void KVExpSetUp::copy_fired_parameters_to_recon_param_list()
{
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->copy_fired_parameters_to_recon_param_list();
}
}
void KVExpSetUp::SetRawDataFromReconEvent(KVNameValueList& l)
{
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->SetRawDataFromReconEvent(l);
}
}
void KVExpSetUp::SetPedestalParameters(KVDBRun* r, const TString&)
{
// Set pedestals for all detectors for the run
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->SetPedestalParameters(r, mda->GetName());
}
}
void KVExpSetUp::SetReconParametersInEvent(KVReconstructedEvent* e) const
{
// Add contents of fReconParameters of each sub-array to the event parameter list
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
*(e->GetParameters()) += mda->GetReconParameters();
}
}
void KVExpSetUp::Clear(Option_t* opt)
{
// call Clear(opt) for each multidetector in the setup
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->Clear(opt);
}
}
void KVExpSetUp::prepare_to_handle_new_raw_data()
{
// clear all acquisition parameters etc of each array before reading new raw data event
KVMultiDetArray::prepare_to_handle_new_raw_data();
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->prepare_to_handle_new_raw_data();
}
}
Bool_t KVExpSetUp::HandleRawDataEvent(KVRawDataReader* g)
{
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->fHandledRawData = false;
mda->fReconParameters.Clear();
}
return (fHandledRawData = KVMultiDetArray::HandleRawDataEvent(g));
}
void KVExpSetUp::MakeCalibrationTables(KVExpDB* db)
{
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
TString orig_dbtype = db->GetDBType();
while ((mda = (KVMultiDetArray*)next_array())) {
db->SetDBType(Form("%sDB", mda->GetName()));
mda->MakeCalibrationTables(db);
}
db->SetDBType(orig_dbtype);
}
void KVExpSetUp::GetDetectorEvent(KVDetectorEvent* detev, const TSeqCollection* fired_params)
{
// Override KVMultiDetArray method
// Call each array in turn and add fired groups to the KVDetectorEvent
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->GetDetectorEvent(detev, fired_params);
}
}
void KVExpSetUp::FillDetectorList(KVReconstructedNucleus* rnuc, KVHashList* DetList, const KVString& DetNames)
{
// Call FillDetectorList for each array in turn, until DetList gets filled
// This is because some arrays may override the KVMultiDetArray::FillDetectorList method
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
mda->FillDetectorList(rnuc, DetList, DetNames);
if (!DetList->IsEmpty()) break;
}
}
KVGroupReconstructor* KVExpSetUp::GetReconstructorForGroup(const KVGroup* g) const
{
// Override KVMultiDetArray method
// Call each array in turn to get reconstructor for group
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
KVGroupReconstructor* gr(nullptr);
while ((mda = (KVMultiDetArray*)next_array())) {
if ((gr = mda->GetReconstructorForGroup(g))) break;
}
return gr;
}
void fault::load_fault( JsonObject &jo )
{
fault f;
f.id_ = fault_id( jo.get_string( "id" ) );
f.name_ = _( jo.get_string( "name" ) );
f.description_ = _( jo.get_string( "description" ) );
f.time_ = jo.get_int( "time" );
auto sk = jo.get_array( "skills" );
while( sk.has_more() ) {
auto cur = sk.next_array();
f.skills_.emplace( skill_id( cur.get_string( 0 ) ), cur.size() >= 2 ? cur.get_int( 1 ) : 1 );
}
if( jo.has_string( "requirements" ) ) {
f.requirements_ = requirement_id( jo.get_string( "requirements" ) );
} else {
auto req = jo.get_object( "requirements" );
const requirement_id req_id( std::string( "inline_fault_" ) + f.id_.str() );
requirement_data::load_requirement( req, req_id );
f.requirements_ = req_id;
}
if( faults_all.find( f.id_ ) != faults_all.end() ) {
jo.throw_error( "parsed fault overwrites existing definition", "id" );
} else {
faults_all[ f.id_ ] = f;
}
}
Bool_t KVExpSetUp::handle_raw_data_event_mfmframe(const MFMCommonFrame& mfmframe)
{
// Handle single (not merged) MFM frames of raw data. It is assumed
// that each frame type corresponds to a different detector array.
// Therefore as soon as one of them treats the data in the frame,
// we return kTRUE.
TIter next_array(&fMDAList);
KVMultiDetArray* mda;
while ((mda = (KVMultiDetArray*)next_array())) {
if (mda->handle_raw_data_event_mfmframe(mfmframe)) {
//Info("handle_raw_data_event_mfmframe", "Handled frame for %s", mda->GetName());
mda->fHandledRawData = true;
return kTRUE;
}
}
return kFALSE;
}
void dont_inner_loop(int varmax, int top, int thresh, MR_ROBDD_type *f)
{
int arrayg[MR_ROBDD_MAXVAR];
int vg;
for (vg=0; vg<varmax; ++vg) {
init_array(top, vg, arrayg);
dont_doit(thresh, varmax, f, vg, top, arrayg);
while (next_array(top, varmax, vg, arrayg)) {
dont_doit(thresh, varmax, f, vg, top, arrayg);
}
}
}
static void parse_vp_reqs( JsonObject &obj, const std::string &id, const std::string &key,
std::vector<std::pair<requirement_id, int>> &reqs,
std::map<skill_id, int> &skills, int &moves )
{
if( !obj.has_object( key ) ) {
return;
}
auto src = obj.get_object( key );
auto sk = src.get_array( "skills" );
if( !sk.empty() ) {
skills.clear();
}
while( sk.has_more() ) {
auto cur = sk.next_array();
skills.emplace( skill_id( cur.get_string( 0 ) ), cur.size() >= 2 ? cur.get_int( 1 ) : 1 );
}
assign( src, "time", moves );
if( src.has_string( "using" ) ) {
reqs = { { requirement_id( src.get_string( "using" ) ), 1 } };
} else if( src.has_array( "using" ) ) {
auto arr = src.get_array( "using" );
while( arr.has_more() ) {
auto cur = arr.next_array();
reqs.emplace_back( requirement_id( cur.get_string( 0 ) ), cur.get_int( 1 ) );
}
} else {
const requirement_id req_id( string_format( "inline_%s_%s", key.c_str(), id.c_str() ) );
requirement_data::load_requirement( src, req_id );
reqs = { { req_id, 1 } };
}
}
void update_array_statuses()
{
job_array *pa;
job *pjob;
int iter = -1;
unsigned int running;
unsigned int queued;
unsigned int complete;
char log_buf[LOCAL_LOG_BUF_SIZE];
char jobid[PBS_MAXSVRJOBID+1];
while ((pa = next_array(&iter)) != NULL)
{
running = pa->ai_qs.jobs_running;
complete = pa->ai_qs.num_failed + pa->ai_qs.num_successful;
queued = pa->ai_qs.num_jobs - running - complete;
if (LOGLEVEL >= 7)
{
sprintf(log_buf, "%s: unlocking ai_mutex", __func__);
log_event(PBSEVENT_JOB, PBS_EVENTCLASS_JOB, __func__, log_buf);
}
strcpy(jobid, pa->ai_qs.parent_id);
unlock_ai_mutex(pa, __func__, "1", LOGLEVEL);
if ((pjob = svr_find_job(jobid, TRUE)) != NULL)
{
if (running > 0)
{
svr_setjobstate(pjob, JOB_STATE_RUNNING, pjob->ji_qs.ji_substate, FALSE);
}
else if ((complete > 0) &&
(queued == 0))
{
svr_setjobstate(pjob, JOB_STATE_COMPLETE, pjob->ji_qs.ji_substate, FALSE);
}
else
{
/* default to just calling the array queued */
svr_setjobstate(pjob, JOB_STATE_QUEUED, pjob->ji_qs.ji_substate, FALSE);
}
unlock_ji_mutex(pjob, __func__, "2", LOGLEVEL);
}
} /* END for each array */
} /* END update_array_statuses() */
void material_type::load( JsonObject &jsobj )
{
mandatory( jsobj, was_loaded, "name", _name, translated_string_reader );
mandatory( jsobj, was_loaded, "bash_resist", _bash_resist );
mandatory( jsobj, was_loaded, "cut_resist", _cut_resist );
mandatory( jsobj, was_loaded, "acid_resist", _acid_resist );
mandatory( jsobj, was_loaded, "elec_resist", _elec_resist );
mandatory( jsobj, was_loaded, "fire_resist", _fire_resist );
mandatory( jsobj, was_loaded, "chip_resist", _chip_resist );
mandatory( jsobj, was_loaded, "density", _density );
optional( jsobj, was_loaded, "salvaged_into", _salvaged_into, "null" );
optional( jsobj, was_loaded, "repaired_with", _repaired_with, "null" );
optional( jsobj, was_loaded, "edible", _edible, false );
optional( jsobj, was_loaded, "soft", _soft, false );
auto arr = jsobj.get_array( "vitamins" );
while( arr.has_more() ) {
auto pair = arr.next_array();
_vitamins.emplace( vitamin_id( pair.get_string( 0 ) ), pair.get_float( 1 ) );
}
mandatory( jsobj, was_loaded, "bash_dmg_verb", _bash_dmg_verb, translated_string_reader );
mandatory( jsobj, was_loaded, "cut_dmg_verb", _cut_dmg_verb, translated_string_reader );
JsonArray jsarr = jsobj.get_array( "dmg_adj" );
while( jsarr.has_more() ) {
_dmg_adj.push_back( _( jsarr.next_string().c_str() ) );
}
JsonArray burn_data_array = jsobj.get_array( "burn_data" );
for( size_t intensity = 0; intensity < MAX_FIELD_DENSITY; intensity++ ) {
if( burn_data_array.has_more() ) {
JsonObject brn = burn_data_array.next_object();
_burn_data[ intensity ] = load_mat_burn_data( brn );
} else {
// If not specified, supply default
bool flammable = _fire_resist <= ( int )intensity;
mat_burn_data mbd;
if( flammable ) {
mbd.burn = 1;
}
_burn_data[ intensity ] = mbd;
}
}
}
/* return a server's array info struct corresponding to an array id */
job_array *get_array(
char *id)
{
job_array *pa;
int iter = -1;
while ((pa = next_array(&iter)) != NULL)
{
lock_ai_mutex(pa, __func__, NULL, LOGLEVEL);
if (strcmp(pa->ai_qs.parent_id, id) == 0)
{
snprintf(pa->ai_qs.parent_id, sizeof(pa->ai_qs.parent_id), "%s", id);
return(pa);
}
unlock_ai_mutex(pa, __func__, "1", LOGLEVEL);
}
return(NULL);
} /* END get_array() */
void fault::load_fault( JsonObject &jo )
{
fault f;
f.id_ = fault_id( jo.get_string( "id" ) );
f.name_ = _( jo.get_string( "name" ).c_str() );
f.description_ = _( jo.get_string( "description" ).c_str() );
auto sk = jo.get_array( "skills" );
while( sk.has_more() ) {
auto cur = sk.next_array();
f.skills_.emplace( skill_id( cur.get_string( 0 ) ) , cur.size() >= 2 ? cur.get_int( 1 ) : 1 );
}
auto req = jo.get_object( "requirements" );
f.requirements_.load( req );
if( faults_all.find( f.id_ ) != faults_all.end() ) {
jo.throw_error( "parsed fault overwrites existing definition", "id" );
} else {
faults_all[ f.id_ ] = f;
DebugLog( D_INFO, DC_ALL ) << "Loaded fault: " << f.name_;
}
}
/**
* Reads in a vehicle part from a JsonObject.
*/
void vpart_info::load( JsonObject &jo, const std::string &src )
{
vpart_info def;
if( jo.has_string( "copy-from" ) ) {
auto const base = vpart_info_all.find( vpart_id( jo.get_string( "copy-from" ) ) );
auto const ab = abstract_parts.find( vpart_id( jo.get_string( "copy-from" ) ) );
if( base != vpart_info_all.end() ) {
def = base->second;
} else if( ab != abstract_parts.end() ) {
def = ab->second;
} else {
deferred.emplace_back( jo.str(), src );
return;
}
}
if( jo.has_string( "abstract" ) ) {
def.id = vpart_id( jo.get_string( "abstract" ) );
} else {
def.id = vpart_id( jo.get_string( "id" ) );
}
assign( jo, "name", def.name_ );
assign( jo, "item", def.item );
assign( jo, "location", def.location );
assign( jo, "durability", def.durability );
assign( jo, "damage_modifier", def.dmg_mod );
assign( jo, "power", def.power );
assign( jo, "epower", def.epower );
assign( jo, "fuel_type", def.fuel_type );
assign( jo, "default_ammo", def.default_ammo );
assign( jo, "folded_volume", def.folded_volume );
assign( jo, "size", def.size );
assign( jo, "difficulty", def.difficulty );
assign( jo, "bonus", def.bonus );
assign( jo, "flags", def.flags );
if( jo.has_member( "requirements" ) ) {
auto reqs = jo.get_object( "requirements" );
parse_vp_reqs( reqs, def.id.str(), "install", def.install_reqs, def.install_skills, def.install_moves );
parse_vp_reqs( reqs, def.id.str(), "removal", def.removal_reqs, def.removal_skills, def.removal_moves );
parse_vp_reqs( reqs, def.id.str(), "repair", def.repair_reqs, def.repair_skills, def.repair_moves );
def.legacy = false;
}
if( jo.has_member( "symbol" ) ) {
def.sym = jo.get_string( "symbol" )[ 0 ];
}
if( jo.has_member( "broken_symbol" ) ) {
def.sym_broken = jo.get_string( "broken_symbol" )[ 0 ];
}
if( jo.has_member( "color" ) ) {
def.color = color_from_string( jo.get_string( "color" ) );
}
if( jo.has_member( "broken_color" ) ) {
def.color_broken = color_from_string( jo.get_string( "broken_color" ) );
}
if( jo.has_member( "breaks_into" ) ) {
JsonIn& stream = *jo.get_raw( "breaks_into" );
def.breaks_into_group = item_group::load_item_group( stream, "collection" );
}
auto qual = jo.get_array( "qualities" );
if( !qual.empty() ) {
def.qualities.clear();
while( qual.has_more() ) {
auto pair = qual.next_array();
def.qualities[ quality_id( pair.get_string( 0 ) ) ] = pair.get_int( 1 );
}
}
if( jo.has_member( "damage_reduction" ) ) {
JsonObject dred = jo.get_object( "damage_reduction" );
def.damage_reduction = load_damage_array( dred );
} else {
def.damage_reduction.fill( 0.0f );
}
if( jo.has_string( "abstract" ) ) {
abstract_parts[def.id] = def;
} else {
vpart_info_all[def.id] = def;
}
}
void recipe_dictionary::load( JsonObject &jo, const std::string &src, bool uncraft )
{
bool strict = src == "core";
recipe r;
// defer entries dependent upon as-yet unparsed definitions
if( jo.has_string( "copy-from" ) ) {
auto base = jo.get_string( "copy-from" );
if( uncraft ) {
if( !recipe_dict.uncraft.count( base ) ) {
deferred.emplace_back( jo.str(), src );
return;
}
r = recipe_dict.uncraft[ base ];
} else {
if( !recipe_dict.recipes.count( base ) ) {
deferred.emplace_back( jo.str(), src );
return;
}
r = recipe_dict.recipes[ base ];
}
}
if( jo.has_string( "abstract" ) ) {
r.ident_ = jo.get_string( "abstract" );
r.abstract = true;
} else {
r.ident_ = r.result = jo.get_string( "result" );
r.abstract = false;
}
if( !uncraft ) {
if( jo.has_string( "id_suffix" ) ) {
if( r.abstract ) {
jo.throw_error( "abstract recipe cannot specify id_suffix", "id_suffix" );
}
r.ident_ += "_" + jo.get_string( "id_suffix" );
}
assign( jo, "category", r.category, strict );
assign( jo, "subcategory", r.subcategory, strict );
assign( jo, "reversible", r.reversible, strict );
} else {
r.reversible = true;
}
assign( jo, "time", r.time, strict, 0 );
assign( jo, "difficulty", r.difficulty, strict, 0, MAX_SKILL );
assign( jo, "flags", r.flags );
// automatically set contained if we specify as container
assign( jo, "contained", r.contained, strict );
r.contained |= assign( jo, "container", r.container, strict );
if( jo.has_array( "batch_time_factors" ) ) {
auto batch = jo.get_array( "batch_time_factors" );
r.batch_rscale = batch.get_int( 0 ) / 100.0;
r.batch_rsize = batch.get_int( 1 );
}
assign( jo, "charges", r.charges );
assign( jo, "result_mult", r.result_mult );
assign( jo, "skill_used", r.skill_used, strict );
if( jo.has_member( "skills_required" ) ) {
auto sk = jo.get_array( "skills_required" );
r.required_skills.clear();
if( sk.empty() ) {
// clear all requirements
} else if( sk.has_array( 0 ) ) {
// multiple requirements
while( sk.has_more() ) {
auto arr = sk.next_array();
r.required_skills[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
} else {
// single requirement
r.required_skills[skill_id( sk.get_string( 0 ) )] = sk.get_int( 1 );
}
}
// simplified autolearn sets requirements equal to required skills at finalization
if( jo.has_bool( "autolearn" ) ) {
assign( jo, "autolearn", r.autolearn );
} else if( jo.has_array( "autolearn" ) ) {
r.autolearn = true;
auto sk = jo.get_array( "autolearn" );
while( sk.has_more() ) {
auto arr = sk.next_array();
r.autolearn_requirements[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
}
if( jo.has_member( "decomp_learn" ) ) {
r.learn_by_disassembly.clear();
if( jo.has_int( "decomp_learn" ) ) {
if( !r.skill_used ) {
jo.throw_error( "decomp_learn specified with no skill_used" );
}
assign( jo, "decomp_learn", r.learn_by_disassembly[r.skill_used] );
} else if( jo.has_array( "decomp_learn" ) ) {
auto sk = jo.get_array( "decomp_learn" );
while( sk.has_more() ) {
auto arr = sk.next_array();
r.learn_by_disassembly[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
}
}
if( !uncraft && jo.has_member( "byproducts" ) ) {
auto bp = jo.get_array( "byproducts" );
r.byproducts.clear();
while( bp.has_more() ) {
auto arr = bp.next_array();
r.byproducts[ arr.get_string( 0 ) ] += arr.size() == 2 ? arr.get_int( 1 ) : 1;
}
}
if( jo.has_member( "book_learn" ) ) {
auto bk = jo.get_array( "book_learn" );
r.booksets.clear();
while( bk.has_more() ) {
auto arr = bk.next_array();
r.booksets.emplace( arr.get_string( 0 ), arr.get_int( 1 ) );
}
}
// recipes not specifying any external requirements inherit from their parent recipe (if any)
if( jo.has_string( "using" ) ) {
r.reqs_external = { { requirement_id( jo.get_string( "using" ) ), 1 } };
} else if( jo.has_array( "using" ) ) {
auto arr = jo.get_array( "using" );
r.reqs_external.clear();
while( arr.has_more() ) {
auto cur = arr.next_array();
r.reqs_external.emplace_back( requirement_id( cur.get_string( 0 ) ), cur.get_int( 1 ) );
}
}
// inline requirements are always replaced (cannot be inherited)
auto req_id = string_format( "inline_%s_%s", uncraft ? "uncraft" : "recipe", r.ident_.c_str() );
requirement_data::load_requirement( jo, req_id );
r.reqs_internal = { { requirement_id( req_id ), 1 } };
if( uncraft ) {
recipe_dict.uncraft[ r.ident_ ] = r;
} else {
recipe_dict.recipes[ r.ident_ ] = r;
}
}
int main(int argc, char **argv)
{
int varmax, size, repetitions;
int array[VARLIMIT];
int reps, v0;
MR_ROBDD_type *f;
millisec clock0, clock1, clock2, clock3;
float runtime, overhead, rate;
int test_nodes, overhead_nodes;
if (argc < 3) {
usage(argv[0]);
return 20;
}
if ((varmax=atoi(argv[2]))<1 || varmax>=VARLIMIT) {
usage(argv[0]);
printf("\n varmax must be between 1 <= varmax < %d\n", VARLIMIT);
return 20;
}
if ((size=atoi(argv[1]))<0 || size>=varmax) {
usage(argv[0]);
printf("\n size must be between 0 <= size < varmax\n");
return 20;
}
repetitions=(argc>3 ? atoi(argv[3]) : 1);
if (repetitions <= 0) repetitions = 1;
opcount = 0;
clock0 = milli_time();
for (reps=repetitions; reps>0; --reps) {
for (v0=0; v0<varmax; ++v0) {
init_array(size, v0, array);
f = MR_ROBDD_testing_iff_conj_array(v0, size, array);
inner_loop(varmax, f);
while (next_array(size, varmax, v0, array)) {
f = MR_ROBDD_testing_iff_conj_array(v0, size, array);
inner_loop(varmax, f);
}
}
}
clock1 = milli_time();
test_nodes = MR_ROBDD_nodes_in_use();
MR_ROBDD_initRep();
clock2 = milli_time();
for (reps=repetitions; reps>0; --reps) {
for (v0=0; v0<varmax; ++v0) {
init_array(size, v0, array);
f = MR_ROBDD_testing_iff_conj_array(v0, size, array);
dont_inner_loop(varmax, f);
while (next_array(size, varmax, v0, array)) {
f = MR_ROBDD_testing_iff_conj_array(v0, size, array);
dont_inner_loop(varmax, f);
}
}
}
clock3 = milli_time();
overhead_nodes = MR_ROBDD_nodes_in_use();
runtime = (float)(clock1-clock0)/1000;
overhead = (float)(clock3-clock2)/1000;
rate = ((float)opcount)/(runtime-overhead);
printf("%s %d %d %d: %.3f - %.3f = %.3f secs, %d ops, %d nodes, %.1f ops/sec\n",
argv[0], size, varmax, repetitions,
runtime, overhead, (runtime-overhead), opcount,
test_nodes-overhead_nodes, rate);
return 0;
}
void recipe::load( JsonObject &jo, const std::string &src )
{
bool strict = src == "dda";
abstract = jo.has_string( "abstract" );
if( abstract ) {
ident_ = recipe_id( jo.get_string( "abstract" ) );
} else {
result_ = jo.get_string( "result" );
ident_ = recipe_id( result_ );
}
assign( jo, "time", time, strict, 0 );
assign( jo, "difficulty", difficulty, strict, 0, MAX_SKILL );
assign( jo, "flags", flags );
// automatically set contained if we specify as container
assign( jo, "contained", contained, strict );
contained |= assign( jo, "container", container, strict );
if( jo.has_array( "batch_time_factors" ) ) {
auto batch = jo.get_array( "batch_time_factors" );
batch_rscale = batch.get_int( 0 ) / 100.0;
batch_rsize = batch.get_int( 1 );
}
assign( jo, "charges", charges );
assign( jo, "result_mult", result_mult );
assign( jo, "skill_used", skill_used, strict );
if( jo.has_member( "skills_required" ) ) {
auto sk = jo.get_array( "skills_required" );
required_skills.clear();
if( sk.empty() ) {
// clear all requirements
} else if( sk.has_array( 0 ) ) {
// multiple requirements
while( sk.has_more() ) {
auto arr = sk.next_array();
required_skills[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
} else {
// single requirement
required_skills[skill_id( sk.get_string( 0 ) )] = sk.get_int( 1 );
}
}
// simplified autolearn sets requirements equal to required skills at finalization
if( jo.has_bool( "autolearn" ) ) {
assign( jo, "autolearn", autolearn );
} else if( jo.has_array( "autolearn" ) ) {
autolearn = true;
auto sk = jo.get_array( "autolearn" );
while( sk.has_more() ) {
auto arr = sk.next_array();
autolearn_requirements[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
}
if( jo.has_member( "decomp_learn" ) ) {
learn_by_disassembly.clear();
if( jo.has_int( "decomp_learn" ) ) {
if( !skill_used ) {
jo.throw_error( "decomp_learn specified with no skill_used" );
}
assign( jo, "decomp_learn", learn_by_disassembly[skill_used] );
} else if( jo.has_array( "decomp_learn" ) ) {
auto sk = jo.get_array( "decomp_learn" );
while( sk.has_more() ) {
auto arr = sk.next_array();
learn_by_disassembly[skill_id( arr.get_string( 0 ) )] = arr.get_int( 1 );
}
}
}
if( jo.has_member( "book_learn" ) ) {
auto bk = jo.get_array( "book_learn" );
booksets.clear();
while( bk.has_more() ) {
auto arr = bk.next_array();
booksets.emplace( arr.get_string( 0 ), arr.size() > 1 ? arr.get_int( 1 ) : -1 );
}
}
// recipes not specifying any external requirements inherit from their parent recipe (if any)
if( jo.has_string( "using" ) ) {
reqs_external = { { requirement_id( jo.get_string( "using" ) ), 1 } };
} else if( jo.has_array( "using" ) ) {
auto arr = jo.get_array( "using" );
reqs_external.clear();
while( arr.has_more() ) {
auto cur = arr.next_array();
reqs_external.emplace_back( requirement_id( cur.get_string( 0 ) ), cur.get_int( 1 ) );
}
}
const std::string type = jo.get_string( "type" );
if( type == "recipe" ) {
if( jo.has_string( "id_suffix" ) ) {
if( abstract ) {
jo.throw_error( "abstract recipe cannot specify id_suffix", "id_suffix" );
}
ident_ = recipe_id( ident_.str() + "_" + jo.get_string( "id_suffix" ) );
}
assign( jo, "category", category, strict );
assign( jo, "subcategory", subcategory, strict );
assign( jo, "reversible", reversible, strict );
if( jo.has_member( "byproducts" ) ) {
auto bp = jo.get_array( "byproducts" );
byproducts.clear();
while( bp.has_more() ) {
auto arr = bp.next_array();
byproducts[ arr.get_string( 0 ) ] += arr.size() == 2 ? arr.get_int( 1 ) : 1;
}
}
} else if( type == "uncraft" ) {
reversible = true;
} else {
jo.throw_error( "unknown recipe type", "type" );
}
// inline requirements are always replaced (cannot be inherited)
const auto req_id = string_format( "inline_%s_%s", type.c_str(), ident_.c_str() );
requirement_data::load_requirement( jo, req_id );
reqs_internal = { { requirement_id( req_id ), 1 } };
}
/**
* Reads in a vehicle part from a JsonObject.
*/
void vpart_info::load( JsonObject &jo )
{
vpart_info next_part;
next_part.id = vpart_str_id( jo.get_string( "id" ) );
if( jo.has_member( "name" ) ) {
next_part.name_ = _( jo.get_string( "name" ).c_str() );
}
next_part.sym = jo.get_string("symbol")[0];
next_part.color = color_from_string(jo.get_string("color"));
next_part.sym_broken = jo.get_string("broken_symbol")[0];
next_part.color_broken = color_from_string(jo.get_string("broken_color"));
next_part.dmg_mod = jo.has_member("damage_modifier") ? jo.get_int("damage_modifier") : 100;
next_part.durability = jo.get_int("durability");
next_part.power = jo.get_int("power", 0);
next_part.epower = jo.get_int("epower", 0);
next_part.folded_volume = jo.get_int("folded_volume", 0);
next_part.range = jo.get_int( "range", 12 );
next_part.size = jo.get_int( "size", 0 );
//Handle the par1 union as best we can by accepting any ONE of its elements
int element_count = (jo.has_member("par1") ? 1 : 0)
+ (jo.has_member("wheel_width") ? 1 : 0)
+ (jo.has_member("bonus") ? 1 : 0);
if(element_count == 0) {
//If not specified, assume 0
next_part.par1 = 0;
} else if(element_count == 1) {
if(jo.has_member("par1")) {
next_part.par1 = jo.get_int("par1");
} else if(jo.has_member("wheel_width")) {
next_part.par1 = jo.get_int("wheel_width");
} else { //bonus
next_part.par1 = jo.get_int("bonus");
}
} else {
//Too many
debugmsg("Error parsing vehicle part '%s': \
Use AT MOST one of: par1, wheel_width, bonus",
next_part.name().c_str());
//Keep going to produce more messages if other parts are wrong
next_part.par1 = 0;
}
next_part.fuel_type = jo.get_string( "fuel_type", "null" );
next_part.item = jo.get_string("item");
next_part.difficulty = jo.get_int("difficulty");
next_part.location = jo.has_member("location") ? jo.get_string("location") : "";
JsonArray jarr = jo.get_array("flags");
while (jarr.has_more()) {
next_part.set_flag( jarr.next_string() );
}
if( jo.has_member( "breaks_into" ) ) {
JsonIn& stream = *jo.get_raw( "breaks_into" );
next_part.breaks_into_group = item_group::load_item_group( stream, "collection" );
} else {
next_part.breaks_into_group = "EMPTY_GROUP";
}
auto qual = jo.get_array( "qualities" );
while( qual.has_more() ) {
auto pair = qual.next_array();
next_part.qualities[ pair.get_string( 0 ) ] = pair.get_int( 1 );
}
//Calculate and cache z-ordering based off of location
// list_order is used when inspecting the vehicle
if(next_part.location == "on_roof") {
next_part.z_order = 9;
next_part.list_order = 3;
} else if(next_part.location == "on_cargo") {
next_part.z_order = 8;
next_part.list_order = 6;
} else if(next_part.location == "center") {
next_part.z_order = 7;
next_part.list_order = 7;
} else if(next_part.location == "under") {
//Have wheels show up over frames
next_part.z_order = 6;
next_part.list_order = 10;
} else if(next_part.location == "structure") {
next_part.z_order = 5;
next_part.list_order = 1;
} else if(next_part.location == "engine_block") {
//Should be hidden by frames
next_part.z_order = 4;
next_part.list_order = 8 ;
} else if (next_part.location == "on_battery_mount"){
//Should be hidden by frames
next_part.z_order = 3;
next_part.list_order = 10;
} else if(next_part.location == "fuel_source") {
//Should be hidden by frames
next_part.z_order = 3;
next_part.list_order = 9;
} else if(next_part.location == "roof") {
//Shouldn't be displayed
next_part.z_order = -1;
next_part.list_order = 4;
} else if(next_part.location == "armor") {
//Shouldn't be displayed (the color is used, but not the symbol)
next_part.z_order = -2;
next_part.list_order = 2;
} else {
//Everything else
next_part.z_order = 0;
next_part.list_order = 5;
}
auto const iter = vehicle_part_types.find( next_part.id );
if( iter != vehicle_part_types.end() ) {
// Entry in the map already exists, so the pointer in the vector is already correct
// and does not need to be changed, only the int-id needs to be taken from the old entry.
next_part.loadid = iter->second.loadid;
iter->second = next_part;
} else {
// The entry is new, "generate" a new int-id and link the new entry from the vector.
next_part.loadid = vpart_id( vehicle_part_int_types.size() );
vpart_info &new_entry = vehicle_part_types[next_part.id];
new_entry = next_part;
vehicle_part_int_types.push_back( &new_entry );
}
}
/**
* Reads in a vehicle part from a JsonObject.
*/
void vpart_info::load( JsonObject &jo, const std::string &src )
{
vpart_info def;
if( jo.has_string( "copy-from" ) ) {
auto const base = vehicle_part_types.find( vpart_str_id( jo.get_string( "copy-from" ) ) );
auto const ab = abstract_parts.find( vpart_str_id( jo.get_string( "copy-from" ) ) );
if( base != vehicle_part_types.end() ) {
def = base->second;
} else if( ab != abstract_parts.end() ) {
def = ab->second;
} else {
deferred.emplace_back( jo.str(), src );
}
}
if( jo.has_string( "abstract" ) ) {
def.id = vpart_str_id( jo.get_string( "abstract" ) );
} else {
def.id = vpart_str_id( jo.get_string( "id" ) );
}
assign( jo, "name", def.name_ );
assign( jo, "item", def.item );
assign( jo, "location", def.location );
assign( jo, "durability", def.durability );
assign( jo, "damage_modifier", def.dmg_mod );
assign( jo, "power", def.power );
assign( jo, "epower", def.epower );
assign( jo, "fuel_type", def.fuel_type );
assign( jo, "folded_volume", def.folded_volume );
assign( jo, "size", def.size );
assign( jo, "difficulty", def.difficulty );
assign( jo, "bonus", def.bonus );
assign( jo, "flags", def.flags );
auto reqs = jo.get_object( "requirements" );
if( reqs.has_object( "install" ) ) {
auto ins = reqs.get_object( "install" );
auto sk = ins.get_array( "skills" );
if( !sk.empty() ) {
def.install_skills.clear();
}
while( sk.has_more() ) {
auto cur = sk.next_array();
def.install_skills.emplace( skill_id( cur.get_string( 0 ) ) , cur.size() >= 2 ? cur.get_int( 1 ) : 1 );
}
assign( ins, "time", def.install_moves );
if( ins.has_string( "using" ) ) {
def.install_reqs = { { requirement_id( ins.get_string( "using" ) ), 1 } };
} else if( ins.has_array( "using" ) ) {
auto arr = ins.get_array( "using" );
while( arr.has_more() ) {
auto cur = arr.next_array();
def.install_reqs.emplace_back( requirement_id( cur.get_string( 0 ) ), cur.get_int( 1 ) );
}
} else {
auto req_id = std::string( "inline_vehins_" ) += def.id.str();
requirement_data::load_requirement( ins, req_id );
def.install_reqs = { { requirement_id( req_id ), 1 } };
}
def.legacy = false;
}
if( reqs.has_object( "removal" ) ) {
auto rem = reqs.get_object( "removal" );
auto sk = rem.get_array( "skills" );
if( !sk.empty() ) {
def.removal_skills.clear();
}
while( sk.has_more() ) {
auto cur = sk.next_array();
def.removal_skills.emplace( skill_id( cur.get_string( 0 ) ) , cur.size() >= 2 ? cur.get_int( 1 ) : 1 );
}
assign( rem, "time", def.removal_moves );
if( rem.has_string( "using" ) ) {
def.removal_reqs = { { requirement_id( rem.get_string( "using" ) ), 1 } };
} else if( rem.has_array( "using" ) ) {
auto arr = rem.get_array( "using" );
while( arr.has_more() ) {
auto cur = arr.next_array();
def.removal_reqs.emplace_back( requirement_id( cur.get_string( 0 ) ), cur.get_int( 1 ) );
}
} else {
auto req_id = std::string( "inline_vehins_" ) += def.id.str();
requirement_data::load_requirement( rem, req_id );
def.removal_reqs = { { requirement_id( req_id ), 1 } };
}
def.legacy = false;
}
if( jo.has_member( "symbol" ) ) {
def.sym = jo.get_string( "symbol" )[ 0 ];
}
if( jo.has_member( "broken_symbol" ) ) {
def.sym_broken = jo.get_string( "broken_symbol" )[ 0 ];
}
if( jo.has_member( "color" ) ) {
def.color = color_from_string( jo.get_string( "color" ) );
}
if( jo.has_member( "broken_color" ) ) {
def.color_broken = color_from_string( jo.get_string( "broken_color" ) );
}
if( jo.has_member( "breaks_into" ) ) {
JsonIn& stream = *jo.get_raw( "breaks_into" );
def.breaks_into_group = item_group::load_item_group( stream, "collection" );
}
auto qual = jo.get_array( "qualities" );
if( !qual.empty() ) {
def.qualities.clear();
while( qual.has_more() ) {
auto pair = qual.next_array();
def.qualities[ quality_id( pair.get_string( 0 ) ) ] = pair.get_int( 1 );
}
}
if( jo.has_member( "damage_reduction" ) ) {
JsonObject dred = jo.get_object( "damage_reduction" );
def.damage_reduction = load_damage_array( dred );
} else {
def.damage_reduction.fill( 0.0f );
}
if( jo.has_string( "abstract" ) ) {
abstract_parts[ def.id ] = def;
return;
}
auto const iter = vehicle_part_types.find( def.id );
if( iter != vehicle_part_types.end() ) {
// Entry in the map already exists, so the pointer in the vector is already correct
// and does not need to be changed, only the int-id needs to be taken from the old entry.
def.loadid = iter->second.loadid;
iter->second = def;
} else {
// The entry is new, "generate" a new int-id and link the new entry from the vector.
def.loadid = vpart_id( vehicle_part_int_types.size() );
vpart_info &new_entry = vehicle_part_types[ def.id ];
new_entry = def;
vehicle_part_int_types.push_back( &new_entry );
}
}
void mutation_branch::load( JsonObject &jsobj )
{
const std::string id = jsobj.get_string( "id" );
mutation_branch &new_mut = mutation_data[id];
JsonArray jsarr;
new_mut.name = _(jsobj.get_string("name").c_str());
new_mut.description = _(jsobj.get_string("description").c_str());
new_mut.points = jsobj.get_int("points");
new_mut.visibility = jsobj.get_int("visibility", 0);
new_mut.ugliness = jsobj.get_int("ugliness", 0);
new_mut.startingtrait = jsobj.get_bool("starting_trait", false);
new_mut.mixed_effect = jsobj.get_bool("mixed_effect", false);
new_mut.activated = jsobj.get_bool("active", false);
new_mut.starts_active = jsobj.get_bool("starts_active", false);
new_mut.destroys_gear = jsobj.get_bool("destroys_gear", false);
new_mut.allow_soft_gear = jsobj.get_bool("allow_soft_gear", false);
new_mut.cost = jsobj.get_int("cost", 0);
new_mut.cooldown = jsobj.get_int("time",0);
new_mut.hunger = jsobj.get_bool("hunger",false);
new_mut.thirst = jsobj.get_bool("thirst",false);
new_mut.fatigue = jsobj.get_bool("fatigue",false);
new_mut.valid = jsobj.get_bool("valid", true);
new_mut.purifiable = jsobj.get_bool("purifiable", true);
for( auto & s : jsobj.get_string_array( "initial_ma_styles" ) ) {
new_mut.initial_ma_styles.push_back( matype_id( s ) );
}
JsonArray bodytemp_array = jsobj.get_array( "bodytemp_modifiers" );
if( bodytemp_array.has_more() ) {
new_mut.bodytemp_min = bodytemp_array.get_int( 0 );
new_mut.bodytemp_max = bodytemp_array.get_int( 1 );
}
new_mut.bodytemp_sleep = jsobj.get_int( "bodytemp_sleep", 0 );
new_mut.threshold = jsobj.get_bool("threshold", false);
new_mut.profession = jsobj.get_bool("profession", false);
auto vr = jsobj.get_array( "vitamin_rates" );
while( vr.has_more() ) {
auto pair = vr.next_array();
new_mut.vitamin_rates[ vitamin_id( pair.get_string( 0 ) ) ] = pair.get_int( 1 );
}
load_mutation_mods(jsobj, "passive_mods", new_mut.mods);
/* Not currently supported due to inability to save active mutation state
load_mutation_mods(jsobj, "active_mods", new_mut.mods); */
new_mut.prereqs = jsobj.get_string_array( "prereqs" );
// Helps to be able to have a trait require more than one other trait
// (Individual prereq-lists are "OR", not "AND".)
// Traits shoud NOT appear in both lists for a given mutation, unless
// you want that trait to satisfy both requirements.
// These are additional to the first list.
new_mut.prereqs2 = jsobj.get_string_array( "prereqs2" );
// Dedicated-purpose prereq slot for Threshold mutations
// Stuff like Huge might fit in more than one mutcat post-threshold, so yeah
new_mut.threshreq = jsobj.get_string_array( "threshreq" );
new_mut.cancels = jsobj.get_string_array( "cancels" );
new_mut.replacements = jsobj.get_string_array( "changes_to" );
new_mut.additions = jsobj.get_string_array( "leads_to" );
new_mut.flags = jsobj.get_tags( "flags" );
jsarr = jsobj.get_array("category");
while (jsarr.has_more()) {
std::string s = jsarr.next_string();
new_mut.category.push_back(s);
mutations_category[s].push_back(id);
}
jsarr = jsobj.get_array("wet_protection");
while (jsarr.has_more()) {
JsonObject jo = jsarr.next_object();
std::string part_id = jo.get_string("part");
int ignored = jo.get_int("ignored", 0);
int neutral = jo.get_int("neutral", 0);
int good = jo.get_int("good", 0);
tripoint protect = tripoint(ignored, neutral, good);
new_mut.protection[get_body_part_token( part_id )] = protect;
}
jsarr = jsobj.get_array("encumbrance_always");
while (jsarr.has_more()) {
JsonArray jo = jsarr.next_array();
std::string part_id = jo.next_string();
int enc = jo.next_int();
new_mut.encumbrance_always[get_body_part_token( part_id )] = enc;
}
jsarr = jsobj.get_array("encumbrance_covered");
while (jsarr.has_more()) {
JsonArray jo = jsarr.next_array();
std::string part_id = jo.next_string();
int enc = jo.next_int();
new_mut.encumbrance_covered[get_body_part_token( part_id )] = enc;
}
jsarr = jsobj.get_array("restricts_gear");
while( jsarr.has_more() ) {
new_mut.restricts_gear.insert( get_body_part_token( jsarr.next_string() ) );
}
jsarr = jsobj.get_array( "armor" );
while( jsarr.has_more() ) {
JsonObject jo = jsarr.next_object();
auto parts = jo.get_tags( "parts" );
std::set<body_part> bps;
for( const std::string &part_string : parts ) {
if( part_string == "ALL" ) {
// Shorthand, since many muts protect whole body
for( size_t i = 0; i < num_bp; i++ ) {
bps.insert( static_cast<body_part>( i ) );
}
} else {
bps.insert( get_body_part_token( part_string ) );
}
}
resistances res = load_resistances_instance( jo );
for( body_part bp : bps ) {
new_mut.armor[ bp ] = res;
}
}
}
int is_array(
char *id)
{
job_array *pa;
int iter = -1;
char *bracket_ptr;
char *end_bracket_ptr;
char jobid[PBS_MAXSVRJOBID];
char temp_jobid[PBS_MAXSVRJOBID];
snprintf(jobid, sizeof(jobid), "%s", id);
/* Check to see if we have an array dependency */
/* If there is an array dependency count then we will */
/* have an id of something like arrayid[][1]. We need to take */
/* off the [1] so we can compare the array id with and existing */
/* array entry. */
if ((bracket_ptr = strchr(jobid,'[')) != NULL)
{
/* Make sure the next character is ']' */
if (*(++bracket_ptr) != ']')
{
/* If we do not have a ']' then we have bad syntax. */
return(FALSE);
}
if (*(++bracket_ptr) == '[')
{
/* we made it to here. That means we have a count inside
brackets. Just truncate them for the name comparison */
end_bracket_ptr = strchr(bracket_ptr, ']');
if (end_bracket_ptr == NULL)
{
/* we do not have a ']' then we have bad syntax. */
return(FALSE);
}
/* advance end_bracket_ptr one. We should be either NULL or '.' */
end_bracket_ptr++;
/* truncate the string */
*bracket_ptr = 0; /* this makes jobid just the arrayid name */
/* append the rest of the job id */
snprintf(temp_jobid, sizeof(jobid), "%s%s", jobid, end_bracket_ptr);
snprintf(jobid, sizeof(jobid), "%s", temp_jobid);
}
}
else
{
/* No '[' then we do not have an array */
return (FALSE);
}
while ((pa = next_array(&iter)) != NULL)
{
lock_ai_mutex(pa, __func__, NULL, LOGLEVEL);
if (strcmp(pa->ai_qs.parent_id, jobid) == 0)
{
unlock_ai_mutex(pa, __func__, "1", LOGLEVEL);
return(TRUE);
}
unlock_ai_mutex(pa, __func__, "1", LOGLEVEL);
}
return(FALSE);
} /* END is_array() */
void mutation_branch::load( JsonObject &jo, const std::string & )
{
mandatory( jo, was_loaded, "id", id );
mandatory( jo, was_loaded, "name", raw_name, translated_string_reader );
mandatory( jo, was_loaded, "description", raw_desc, translated_string_reader );
mandatory( jo, was_loaded, "points", points );
optional( jo, was_loaded, "visibility", visibility, 0 );
optional( jo, was_loaded, "ugliness", ugliness, 0 );
optional( jo, was_loaded, "starting_trait", startingtrait, false );
optional( jo, was_loaded, "mixed_effect", mixed_effect, false );
optional( jo, was_loaded, "active", activated, false );
optional( jo, was_loaded, "starts_active", starts_active, false );
optional( jo, was_loaded, "destroys_gear", destroys_gear, false );
optional( jo, was_loaded, "allow_soft_gear", allow_soft_gear, false );
optional( jo, was_loaded, "cost", cost, 0 );
optional( jo, was_loaded, "time", cooldown, 0 );
optional( jo, was_loaded, "hunger", hunger, false );
optional( jo, was_loaded, "thirst", thirst, false );
optional( jo, was_loaded, "fatigue", fatigue, false );
optional( jo, was_loaded, "valid", valid, true );
optional( jo, was_loaded, "purifiable", purifiable, true );
if( jo.has_object( "spawn_item" ) ) {
auto si = jo.get_object( "spawn_item" );
optional( si, was_loaded, "type", spawn_item );
optional( si, was_loaded, "message", raw_spawn_item_message );
}
if( jo.has_object( "ranged_mutation" ) ) {
auto si = jo.get_object( "ranged_mutation" );
optional( si, was_loaded, "type", ranged_mutation );
optional( si, was_loaded, "message", raw_ranged_mutation_message );
}
optional( jo, was_loaded, "initial_ma_styles", initial_ma_styles );
if( jo.has_array( "bodytemp_modifiers" ) ) {
auto bodytemp_array = jo.get_array( "bodytemp_modifiers" );
bodytemp_min = bodytemp_array.get_int( 0 );
bodytemp_max = bodytemp_array.get_int( 1 );
}
optional( jo, was_loaded, "bodytemp_sleep", bodytemp_sleep, 0 );
optional( jo, was_loaded, "threshold", threshold, false );
optional( jo, was_loaded, "profession", profession, false );
optional( jo, was_loaded, "debug", debug, false );
optional( jo, was_loaded, "player_display", player_display, true );
JsonArray vr = jo.get_array( "vitamin_rates" );
while( vr.has_more() ) {
auto pair = vr.next_array();
vitamin_rates.emplace( vitamin_id( pair.get_string( 0 ) ),
time_duration::from_turns( pair.get_int( 1 ) ) );
}
auto vam = jo.get_array( "vitamins_absorb_multi" );
while( vam.has_more() ) {
auto pair = vam.next_array();
std::map<vitamin_id, double> vit;
auto vit_array = pair.get_array( 1 );
// fill the inner map with vitamins
while( vit_array.has_more() ) {
auto vitamins = vit_array.next_array();
vit.emplace( vitamin_id( vitamins.get_string( 0 ) ), vitamins.get_float( 1 ) );
}
// assign the inner vitamin map to the material_id key
vitamin_absorb_multi.emplace( material_id( pair.get_string( 0 ) ), vit );
}
optional( jo, was_loaded, "healing_awake", healing_awake, 0.0f );
optional( jo, was_loaded, "healing_resting", healing_resting, 0.0f );
optional( jo, was_loaded, "hp_modifier", hp_modifier, 0.0f );
optional( jo, was_loaded, "hp_modifier_secondary", hp_modifier_secondary, 0.0f );
optional( jo, was_loaded, "hp_adjustment", hp_adjustment, 0.0f );
optional( jo, was_loaded, "stealth_modifier", stealth_modifier, 0.0f );
optional( jo, was_loaded, "str_modifier", str_modifier, 0.0f );
optional( jo, was_loaded, "dodge_modifier", dodge_modifier, 0.0f );
optional( jo, was_loaded, "speed_modifier", speed_modifier, 1.0f );
optional( jo, was_loaded, "movecost_modifier", movecost_modifier, 1.0f );
optional( jo, was_loaded, "movecost_flatground_modifier", movecost_flatground_modifier, 1.0f );
optional( jo, was_loaded, "movecost_obstacle_modifier", movecost_obstacle_modifier, 1.0f );
optional( jo, was_loaded, "attackcost_modifier", attackcost_modifier, 1.0f );
optional( jo, was_loaded, "max_stamina_modifier", max_stamina_modifier, 1.0f );
optional( jo, was_loaded, "weight_capacity_modifier", weight_capacity_modifier, 1.0f );
optional( jo, was_loaded, "hearing_modifier", hearing_modifier, 1.0f );
optional( jo, was_loaded, "noise_modifier", noise_modifier, 1.0f );
optional( jo, was_loaded, "metabolism_modifier", metabolism_modifier, 0.0f );
optional( jo, was_loaded, "thirst_modifier", thirst_modifier, 0.0f );
optional( jo, was_loaded, "fatigue_modifier", fatigue_modifier, 0.0f );
optional( jo, was_loaded, "fatigue_regen_modifier", fatigue_regen_modifier, 0.0f );
optional( jo, was_loaded, "stamina_regen_modifier", stamina_regen_modifier, 0.0f );
optional( jo, was_loaded, "overmap_sight", overmap_sight, 0.0f );
optional( jo, was_loaded, "overmap_multiplier", overmap_multiplier, 1.0f );
if( jo.has_object( "social_modifiers" ) ) {
JsonObject sm = jo.get_object( "social_modifiers" );
social_mods = load_mutation_social_mods( sm );
}
load_mutation_mods( jo, "passive_mods", mods );
/* Not currently supported due to inability to save active mutation state
load_mutation_mods(jsobj, "active_mods", new_mut.mods); */
optional( jo, was_loaded, "prereqs", prereqs );
optional( jo, was_loaded, "prereqs2", prereqs2 );
optional( jo, was_loaded, "threshreq", threshreq );
optional( jo, was_loaded, "cancels", cancels );
optional( jo, was_loaded, "changes_to", replacements );
optional( jo, was_loaded, "leads_to", additions );
optional( jo, was_loaded, "flags", flags );
optional( jo, was_loaded, "types", types );
auto jsarr = jo.get_array( "category" );
while( jsarr.has_more() ) {
std::string s = jsarr.next_string();
category.push_back( s );
mutations_category[s].push_back( trait_id( id ) );
}
jsarr = jo.get_array( "wet_protection" );
while( jsarr.has_more() ) {
JsonObject jo = jsarr.next_object();
std::string part_id = jo.get_string( "part" );
int ignored = jo.get_int( "ignored", 0 );
int neutral = jo.get_int( "neutral", 0 );
int good = jo.get_int( "good", 0 );
tripoint protect = tripoint( ignored, neutral, good );
protection[get_body_part_token( part_id )] = protect;
}
jsarr = jo.get_array( "encumbrance_always" );
while( jsarr.has_more() ) {
JsonArray jo = jsarr.next_array();
std::string part_id = jo.next_string();
int enc = jo.next_int();
encumbrance_always[get_body_part_token( part_id )] = enc;
}
jsarr = jo.get_array( "encumbrance_covered" );
while( jsarr.has_more() ) {
JsonArray jo = jsarr.next_array();
std::string part_id = jo.next_string();
int enc = jo.next_int();
encumbrance_covered[get_body_part_token( part_id )] = enc;
}
jsarr = jo.get_array( "restricts_gear" );
while( jsarr.has_more() ) {
restricts_gear.insert( get_body_part_token( jsarr.next_string() ) );
}
jsarr = jo.get_array( "armor" );
while( jsarr.has_more() ) {
JsonObject jo = jsarr.next_object();
auto parts = jo.get_tags( "parts" );
std::set<body_part> bps;
for( const std::string &part_string : parts ) {
if( part_string == "ALL" ) {
// Shorthand, since many mutations protect whole body
bps.insert( all_body_parts.begin(), all_body_parts.end() );
} else {
bps.insert( get_body_part_token( part_string ) );
}
}
resistances res = load_resistances_instance( jo );
for( body_part bp : bps ) {
armor[ bp ] = res;
}
}
if( jo.has_array( "attacks" ) ) {
jsarr = jo.get_array( "attacks" );
while( jsarr.has_more() ) {
JsonObject jo = jsarr.next_object();
attacks_granted.emplace_back( load_mutation_attack( jo ) );
}
} else if( jo.has_object( "attacks" ) ) {
JsonObject attack = jo.get_object( "attacks" );
attacks_granted.emplace_back( load_mutation_attack( attack ) );
}
}
void gun_actor::load_internal( JsonObject &obj, const std::string & )
{
gun_type = obj.get_string( "gun_type" );
obj.read( "ammo_type", ammo_type );
if( obj.has_array( "fake_skills" ) ) {
JsonArray jarr = obj.get_array( "fake_skills" );
while( jarr.has_more() ) {
JsonArray cur = jarr.next_array();
fake_skills[skill_id( cur.get_string( 0 ) )] = cur.get_int( 1 );
}
}
obj.read( "fake_str", fake_str );
obj.read( "fake_dex", fake_dex );
obj.read( "fake_int", fake_int );
obj.read( "fake_per", fake_per );
auto arr = obj.get_array( "ranges" );
while( arr.has_more() ) {
auto mode = arr.next_array();
if( mode.size() < 2 || mode.get_int( 0 ) > mode.get_int( 1 ) ) {
obj.throw_error( "incomplete or invalid range specified", "ranges" );
}
ranges.emplace( std::make_pair<int, int>( mode.get_int( 0 ), mode.get_int( 1 ) ),
gun_mode_id( mode.size() > 2 ? mode.get_string( 2 ) : "" ) );
}
obj.read( "max_ammo", max_ammo );
obj.read( "move_cost", move_cost );
if( obj.read( "description", description ) ) {
description = _( description );
}
if( obj.read( "failure_msg", failure_msg ) ) {
failure_msg = _( failure_msg );
}
if( obj.read( "no_ammo_sound", no_ammo_sound ) ) {
no_ammo_sound = _( no_ammo_sound );
} else {
no_ammo_sound = _( "Click." );
}
obj.read( "targeting_cost", targeting_cost );
obj.read( "require_targeting_player", require_targeting_player );
obj.read( "require_targeting_npc", require_targeting_npc );
obj.read( "require_targeting_monster", require_targeting_monster );
obj.read( "targeting_timeout", targeting_timeout );
obj.read( "targeting_timeout_extend", targeting_timeout_extend );
if( obj.read( "targeting_sound", targeting_sound ) ) {
targeting_sound = _( targeting_sound );
} else {
targeting_sound = _( "Beep." );
}
obj.read( "targeting_volume", targeting_volume );
obj.get_bool( "laser_lock", laser_lock );
obj.read( "require_sunlight", require_sunlight );
}
void material_type::load( JsonObject &jsobj, const std::string & )
{
mandatory( jsobj, was_loaded, "name", _name );
mandatory( jsobj, was_loaded, "bash_resist", _bash_resist );
mandatory( jsobj, was_loaded, "cut_resist", _cut_resist );
mandatory( jsobj, was_loaded, "acid_resist", _acid_resist );
mandatory( jsobj, was_loaded, "elec_resist", _elec_resist );
mandatory( jsobj, was_loaded, "fire_resist", _fire_resist );
mandatory( jsobj, was_loaded, "chip_resist", _chip_resist );
mandatory( jsobj, was_loaded, "density", _density );
assign( jsobj, "salvaged_into", _salvaged_into );
optional( jsobj, was_loaded, "repaired_with", _repaired_with, "null" );
optional( jsobj, was_loaded, "edible", _edible, false );
optional( jsobj, was_loaded, "soft", _soft, false );
auto arr = jsobj.get_array( "vitamins" );
while( arr.has_more() ) {
auto pair = arr.next_array();
_vitamins.emplace( vitamin_id( pair.get_string( 0 ) ), pair.get_float( 1 ) );
}
mandatory( jsobj, was_loaded, "bash_dmg_verb", _bash_dmg_verb );
mandatory( jsobj, was_loaded, "cut_dmg_verb", _cut_dmg_verb );
JsonArray jsarr = jsobj.get_array( "dmg_adj" );
while( jsarr.has_more() ) {
_dmg_adj.push_back( jsarr.next_string() );
}
JsonArray burn_data_array = jsobj.get_array( "burn_data" );
for( size_t intensity = 0; intensity < MAX_FIELD_DENSITY; intensity++ ) {
if( burn_data_array.has_more() ) {
JsonObject brn = burn_data_array.next_object();
_burn_data[ intensity ] = load_mat_burn_data( brn );
} else {
// If not specified, supply default
bool flammable = _fire_resist <= static_cast<int>( intensity );
mat_burn_data mbd;
if( flammable ) {
mbd.burn = 1;
}
_burn_data[ intensity ] = mbd;
}
}
auto bp_array = jsobj.get_array( "burn_products" );
while( bp_array.has_more( ) ) {
auto pair = bp_array.next_array();
_burn_products.emplace_back( pair.get_string( 0 ), static_cast< float >( pair.get_float( 1 ) ) );
}
auto compactor_in_array = jsobj.get_array( "compact_accepts" );
while( compactor_in_array.has_more( ) ) {
_compact_accepts.emplace_back( compactor_in_array.next_string() );
}
auto compactor_out_array = jsobj.get_array( "compacts_into" );
while( compactor_out_array.has_more( ) ) {
_compacts_into.emplace_back( compactor_out_array.next_string() );
}
}