static
void exclusiveAnalysis(const RoseBuildImpl &build,
const map<u32, vector<RoseVertex>> &vertex_map,
set<RoleInfo<role_id>> &roleInfoSet,
vector<vector<u32>> &exclusive_roles, const bool is_infix) {
const auto &chunks = divideIntoChunks(build, roleInfoSet);
DEBUG_PRINTF("Exclusivity analysis entry\n");
map<u32, unordered_set<u32>> exclusiveInfo;
for (const auto &roleChunk : chunks) {
map<u32, unordered_set<u32>> skipList;
for (const auto &role1 : roleChunk.roles) {
const u32 id1 = role1.id;
const role_id &s1 = role1.role;
const auto &triggers1 = role1.literals;
NGHolder h;
u32 num = prepareRoleGraph(h, s1);
DEBUG_PRINTF("role id1:%u\n", id1);
unordered_set<u32> tailId;
if (!addPrefixLiterals(h, tailId, triggers1)) {
continue;
}
exclusiveInfo[id1] = checkExclusivity(h, num, tailId,
skipList, role1, roleChunk);
}
}
// Create final candidate exclusive groups
const auto exclusiveGroups =
findExclusiveGroups(build, exclusiveInfo, vertex_map, is_infix);
exclusiveInfo.clear();
// Find cliques for each exclusive groups
findCliques(exclusiveGroups, exclusive_roles);
}
int main (int argc, char **argv)
{
struct LinkList ll;
struct SetCliques scl;
struct LinProg lp;
struct Problem prob;
int effort;
if (argc < 8 || argc > 13) {
printf ("Usage: %s <link file> <effort> <output format> <output filename> <random seed> <obj type> <lambda> (<clique input file> <lossFile> <epsilon> <routeFile> <flow LB file>)\n", argv[0]);
exit(-1);
}
// read in problem: i.e. single/multipath and list of sources and destinations
readInfo(argv[1], &ll, &prob);
// how much effort;
effort = atoi(argv[2]);
// what output format
lp.opform = atoi(argv[3]);
// Lili added: by default, no constant variables
lp.const_var = 0;
// Lili added: by default, no variable lower bounds
lp.var_LBs = 0;
//Modeified by Yi Li to be consistent with lowerbound
//if ((prob.multipath == 0) && (lp.opform != OPFORM_LPSOLVE)) {
if ((prob.multipath == 0) && ((lp.opform == OPFORM_MATLAB_SPARSE)||(lp.opform == OPFORM_MATLAB))) {
printf ("matlab can not solve single path problem\n");
exit(-1);
}
if (ll.ifmodel != IFMODEL_PROTO) {
printf ("upper bound for physical model not implemented yet\n");
exit(1);
}
srand(atoi(argv[5]));
if (strcmp(argv[8], "NULL") == 0) {
// find cliques, making a certain number of attempts
findCliques (ll, &scl, effort);
prob.clique_const_type = CLIQUE_OPT_SCHEDULE;
}
else {
// read cliques from input file argv[7]
readCliques(argv[8], ll, &scl);
prob.clique_const_type = CLIQUE_802_11;
}
//printCliques (scl);
// open the files needed for output
OpenFiles (&(lp.fp), lp.opform, argv[4]);
// generate the linear program
prob.obj_type = atoi(argv[6]);
prob.lambda = atof(argv[7]);
if (argc >= 10)
readLoss(argv[9], &ll);
if (argc >= 11)
prob.epsilon = atof(argv[10]);
if (argc >= 12)
readRoute(argv[11], prob, ll, &lp);
if (argc == 13)
readFlowLowerBound(argv[12], prob, ll, &lp);
genUpperBoundLinProg (ll, scl, prob, &lp);
// close output files
CloseFiles (&(lp.fp), lp.opform);
return 0;
}