Entity.point[7].v", 'x', &(SS.sv.e.point[7].v) },
{ 'e', "Entity.point[8].v", 'x', &(SS.sv.e.point[8].v) },
{ 'e', "Entity.point[9].v", 'x', &(SS.sv.e.point[9].v) },
{ 'e', "Entity.point[10].v", 'x', &(SS.sv.e.point[10].v) },
{ 'e', "Entity.point[11].v", 'x', &(SS.sv.e.point[11].v) },
{ 'e', "Entity.extraPoints", 'd', &(SS.sv.e.extraPoints) },
{ 'e', "Entity.normal.v", 'x', &(SS.sv.e.normal.v) },
{ 'e', "Entity.distance.v", 'x', &(SS.sv.e.distance.v) },
{ 'e', "Entity.workplane.v", 'x', &(SS.sv.e.workplane.v) },
{ 'e', "Entity.actPoint.x", 'f', &(SS.sv.e.actPoint.x) },
{ 'e', "Entity.actPoint.y", 'f', &(SS.sv.e.actPoint.y) },
{ 'e', "Entity.actPoint.z", 'f', &(SS.sv.e.actPoint.z) },
{ 'e', "Entity.actNormal.w", 'f', &(SS.sv.e.actNormal.w) },
{ 'e', "Entity.actNormal.vx", 'f', &(SS.sv.e.actNormal.vx) },
{ 'e', "Entity.actNormal.vy", 'f', &(SS.sv.e.actNormal.vy) },
{ 'e', "Entity.actNormal.vz", 'f', &(SS.sv.e.actNormal.vz) },
{ 'e', "Entity.actDistance", 'f', &(SS.sv.e.actDistance) },
{ 'e', "Entity.actVisible", 'b', &(SS.sv.e.actVisible), },
{ 'c', "Constraint.h.v", 'x', &(SS.sv.c.h.v) },
{ 'c', "Constraint.type", 'd', &(SS.sv.c.type) },
{ 'c', "Constraint.group.v", 'x', &(SS.sv.c.group.v) },
{ 'c', "Constraint.workplane.v", 'x', &(SS.sv.c.workplane.v) },
{ 'c', "Constraint.valA", 'f', &(SS.sv.c.valA) },
{ 'c', "Constraint.ptA.v", 'x', &(SS.sv.c.ptA.v) },
{ 'c', "Constraint.ptB.v", 'x', &(SS.sv.c.ptB.v) },
{ 'c', "Constraint.entityA.v", 'x', &(SS.sv.c.entityA.v) },
{ 'c', "Constraint.entityB.v", 'x', &(SS.sv.c.entityB.v) },
{ 'c', "Constraint.entityC.v", 'x', &(SS.sv.c.entityC.v) },
{ 'c', "Constraint.entityD.v", 'x', &(SS.sv.c.entityD.v) },
{ 'c', "Constraint.other", 'b', &(SS.sv.c.other) },
{ 'c', "Constraint.other2", 'b', &(SS.sv.c.other2) },
{ 'c', "Constraint.reference", 'b', &(SS.sv.c.reference) },
{ 'c', "Constraint.comment", 'S', &(SS.sv.c.comment) },
{ 'c', "Constraint.disp.offset.x", 'f', &(SS.sv.c.disp.offset.x) },
{ 'c', "Constraint.disp.offset.y", 'f', &(SS.sv.c.disp.offset.y) },
{ 'c', "Constraint.disp.offset.z", 'f', &(SS.sv.c.disp.offset.z) },
{ 'c', "Constraint.disp.style", 'x', &(SS.sv.c.disp.style) },
{ 's', "Style.h.v", 'x', &(SS.sv.s.h.v) },
{ 's', "Style.name", 'S', &(SS.sv.s.name) },
{ 's', "Style.width", 'f', &(SS.sv.s.width) },
{ 's', "Style.widthAs", 'd', &(SS.sv.s.widthAs) },
{ 's', "Style.textHeight", 'f', &(SS.sv.s.textHeight) },
{ 's', "Style.textHeightAs", 'd', &(SS.sv.s.textHeightAs) },
{ 's', "Style.textAngle", 'f', &(SS.sv.s.textAngle) },
{ 's', "Style.textOrigin", 'x', &(SS.sv.s.textOrigin) },
{ 's', "Style.color", 'c', &(SS.sv.s.color) },
{ 's', "Style.fillColor", 'c', &(SS.sv.s.fillColor) },
{ 's', "Style.filled", 'b', &(SS.sv.s.filled) },
{ 's', "Style.visible", 'b', &(SS.sv.s.visible) },
{ 's', "Style.exportable", 'b', &(SS.sv.s.exportable) },
{ 's', "Style.stippleType", 'd', &(SS.sv.s.stippleType) },
{ 's', "Style.stippleScale", 'f', &(SS.sv.s.stippleScale) },
{ 0, NULL, 0, NULL }
};
struct SAVEDptr {
IdList<EntityMap,EntityId> &M() { return *((IdList<EntityMap,EntityId> *)this); }
std::string &S() { return *((std::string *)this); }
bool &b() { return *((bool *)this); }
RgbaColor &c() { return *((RgbaColor *)this); }
int &d() { return *((int *)this); }
double &f() { return *((double *)this); }
uint32_t &x() { return *((uint32_t *)this); }
};
void SolveSpaceUI::SaveUsingTable(int type) {
int i;
for(i = 0; SAVED[i].type != 0; i++) {
if(SAVED[i].type != type) continue;
int fmt = SAVED[i].fmt;
SAVEDptr *p = (SAVEDptr *)SAVED[i].ptr;
// Any items that aren't specified are assumed to be zero
if(fmt == 'S' && p->S().empty()) continue;
if(fmt == 'd' && p->d() == 0) continue;
if(fmt == 'f' && EXACT(p->f() == 0.0)) continue;
if(fmt == 'x' && p->x() == 0) continue;
fprintf(fh, "%s=", SAVED[i].desc);
switch(fmt) {
case 'S': fprintf(fh, "%s", p->S().c_str()); break;
case 'b': fprintf(fh, "%d", p->b() ? 1 : 0); break;
case 'c': fprintf(fh, "%08x", p->c().ToPackedInt()); break;
case 'd': fprintf(fh, "%d", p->d()); break;
case 'f': fprintf(fh, "%.20f", p->f()); break;
case 'x': fprintf(fh, "%08x", p->x()); break;
case 'M': {
int j;
fprintf(fh, "{\n");
for(j = 0; j < p->M().n; j++) {
EntityMap *em = &(p->M().elem[j]);
fprintf(fh, " %d %08x %d\n",
em->h.v, em->input.v, em->copyNumber);
}
fprintf(fh, "}");
break;
}
default: ssassert(false, "Unexpected value format");
}
fprintf(fh, "\n");
}
}
bool SolveSpaceUI::SaveToFile(const std::string &filename) {
// Make sure all the entities are regenerated up to date, since they
// will be exported. We reload the linked files because that rewrites
// the linkFileRel for our possibly-new filename.
SS.ScheduleShowTW();
SS.ReloadAllImported();
SS.GenerateAll(SolveSpaceUI::Generate::ALL);
fh = ssfopen(filename, "wb");
if(!fh) {
Error("Couldn't write to file '%s'", filename.c_str());
return false;
}
fprintf(fh, "%s\n\n\n", VERSION_STRING);
int i, j;
for(i = 0; i < SK.group.n; i++) {
sv.g = SK.group.elem[i];
SaveUsingTable('g');
fprintf(fh, "AddGroup\n\n");
}
for(i = 0; i < SK.param.n; i++) {
sv.p = SK.param.elem[i];
SaveUsingTable('p');
fprintf(fh, "AddParam\n\n");
}
for(i = 0; i < SK.request.n; i++) {
sv.r = SK.request.elem[i];
SaveUsingTable('r');
fprintf(fh, "AddRequest\n\n");
}
for(i = 0; i < SK.entity.n; i++) {
(SK.entity.elem[i]).CalculateNumerical(/*forExport=*/true);
sv.e = SK.entity.elem[i];
SaveUsingTable('e');
fprintf(fh, "AddEntity\n\n");
}
for(i = 0; i < SK.constraint.n; i++) {
sv.c = SK.constraint.elem[i];
SaveUsingTable('c');
fprintf(fh, "AddConstraint\n\n");
}
for(i = 0; i < SK.style.n; i++) {
sv.s = SK.style.elem[i];
if(sv.s.h.v >= Style::FIRST_CUSTOM) {
SaveUsingTable('s');
fprintf(fh, "AddStyle\n\n");
}
}
// A group will have either a mesh or a shell, but not both; but the code
// to print either of those just does nothing if the mesh/shell is empty.
Group *g = SK.GetGroup(SK.groupOrder.elem[SK.groupOrder.n - 1]);
SMesh *m = &g->runningMesh;
for(i = 0; i < m->l.n; i++) {
STriangle *tr = &(m->l.elem[i]);
fprintf(fh, "Triangle %08x %08x "
"%.20f %.20f %.20f %.20f %.20f %.20f %.20f %.20f %.20f\n",
tr->meta.face, tr->meta.color.ToPackedInt(),
CO(tr->a), CO(tr->b), CO(tr->c));
}
SShell *s = &g->runningShell;
SSurface *srf;
for(srf = s->surface.First(); srf; srf = s->surface.NextAfter(srf)) {
fprintf(fh, "Surface %08x %08x %08x %d %d\n",
srf->h.v, srf->color.ToPackedInt(), srf->face, srf->degm, srf->degn);
for(i = 0; i <= srf->degm; i++) {
for(j = 0; j <= srf->degn; j++) {
fprintf(fh, "SCtrl %d %d %.20f %.20f %.20f Weight %20.20f\n",
i, j, CO(srf->ctrl[i][j]), srf->weight[i][j]);
}
}
STrimBy *stb;
for(stb = srf->trim.First(); stb; stb = srf->trim.NextAfter(stb)) {
fprintf(fh, "TrimBy %08x %d %.20f %.20f %.20f %.20f %.20f %.20f\n",
stb->curve.v, stb->backwards ? 1 : 0,
CO(stb->start), CO(stb->finish));
}
fprintf(fh, "AddSurface\n");
}
SCurve *sc;
for(sc = s->curve.First(); sc; sc = s->curve.NextAfter(sc)) {
fprintf(fh, "Curve %08x %d %d %08x %08x\n",
sc->h.v,
sc->isExact ? 1 : 0, sc->exact.deg,
sc->surfA.v, sc->surfB.v);
if(sc->isExact) {
for(i = 0; i <= sc->exact.deg; i++) {
fprintf(fh, "CCtrl %d %.20f %.20f %.20f Weight %.20f\n",
i, CO(sc->exact.ctrl[i]), sc->exact.weight[i]);
}
}
SCurvePt *scpt;
for(scpt = sc->pts.First(); scpt; scpt = sc->pts.NextAfter(scpt)) {
fprintf(fh, "CurvePt %d %.20f %.20f %.20f\n",
scpt->vertex ? 1 : 0, CO(scpt->p));
}
fprintf(fh, "AddCurve\n");
}
fclose(fh);
return true;
}
void SolveSpaceUI::LoadUsingTable(char *key, char *val) {
int i;
for(i = 0; SAVED[i].type != 0; i++) {
if(strcmp(SAVED[i].desc, key)==0) {
SAVEDptr *p = (SAVEDptr *)SAVED[i].ptr;
unsigned int u = 0;
switch(SAVED[i].fmt) {
case 'S': p->S() = val; break;
case 'b': p->b() = (atoi(val) != 0); break;
case 'd': p->d() = atoi(val); break;
case 'f': p->f() = atof(val); break;
case 'x': sscanf(val, "%x", &u); p->x()= u; break;
case 'c':
sscanf(val, "%x", &u);
p->c() = RgbaColor::FromPackedInt(u);
break;
case 'P':
p->S() = val;
break;
case 'M': {
// Don't clear this list! When the group gets added, it
// makes a shallow copy, so that would result in us
// freeing memory that we want to keep around. Just
// zero it out so that new memory is allocated.
p->M() = {};
for(;;) {
EntityMap em;
char line2[1024];
if (fgets(line2, (int)sizeof(line2), fh) == NULL)
break;
if(sscanf(line2, "%d %x %d", &(em.h.v), &(em.input.v),
&(em.copyNumber)) == 3)
{
p->M().Add(&em);
} else {
break;
}
}
break;
}
default: ssassert(false, "Unexpected value format");
}
break;
}
}
if(SAVED[i].type == 0) {
fileLoadError = true;
}
}
bool SolveSpaceUI::LoadFromFile(const std::string &filename) {
allConsistent = false;
fileLoadError = false;
fh = ssfopen(filename, "rb");
if(!fh) {
Error("Couldn't read from file '%s'", filename.c_str());
return false;
}
ClearExisting();
sv = {};
sv.g.scale = 1; // default is 1, not 0; so legacy files need this
Style::FillDefaultStyle(&sv.s);
char line[1024];
while(fgets(line, (int)sizeof(line), fh)) {
char *s = strchr(line, '\n');
if(s) *s = '\0';
// We should never get files with \r characters in them, but mailers
// will sometimes mangle attachments.
s = strchr(line, '\r');
if(s) *s = '\0';
if(*line == '\0') continue;
char *e = strchr(line, '=');
if(e) {
*e = '\0';
char *key = line, *val = e+1;
LoadUsingTable(key, val);
} else if(strcmp(line, "AddGroup")==0) {
// legacy files have a spurious dependency between linked groups
// and their parent groups, remove
if(sv.g.type == Group::Type::LINKED)
sv.g.opA.v = 0;
SK.group.Add(&(sv.g));
sv.g = {};
sv.g.scale = 1; // default is 1, not 0; so legacy files need this
} else if(strcmp(line, "AddParam")==0) {
// params are regenerated, but we want to preload the values
// for initial guesses
SK.param.Add(&(sv.p));
sv.p = {};
} else if(strcmp(line, "AddEntity")==0) {
// entities are regenerated
} else if(strcmp(line, "AddRequest")==0) {
SK.request.Add(&(sv.r));
sv.r = {};
} else if(strcmp(line, "AddConstraint")==0) {
SK.constraint.Add(&(sv.c));
sv.c = {};
} else if(strcmp(line, "AddStyle")==0) {
SK.style.Add(&(sv.s));
sv.s = {};
Style::FillDefaultStyle(&sv.s);
} else if(strcmp(line, VERSION_STRING)==0) {
// do nothing, version string
} else if(StrStartsWith(line, "Triangle ") ||
StrStartsWith(line, "Surface ") ||
StrStartsWith(line, "SCtrl ") ||
StrStartsWith(line, "TrimBy ") ||
StrStartsWith(line, "Curve ") ||
StrStartsWith(line, "CCtrl ") ||
StrStartsWith(line, "CurvePt ") ||
strcmp(line, "AddSurface")==0 ||
strcmp(line, "AddCurve")==0)
{
// ignore the mesh or shell, since we regenerate that
} else {
fileLoadError = true;
}
}
fclose(fh);
if(fileLoadError) {
Error("Unrecognized data in file. This file may be corrupt, or "
"from a new version of the program.");
// At least leave the program in a non-crashing state.
if(SK.group.n == 0) {
NewFile();
}
}
return true;
}
bool SolveSpaceUI::LoadEntitiesFromFile(const std::string &filename, EntityList *le,
SMesh *m, SShell *sh)
{
SSurface srf = {};
SCurve crv = {};
fh = ssfopen(filename, "rb");
if(!fh) return false;
le->Clear();
sv = {};
char line[1024];
while(fgets(line, (int)sizeof(line), fh)) {
char *s = strchr(line, '\n');
if(s) *s = '\0';
// We should never get files with \r characters in them, but mailers
// will sometimes mangle attachments.
s = strchr(line, '\r');
if(s) *s = '\0';
if(*line == '\0') continue;
char *e = strchr(line, '=');
if(e) {
*e = '\0';
char *key = line, *val = e+1;
LoadUsingTable(key, val);
} else if(strcmp(line, "AddGroup")==0) {
// Don't leak memory; these get allocated whether we want them
// or not.
sv.g.remap.Clear();
} else if(strcmp(line, "AddParam")==0) {
} else if(strcmp(line, "AddEntity")==0) {
le->Add(&(sv.e));
sv.e = {};
} else if(strcmp(line, "AddRequest")==0) {
} else if(strcmp(line, "AddConstraint")==0) {
} else if(strcmp(line, "AddStyle")==0) {
} else if(strcmp(line, VERSION_STRING)==0) {
} else if(StrStartsWith(line, "Triangle ")) {
STriangle tr = {};
unsigned int rgba = 0;
if(sscanf(line, "Triangle %x %x "
"%lf %lf %lf %lf %lf %lf %lf %lf %lf",
&(tr.meta.face), &rgba,
&(tr.a.x), &(tr.a.y), &(tr.a.z),
&(tr.b.x), &(tr.b.y), &(tr.b.z),
&(tr.c.x), &(tr.c.y), &(tr.c.z)) != 11) {
ssassert(false, "Unexpected Triangle format");
}
tr.meta.color = RgbaColor::FromPackedInt((uint32_t)rgba);
m->AddTriangle(&tr);
} else if(StrStartsWith(line, "Surface ")) {
unsigned int rgba = 0;
if(sscanf(line, "Surface %x %x %x %d %d",
&(srf.h.v), &rgba, &(srf.face),
&(srf.degm), &(srf.degn)) != 5) {
ssassert(false, "Unexpected Surface format");
}
srf.color = RgbaColor::FromPackedInt((uint32_t)rgba);
} else if(StrStartsWith(line, "SCtrl ")) {
int i, j;
Vector c;
double w;
if(sscanf(line, "SCtrl %d %d %lf %lf %lf Weight %lf",
&i, &j, &(c.x), &(c.y), &(c.z), &w) != 6)
{
ssassert(false, "Unexpected SCtrl format");
}
srf.ctrl[i][j] = c;
srf.weight[i][j] = w;
} else if(StrStartsWith(line, "TrimBy ")) {
STrimBy stb = {};
int backwards;
if(sscanf(line, "TrimBy %x %d %lf %lf %lf %lf %lf %lf",
&(stb.curve.v), &backwards,
&(stb.start.x), &(stb.start.y), &(stb.start.z),
&(stb.finish.x), &(stb.finish.y), &(stb.finish.z)) != 8)
{
ssassert(false, "Unexpected TrimBy format");
}
stb.backwards = (backwards != 0);
srf.trim.Add(&stb);
} else if(strcmp(line, "AddSurface")==0) {
sh->surface.Add(&srf);
srf = {};
} else if(StrStartsWith(line, "Curve ")) {
int isExact;
if(sscanf(line, "Curve %x %d %d %x %x",
&(crv.h.v),
&(isExact),
&(crv.exact.deg),
&(crv.surfA.v), &(crv.surfB.v)) != 5)
{
ssassert(false, "Unexpected Curve format");
}
crv.isExact = (isExact != 0);
} else if(StrStartsWith(line, "CCtrl ")) {
int i;
Vector c;
double w;
if(sscanf(line, "CCtrl %d %lf %lf %lf Weight %lf",
&i, &(c.x), &(c.y), &(c.z), &w) != 5)
{
ssassert(false, "Unexpected CCtrl format");
}
crv.exact.ctrl[i] = c;
crv.exact.weight[i] = w;
} else if(StrStartsWith(line, "CurvePt ")) {
SCurvePt scpt;
int vertex;
if(sscanf(line, "CurvePt %d %lf %lf %lf",
&vertex,
&(scpt.p.x), &(scpt.p.y), &(scpt.p.z)) != 4)
{
ssassert(false, "Unexpected CurvePt format");
}
scpt.vertex = (vertex != 0);
crv.pts.Add(&scpt);
} else if(strcmp(line, "AddCurve")==0) {
sh->curve.Add(&crv);
crv = {};
} else ssassert(false, "Unexpected operation");
}
fclose(fh);
return true;
}
//-----------------------------------------------------------------------------
// Handling of the relative-absolute path transformations for links
//-----------------------------------------------------------------------------
static std::vector<std::string> Split(const std::string &haystack, const std::string &needle)
{
std::vector<std::string> result;
size_t oldpos = 0, pos = 0;
while(true) {
oldpos = pos;
pos = haystack.find(needle, pos);
if(pos == std::string::npos) break;
result.push_back(haystack.substr(oldpos, pos - oldpos));
pos += needle.length();
}
if(oldpos != haystack.length() - 1)
result.push_back(haystack.substr(oldpos));
return result;
}
static std::string Join(const std::vector<std::string> &parts, const std::string &separator)
{
bool first = true;
std::string result;
for(auto &part : parts) {
if(!first) result += separator;
result += part;
first = false;
}
return result;
}
static std::string MakePathRelative(const std::string &base, const std::string &path)
{
std::vector<std::string> baseParts = Split(base, PATH_SEP),
pathParts = Split(path, PATH_SEP),
resultParts;
baseParts.pop_back();
size_t common;
for(common = 0; common < baseParts.size() && common < pathParts.size(); common++) {
if(!PathEqual(baseParts[common], pathParts[common]))
break;
}
for(size_t i = common; i < baseParts.size(); i++)
resultParts.push_back("..");
resultParts.insert(resultParts.end(),
pathParts.begin() + common, pathParts.end());
return Join(resultParts, PATH_SEP);
}
static std::string MakePathAbsolute(const std::string &base, const std::string &path)
{
std::vector<std::string> resultParts = Split(base, PATH_SEP),
pathParts = Split(path, PATH_SEP);
resultParts.pop_back();
for(auto &part : pathParts) {
if(part == ".") {
/* do nothing */
} else if(part == "..") {
ssassert(!resultParts.empty(), "Relative path pointing outside of root directory");
resultParts.pop_back();
} else {
resultParts.push_back(part);
}
}
return Join(resultParts, PATH_SEP);
}
static void PathSepNormalize(std::string &filename)
{
for(size_t i = 0; i < filename.length(); i++) {
if(filename[i] == '\\')
filename[i] = '/';
}
}
bool SolveSpaceUI::ReloadAllImported(bool canCancel)
{
std::map<std::string, std::string> linkMap;
allConsistent = false;
int i;
for(i = 0; i < SK.group.n; i++) {
Group *g = &(SK.group.elem[i]);
if(g->type != Group::Type::LINKED) continue;
if(isalpha(g->linkFile[0]) && g->linkFile[1] == ':') {
// Make sure that g->linkFileRel always contains a relative path
// in an UNIX format, even after we load an old file which had
// the path in Windows format
PathSepNormalize(g->linkFileRel);
}
g->impEntity.Clear();
g->impMesh.Clear();
g->impShell.Clear();
if(linkMap.count(g->linkFile)) {
std::string newPath = linkMap[g->linkFile];
if(!newPath.empty())
g->linkFile = newPath;
}
// In a newly created group we only have an absolute path.
if(!g->linkFileRel.empty()) {
std::string rel = PathSepUnixToPlatform(g->linkFileRel);
std::string fromRel = MakePathAbsolute(SS.saveFile, rel);
FILE *test = ssfopen(fromRel, "rb");
if(test) {
fclose(test);
// Okay, exists; update the absolute path.
g->linkFile = fromRel;
} else {
// It doesn't exist. Perhaps the file was moved but the tree wasn't, and we
// can use the absolute filename to get us back. The relative path will be
// updated below.
}
}
try_load_file:
if(LoadEntitiesFromFile(g->linkFile, &(g->impEntity), &(g->impMesh), &(g->impShell)))
{
if(!SS.saveFile.empty()) {
// Record the linked file's name relative to our filename;
// if the entire tree moves, then everything will still work
std::string rel = MakePathRelative(SS.saveFile, g->linkFile);
g->linkFileRel = PathSepPlatformToUnix(rel);
} else {
// We're not yet saved, so can't make it absolute.
// This will only be used for display purposes, as SS.saveFile
// is always nonempty when we are actually writing anything.
g->linkFileRel = g->linkFile;
}
} else if(!linkMap.count(g->linkFile)) {
switch(LocateImportedFileYesNoCancel(g->linkFileRel, canCancel)) {
case DIALOG_YES: {
std::string oldImpFile = g->linkFile;
if(!GetOpenFile(&g->linkFile, "", SlvsFileFilter)) {
if(canCancel)
return false;
break;
} else {
linkMap[oldImpFile] = g->linkFile;
goto try_load_file;
}
}
case DIALOG_NO:
linkMap[g->linkFile] = "";
/* Geometry will be pruned by GenerateAll(). */
break;
case DIALOG_CANCEL:
return false;
}
} else {
// User was already asked to and refused to locate a missing
// linked file.
}
}
return true;
}