libcw/cwFlowValue.cpp
kevin 7c645d6af9 cwFlowTypes.h/cpp,cwFlowValue.h/cpp :
1. cw::flow::value_t  moved from cwFlowTypes.h/cpp to cwFlowValue.h/cpp.
2. Added new flow value type cw::flow::recd_t and related functions and types.
2024-11-17 16:13:43 -05:00

1647 lines
42 KiB
C++

#include "cwCommon.h"
#include "cwLog.h"
#include "cwCommonImpl.h"
#include "cwTest.h"
#include "cwMem.h"
#include "cwMath.h"
#include "cwText.h"
#include "cwObject.h"
#include "cwFileSys.h"
#include "cwVectOps.h"
#include "cwMtx.h"
#include "cwDspTypes.h" // real_t, sample_t
#include "cwTime.h"
#include "cwMidiDecls.h"
#include "cwFlowValue.h"
namespace cw
{
namespace flow
{
idLabelPair_t _typeLabelFlagsA[] = {
{ kBoolTFl, "bool" },
{ kUIntTFl, "uint" },
{ kIntTFl, "int", },
{ kFloatTFl, "float"},
{ kDoubleTFl,"double"},
{ kBoolMtxTFl, "bool_mtx" },
{ kUIntMtxTFl, "uint_mtx" },
{ kIntMtxTFl, "int_mtx" },
{ kFloatMtxTFl, "float_mtx" },
{ kDoubleMtxTFl,"double_mtx" },
{ kABufTFl, "audio" },
{ kFBufTFl, "spectrum" },
{ kMBufTFl, "midi" },
{ kRBufTFl, "record" },
{ kStringTFl, "string" },
{ kTimeTFl, "time" },
{ kCfgTFl, "cfg" },
{ kMidiTFl, "m3" },
// alias types to map to cwDspTypes.h
{ kFloatTFl, "srate"},
{ kFloatTFl, "sample"},
{ kFloatTFl, "coeff"},
{ kDoubleTFl, "ftime" },
{ kNumericTFl, "numeric" },
{ kAllTFl, "all" },
{ kRuntimeTFl, "runtime" },
{ kInvalidTFl, "<invalid>" }
};
const char* _typeFlagToLabel( unsigned flag )
{
return idToLabel(_typeLabelFlagsA,flag,kInvalidTFl);
}
void _recd_type_destroy_field_list( recd_field_t* f )
{
while( f != nullptr )
{
recd_field_t* f0 = f->link;
if( f->group_fl )
_recd_type_destroy_field_list(f->u.group_fieldL);
mem::release(f->label);
mem::release(f);
f = f0;
}
}
rc_t _recd_type_add_field( recd_field_t*& fieldL_ref, const char* field_label, recd_field_t*& new_field_ref )
{
rc_t rc = kOkRC;
recd_field_t* f = nullptr;
recd_field_t* new_field = nullptr;
new_field_ref = nullptr;
if( textLength(field_label) == 0 )
{
rc = cwLogError(kInvalidArgRC,"A blank msg field was encountered.");
goto errLabel;
}
for(f=fieldL_ref; f!=nullptr; f=f->link)
{
if( textIsEqual(field_label,f->label))
{
rc = cwLogError(kInvalidArgRC,"A duplicate msg field '%s' has been encountered.", field_label);
goto errLabel;
}
// add the new field to the end of the list
if( f->link == nullptr )
break;
}
new_field = mem::allocZ<recd_field_t>();
new_field->label = mem::duplStr(field_label);
if( f == nullptr )
fieldL_ref = new_field;
else
f->link = new_field;
new_field_ref = new_field;
errLabel:
return rc;
}
rc_t _recd_type_add_value_field( recd_field_t*& fieldL_ref, const char* field_label, unsigned index )
{
rc_t rc;
recd_field_t* new_field = nullptr;
if((rc = _recd_type_add_field( fieldL_ref, field_label, new_field )) != kOkRC )
{
rc = cwLogError(rc,"Record add value field '%s' failed.",cwStringNullGuard(field_label));
goto errLabel;
}
new_field->group_fl = false;
new_field->u.index = index;
errLabel:
return rc;
}
rc_t _recd_type_add_group_field( recd_field_t*& fieldL_ref, const char* field_label, recd_field_t*& new_field_ref )
{
rc_t rc;
if((rc = _recd_type_add_field( fieldL_ref, field_label, new_field_ref )) != kOkRC )
{
rc = cwLogError(rc,"Record add group field '%s' failed.",cwStringNullGuard(field_label));
goto errLabel;
}
new_field_ref->group_fl = true;
errLabel:
return rc;
}
rc_t _recd_type_add_value_fields( recd_type_t* recd_type, recd_field_t*& fieldL_ref, const char* field_labels )
{
rc_t rc = kOkRC;
const char* s0 = field_labels;
while(s0 != nullptr)
{
s0 = nextNonWhiteChar(s0);
const char* s1 = nextWhiteChar(s0);
unsigned sn = s1==nullptr ? textLength(s0) : s1-s0;
char s[sn+1];
strncpy(s,s0,sn);
s[sn] = 0;
if((rc = _recd_type_add_value_field(fieldL_ref, s, recd_type->fieldN)) != kOkRC )
{
goto errLabel;
}
recd_type->fieldN += 1;
s0 = s1;
}
errLabel:
return rc;
}
const recd_field_t* _find_field( const recd_field_t* fieldL, const char* label, unsigned label_charN, bool group_fl )
{
for(const recd_field_t* f = fieldL; f!=nullptr; f=f->link)
{
unsigned n = textLength(f->label);
if( (f->group_fl == group_fl) && n==label_charN && textIsEqual(f->label,label,label_charN) )
return f;
}
return nullptr;
}
const recd_field_t* _find_value_field( const recd_field_t* fieldL, const char* field_label)
{
const char* period = firstMatchChar( field_label, '.' );
const recd_field_t* f = nullptr;;
// if we are searching for a value field label
if( period == nullptr )
{
if((f = _find_field( fieldL, field_label, textLength(field_label), false )) == nullptr )
{
goto errLabel;
}
}
else // otherwise we are searching for a group
{
if((f = _find_field( fieldL, field_label, period-field_label, true )) == nullptr )
{
goto errLabel;
}
return _find_value_field(f->u.group_fieldL,period+1);
}
errLabel:
return f;
}
unsigned _calc_value_field_index( const recd_type_t* recd_type, const char* field_label)
{
const recd_field_t* f;
unsigned index = kInvalidIdx;
// if the field label is in the local record
if((f = _find_value_field( recd_type->fieldL, field_label )) != nullptr )
{
assert(f->group_fl == false );
index = f->u.index;
}
else
{
// recursively look for the field in the base type
if( recd_type->base != nullptr )
{
if(( index = _calc_value_field_index( recd_type->base, field_label )) != kInvalidIdx )
index += recd_type->fieldN;
}
}
return index;
}
void _recd_type_print_fields( const recd_type_t* rt0, const recd_field_t* fieldL, const char* group_label, unsigned indent )
{
const recd_field_t* f;
char indent_str[ indent+1 ];
for(unsigned i=0; i<indent; ++i)
indent_str[i] = ' ';
indent_str[indent] = '\0';
// print non-group field first
for(f=fieldL; f!=nullptr; f=f->link)
if( f->group_fl == false )
{
unsigned labelN = textLength(f->label) + textLength(group_label) + 2;
char label[ labelN ];
label[0] = 0;
label[labelN-1] = 0;
if( group_label != nullptr )
{
strcpy(label,group_label);
strcat(label,".");
}
strcat(label,f->label);
unsigned field_idx = recd_type_field_index( rt0, label);
cwLogPrint("%s%i %i %s\n",indent_str,field_idx,f->u.index,f->label);
}
// print group fields next
for(f=fieldL; f!=nullptr; f=f->link)
if( f->group_fl )
{
cwLogPrint("%s %s:\n",indent_str,f->label);
_recd_type_print_fields(rt0,f->u.group_fieldL,f->label,indent+2);
}
}
void _recd_type_print( const recd_type_t* rt0, const recd_type_t* rt )
{
if( rt->base != nullptr )
_recd_type_print( rt0, rt->base );
_recd_type_print_fields(rt0,rt->fieldL,nullptr,0);
}
void _recd_print_field( const char* group_label, const recd_field_t* fieldL, const value_t* valA )
{
const recd_field_t* f;
for(f=fieldL; f!=nullptr; f=f->link)
if(f->group_fl)
_recd_print_field(f->label,f->u.group_fieldL,valA);
else
{
if( group_label != nullptr )
cwLogPrint("%i %s.%s ",f->u.index,group_label,f->label);
else
cwLogPrint("%i %s ",f->u.index,f->label);
value_print(valA + f->u.index,true);
cwLogPrint("\n");
}
}
rc_t _recd_print( const recd_type_t* rt, const recd_t* r )
{
rc_t rc = kOkRC;
if(rt->base != nullptr )
{
if( r->base == nullptr )
{
rc = cwLogError(kInvalidStateRC,"recd with base type does not have a base instance.");
goto errLabel;
}
_recd_print( rt->base, r->base );
}
_recd_print_field( nullptr,rt->fieldL, r->valA );
errLabel:
return rc;
}
} // flow
} // cw
cw::flow::abuf_t* cw::flow::abuf_create( srate_t srate, unsigned chN, unsigned frameN )
{
if( chN*frameN == 0 )
{
cwLogError(kInvalidArgRC,"The %s audio signal parameter cannot be zero.", chN==0 ? "channel count" : "frame count");
return nullptr;
}
abuf_t* a = mem::allocZ<abuf_t>();
a->srate = srate;
a->chN = chN;
a->frameN = frameN;
a->bufAllocSmpN = chN*frameN;
a->buf = mem::allocZ<sample_t>(a->bufAllocSmpN);
return a;
}
void cw::flow::abuf_destroy( abuf_t*& abuf )
{
if( abuf == nullptr )
return;
mem::release(abuf->buf);
mem::release(abuf);
}
cw::flow::abuf_t* cw::flow::abuf_duplicate( abuf_t* dst, const abuf_t* src )
{
abuf_t* abuf = nullptr;
if( dst != nullptr && dst->bufAllocSmpN < src->bufAllocSmpN )
mem::release(dst->buf);
if( dst == nullptr || dst->buf == nullptr )
abuf = abuf_create( src->srate, src->chN, src->frameN );
else
abuf = dst;
if( abuf != nullptr )
vop::copy(abuf->buf,src->buf,src->chN*src->frameN);
return abuf;
}
cw::rc_t cw::flow::abuf_set_channel( abuf_t* abuf, unsigned chIdx, const sample_t* v, unsigned vN )
{
rc_t rc = kOkRC;
if( vN > abuf->frameN )
rc = cwLogError(kInvalidArgRC,"Cannot copy source vector of length %i into an abuf of length %i.", vN, abuf->frameN);
else
if( chIdx > abuf->chN )
rc = cwLogError(kInvalidArgRC,"The abuf destination channel %i is out of range.", chIdx);
else
vop::copy( abuf->buf + (chIdx*abuf->frameN), v, vN);
return rc;
}
const cw::flow::sample_t* cw::flow::abuf_get_channel( abuf_t* abuf, unsigned chIdx )
{
assert( abuf->buf != nullptr );
return abuf->buf + (chIdx*abuf->frameN);
}
cw::flow::fbuf_t* cw::flow::fbuf_create( srate_t srate, unsigned chN, const unsigned* maxBinN_V, const unsigned* binN_V, const unsigned* hopSmpN_V, const fd_sample_t** magV, const fd_sample_t** phsV, const fd_sample_t** hzV )
{
for(unsigned i=0; i<chN; ++i)
if( binN_V[i] > maxBinN_V[i] )
{
cwLogError(kInvalidArgRC,"A channel bin count (%i) execeeds the max bin count (%i).",binN_V[i],maxBinN_V[i]);
return nullptr;;
}
fbuf_t* f = mem::allocZ<fbuf_t>();
bool proxy_fl = magV != nullptr || phsV != nullptr || hzV != nullptr;
// Calculate the total count of bins for each data vector.
unsigned maxTotalBinN = proxy_fl ? 0 : vop::sum(maxBinN_V, chN);
// calc the total size of memory required for all internal data structures
f->memByteN
= sizeof(unsigned) * chN*kFbufVectN // maxBinN_V[],binN_V[],hopSmpN_V[]
+ sizeof(fd_sample_t*) * chN*kFbufVectN // magV[],phsV[],hzV[] (pointer to bin buffers)
+ sizeof(bool) * chN*1 // readyFlV[]
+ sizeof(fd_sample_t) * maxTotalBinN*kFbufVectN; // bin buffer memory
// allocate mory
f->mem = mem::allocZ<uint8_t>(f->memByteN);
unsigned* base_maxBinV = (unsigned*)f->mem;
fd_sample_t** base_bufV = (fd_sample_t**)(base_maxBinV + kFbufVectN * chN);
bool* base_boolV = (bool*)(base_bufV + kFbufVectN * chN);
fd_sample_t* base_buf = (fd_sample_t*)(base_boolV + chN);
f->srate = srate;
f->chN = chN;
f->maxBinN_V = base_maxBinV;
f->binN_V = f->maxBinN_V + chN;
f->hopSmpN_V = f->binN_V + chN;
f->magV = base_bufV;
f->phsV = f->magV + chN;
f->hzV = f->phsV + chN;
f->readyFlV = base_boolV;
vop::copy( f->binN_V, binN_V, chN );
vop::copy( f->maxBinN_V, maxBinN_V, chN );
vop::copy( f->hopSmpN_V, hopSmpN_V, chN );
if( proxy_fl )
{
for(unsigned chIdx=0; chIdx<chN; ++chIdx)
{
f->magV[ chIdx ] = (fd_sample_t*)magV[chIdx];
f->phsV[ chIdx ] = (fd_sample_t*)phsV[chIdx];
f->hzV[ chIdx ] = (fd_sample_t*)hzV[chIdx];
}
}
else
{
fd_sample_t* m = base_buf;
for(unsigned chIdx=0; chIdx<chN; ++chIdx)
{
f->magV[chIdx] = m + 0 * f->binN_V[chIdx];
f->phsV[chIdx] = m + 1 * f->binN_V[chIdx];
f->hzV[ chIdx] = m + 2 * f->binN_V[chIdx];
m += f->maxBinN_V[chIdx];
assert( m <= base_buf + kFbufVectN * maxTotalBinN );
}
}
return f;
}
/*
cw::flow::fbuf_t* cw::flow::fbuf_create( srate_t srate, unsigned chN, const unsigned* maxBinN_V, const unsigned* binN_V, const unsigned* hopSmpN_V, const fd_sample_t** magV, const fd_sample_t** phsV, const fd_sample_t** hzV )
{
for(unsigned i=0; i<chN; ++i)
if( binN_V[i] > maxBinN_V[i] )
{
cwLogError(kInvalidArgRC,"A channel bin count (%i) execeeds the max bin count (%i).",binN_V[i],maxBinN_V[i]);
return nullptr;;
}
fbuf_t* f = mem::allocZ<fbuf_t>();
f->srate = srate;
f->chN = chN;
f->maxBinN_V = mem::allocZ<unsigned>(chN);
f->binN_V = mem::allocZ<unsigned>(chN);
f->hopSmpN_V = mem::allocZ<unsigned>(chN);
f->magV = mem::allocZ<fd_sample_t*>(chN);
f->phsV = mem::allocZ<fd_sample_t*>(chN);
f->hzV = mem::allocZ<fd_sample_t*>(chN);
f->readyFlV = mem::allocZ<bool>(chN);
vop::copy( f->binN_V, binN_V, chN );
vop::copy( f->maxBinN_V, maxBinN_V, chN );
vop::copy( f->hopSmpN_V, hopSmpN_V, chN );
if( magV != nullptr || phsV != nullptr || hzV != nullptr )
{
for(unsigned chIdx=0; chIdx<chN; ++chIdx)
{
f->magV[ chIdx ] = (fd_sample_t*)magV[chIdx];
f->phsV[ chIdx ] = (fd_sample_t*)phsV[chIdx];
f->hzV[ chIdx ] = (fd_sample_t*)hzV[chIdx];
}
}
else
{
unsigned maxTotalBinsN = vop::sum( maxBinN_V, chN );
fd_sample_t* buf = mem::allocZ<fd_sample_t>( kFbufVectN * maxTotalBinsN );
fd_sample_t* m = buf;
for(unsigned chIdx=0; chIdx<chN; ++chIdx)
{
f->magV[chIdx] = m + 0 * f->binN_V[chIdx];
f->phsV[chIdx] = m + 1 * f->binN_V[chIdx];
f->hzV[ chIdx] = m + 2 * f->binN_V[chIdx];
m += f->maxBinN_V[chIdx];
assert( m <= buf + kFbufVectN * maxTotalBinsN );
}
f->buf = buf;
}
return f;
}
*/
cw::flow::fbuf_t* cw::flow::fbuf_create( srate_t srate, unsigned chN, unsigned maxBinN, unsigned binN, unsigned hopSmpN, const fd_sample_t** magV, const fd_sample_t** phsV, const fd_sample_t** hzV )
{
unsigned maxBinN_V[ chN ];
unsigned binN_V[ chN ];
unsigned hopSmpN_V[ chN ];
vop::fill( maxBinN_V, chN, maxBinN );
vop::fill( binN_V, chN, binN );
vop::fill( hopSmpN_V, chN, binN );
return fbuf_create( srate, chN, maxBinN_V, binN_V, hopSmpN_V, magV, phsV, hzV );
}
void cw::flow::fbuf_destroy( fbuf_t*& fbuf )
{
if( fbuf == nullptr )
return;
mem::release( fbuf->mem);
mem::release( fbuf);
}
cw::flow::fbuf_t* cw::flow::fbuf_duplicate( fbuf_t* dst, const fbuf_t* src )
{
fbuf_t* fbuf = nullptr;
if( dst != nullptr && dst->memByteN < src->memByteN )
fbuf_destroy(dst);
if( dst == nullptr )
fbuf = fbuf_create( src->srate, src->chN, src->maxBinN_V, src->binN_V, src->hopSmpN_V );
else
fbuf = dst;
for(unsigned i=0; i<fbuf->chN; ++i)
{
fbuf->maxBinN_V[i] = src->maxBinN_V[i];
fbuf->binN_V[i] = src->binN_V[i];
fbuf->hopSmpN_V[i] = src->hopSmpN_V[i];
vop::copy( fbuf->magV[i], src->magV[i], fbuf->binN_V[i] );
vop::copy( fbuf->phsV[i], src->phsV[i], fbuf->binN_V[i] );
vop::copy( fbuf->hzV[i], src->hzV[i], fbuf->binN_V[i] );
}
return fbuf;
}
cw::flow::mbuf_t* cw::flow::mbuf_create( const midi::ch_msg_t* msgA, unsigned msgN )
{
mbuf_t* m = mem::allocZ<mbuf_t>();
m->msgA = msgA;
m->msgN = msgN;
return m;
}
void cw::flow::mbuf_destroy( mbuf_t*& buf )
{
mem::release(buf);
}
cw::flow::mbuf_t* cw::flow::mbuf_duplicate( const mbuf_t* src )
{
return mbuf_create(src->msgA,src->msgN);
}
cw::flow::rbuf_t* cw::flow::rbuf_create( const recd_type_t* type, const recd_t* recdA, unsigned recdN )
{
rbuf_t* m = mem::allocZ<rbuf_t>();
m->type = type;
m->recdA = recdA;
m->recdN = recdN;
return m;
}
void cw::flow::rbuf_destroy( rbuf_t*& buf )
{
mem::release(buf);
}
cw::flow::rbuf_t* cw::flow::rbuf_duplicate( const rbuf_t* src )
{
return rbuf_create(src->type,src->recdA,src->recdN);
}
void cw::flow::rbuf_setup( rbuf_t* rbuf, recd_type_t* type, recd_t* recdA, unsigned recdN )
{
rbuf->type = type;
rbuf->recdA = recdA;
rbuf->recdN = recdN;
}
unsigned cw::flow::value_type_label_to_flag( const char* s )
{
unsigned flags = labelToId(_typeLabelFlagsA,s,kInvalidTFl);
if( flags == kInvalidTFl )
cwLogError(kInvalidArgRC,"Invalid type flag: '%s'",cwStringNullGuard(s));
return flags;
}
const char* cw::flow::value_type_flag_to_label( unsigned flag )
{ return _typeFlagToLabel(flag); }
void cw::flow::value_release( value_t* v )
{
if( v == nullptr )
return;
switch( v->tflag & kTypeMask )
{
case kInvalidTFl:
break;
case kBoolTFl:
case kUIntTFl:
case kIntTFl:
case kFloatTFl:
case kDoubleTFl:
break;
case kABufTFl:
abuf_destroy( v->u.abuf );
break;
case kFBufTFl:
fbuf_destroy( v->u.fbuf );
break;
case kMBufTFl:
mbuf_destroy( v->u.mbuf );
break;
case kRBufTFl:
rbuf_destroy( v->u.rbuf );
break;
case kBoolMtxTFl:
case kUIntMtxTFl:
case kIntMtxTFl:
case kFloatMtxTFl:
case kDoubleMtxTFl:
assert(0); // not implemeneted
break;
case kStringTFl:
mem::release( v->u.s );
break;
case kTimeTFl:
assert(0);
break;
case kCfgTFl:
break;
case kMidiTFl:
break;
default:
assert(0);
break;
}
v->tflag = kInvalidTFl;
}
void cw::flow::value_duplicate( value_t& dst, const value_t& src )
{
switch( src.tflag & kTypeMask )
{
case kInvalidTFl:
break;
case kBoolTFl:
case kUIntTFl:
case kIntTFl:
case kFloatTFl:
case kDoubleTFl:
dst = src;
break;
case kABufTFl:
dst.u.abuf = src.u.abuf == nullptr ? nullptr : abuf_duplicate(dst.u.abuf,src.u.abuf);
dst.tflag = src.tflag;
break;
case kFBufTFl:
dst.u.fbuf = src.u.fbuf == nullptr ? nullptr : fbuf_duplicate(dst.u.fbuf,src.u.fbuf);
dst.tflag = src.tflag;
break;
case kMBufTFl:
dst.u.mbuf = src.u.mbuf == nullptr ? nullptr : mbuf_duplicate(src.u.mbuf);
dst.tflag = src.tflag;
break;
case kRBufTFl:
dst.u.rbuf = src.u.rbuf == nullptr ? nullptr : rbuf_duplicate(src.u.rbuf);
dst.tflag = src.tflag;
break;
case kBoolMtxTFl:
case kUIntMtxTFl:
case kIntMtxTFl:
case kFloatMtxTFl:
case kDoubleMtxTFl:
assert(0); // not implemeneted
break;
case kStringTFl:
dst.u.s = mem::duplStr( dst.u.s );
dst.tflag = src.tflag;
break;
case kTimeTFl:
assert(0);
break;
case kCfgTFl:
dst = src;
break;
case kMidiTFl:
dst.u.midi = src.u.midi;
break;
default:
assert(0);
break;
}
}
void cw::flow::value_print( const value_t* v, bool info_fl )
{
if( v == nullptr )
return;
switch( v->tflag & kTypeMask )
{
case kInvalidTFl:
cwLogPrint("<invalid>");
break;
case kBoolTFl:
cwLogPrint("%s%s ", info_fl ? "b:" : "", v->u.b ? "true" : "false" );
break;
case kUIntTFl:
cwLogPrint("%s%i ", info_fl ? "u:" : "", v->u.u );
break;
case kIntTFl:
cwLogPrint("%s%i ", info_fl ? "i:" : "", v->u.i );
break;
case kFloatTFl:
cwLogPrint("%s%f ", info_fl ? "f:" : "", v->u.f );
break;
case kDoubleTFl:
cwLogPrint("%s%f ", info_fl ? "d:" : "", v->u.d );
break;
case kABufTFl:
if( info_fl )
{
if( v->u.abuf == nullptr )
cwLogPrint("abuf: <null>");
else
cwLogPrint("abuf: chN:%i frameN:%i srate:%8.1f ", v->u.abuf->chN, v->u.abuf->frameN, v->u.abuf->srate );
}
else
{
bool null_fl = v->u.abuf==nullptr || v->u.abuf->buf == nullptr;
cwLogPrint("(");
for(unsigned i=0; i<v->u.abuf->chN; ++i)
cwLogPrint("%f ",null_fl ? 0.0 : vop::rms(v->u.abuf->buf + i*v->u.abuf->frameN, v->u.abuf->frameN));
cwLogPrint(") ");
}
break;
case kFBufTFl:
if( info_fl )
{
if( v->u.fbuf == nullptr )
cwLogPrint("fbuf: <null>");
else
{
cwLogPrint("fbuf: chN:%i srate:%8.1f ", v->u.fbuf->chN, v->u.fbuf->srate );
for(unsigned i=0; i<v->u.fbuf->chN; ++i)
cwLogPrint("(binN:%i hopSmpN:%i) ", v->u.fbuf->binN_V[i], v->u.fbuf->hopSmpN_V[i] );
}
}
else
{
bool null_fl = v->u.fbuf==nullptr || v->u.fbuf->magV == nullptr;
cwLogPrint("(");
for(unsigned i=0; i<v->u.fbuf->chN; ++i)
cwLogPrint("%f ",null_fl ? 0.0 : vop::mean(v->u.fbuf->magV[i], v->u.fbuf->binN_V[i]));
cwLogPrint(") ");
}
break;
case kMBufTFl:
if( info_fl )
{
if( v->u.mbuf == nullptr )
cwLogPrint("mbuf: <null>");
else
{
cwLogPrint("mbuf: cnt: %i", v->u.mbuf->msgN );
}
}
else
{
//bool null_fl = v->u.mbuf==nullptr || v->u.mbuf->msgA == nullptr;
for(unsigned i=0; i<v->u.mbuf->msgN; ++i)
cwLogPrint("(0x%x 0x%x 0x%x) ",v->u.mbuf->msgA[i].status + v->u.mbuf->msgA[i].ch,v->u.mbuf->msgA[i].d0,v->u.mbuf->msgA[i].d1);
}
break;
case kRBufTFl:
if( info_fl )
{
if( v->u.rbuf == nullptr )
cwLogPrint("rbuf: <null>");
else
{
cwLogPrint("rbuf: cnt: %i", v->u.rbuf->recdN );
}
}
else
{
for(unsigned i=0; i<v->u.rbuf->recdN; ++i)
{
assert(0);
// BUG BUG BUG
// implement _print_record()
}
}
break;
case kBoolMtxTFl:
case kUIntMtxTFl:
case kIntMtxTFl:
case kFloatMtxTFl:
case kDoubleMtxTFl:
assert(0); // not implemeneted
break;
case kStringTFl:
cwLogPrint("s:%s ", v->u.s);
break;
case kTimeTFl:
assert(0);
break;
case kCfgTFl:
cwLogPrint("c:");
if( v->u.cfg != nullptr )
v->u.cfg->print();
break;
case kMidiTFl:
cwLogPrint("m:");
if( v->u.midi != nullptr )
cwLogPrint("dev:%i port:%i uid:%i ch:%i st:0x%x d0:0x%x d1:0x%x",v->u.midi->devIdx,v->u.midi->portIdx,v->u.midi->uid,v->u.midi->ch,v->u.midi->status,v->u.midi->d0,v->u.midi->d1);
break;
default:
assert(0);
break;
}
}
cw::rc_t cw::flow::value_get( const value_t* val, bool& valRef )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: valRef = val->u.b; break;
case kUIntTFl: valRef = val->u.u!=0; break;
case kIntTFl: valRef = val->u.i!=0; break;
case kFloatTFl: valRef = val->u.f!=0; break;
case kDoubleTFl: valRef = val->u.d!=0; break;
default:
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a bool.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, bool v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: val->u.b=v; break;
case kUIntTFl: val->u.u=v; break;
case kIntTFl: val->u.i=v; break;
case kFloatTFl: val->u.f=v; break;
case kDoubleTFl: val->u.d=v; break;
case kInvalidTFl:
val->u.b = v;
val->tflag = kBoolTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A bool could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, uint_t& valRef )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: valRef = val->u.b ? 1 : 0; break;
case kUIntTFl: valRef = val->u.u; break;
case kIntTFl: valRef = val->u.i; break;
case kFloatTFl: valRef = (uint_t)val->u.f; break;
case kDoubleTFl: valRef = (uint_t)val->u.d; break;
default:
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a uint.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, uint_t v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: val->u.b=v!=0; break;
case kUIntTFl: val->u.u=v; break;
case kIntTFl: val->u.i=v; break;
case kFloatTFl: val->u.f=v; break;
case kDoubleTFl: val->u.d=v; break;
case kInvalidTFl:
val->u.u = v;
val->tflag = kUIntTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A uint could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, int_t& valRef )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: valRef = val->u.b ? 1 : 0; break;
case kUIntTFl: valRef = (int_t)val->u.u; break;
case kIntTFl: valRef = val->u.i; break;
case kFloatTFl: valRef = (int_t)val->u.f; break;
case kDoubleTFl: valRef = (int_t)val->u.d; break;
default:
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to an int.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, int_t v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: val->u.b=v!=0; break;
case kUIntTFl: val->u.u=v; break;
case kIntTFl: val->u.i=v; break;
case kFloatTFl: val->u.f=v; break;
case kDoubleTFl: val->u.d=v; break;
case kInvalidTFl:
val->u.i = v;
val->tflag = kIntTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"An int could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, float& valRef )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: valRef = val->u.b ? 1 : 0; break;
case kUIntTFl: valRef = (float)val->u.u; break;
case kIntTFl: valRef = (float)val->u.i; break;
case kFloatTFl: valRef = (float)val->u.f; break;
case kDoubleTFl: valRef = (float)val->u.d; break;
default:
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a float.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, float v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: val->u.b=v!=0; break;
case kUIntTFl: val->u.u=(unsigned)v; break;
case kIntTFl: val->u.i=(int)v; break;
case kFloatTFl: val->u.f=v; break;
case kDoubleTFl: val->u.d=v; break;
case kInvalidTFl:
val->u.f = v;
val->tflag = kFloatTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A float could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, double& valRef )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: valRef = val->u.b ? 1 : 0; break;
case kUIntTFl: valRef = (double)val->u.u; break;
case kIntTFl: valRef = (double)val->u.i; break;
case kFloatTFl: valRef = (double)val->u.f; break;
case kDoubleTFl: valRef = val->u.d; break;
default:
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a double.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, double v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kBoolTFl: val->u.b=v!=0; break;
case kUIntTFl: val->u.u=(unsigned)v; break;
case kIntTFl: val->u.i=(int)v; break;
case kFloatTFl: val->u.f=(float)v; break;
case kDoubleTFl: val->u.d=v; break;
case kInvalidTFl:
val->u.d = v;
val->tflag = kDoubleTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A double could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, const char*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kStringTFl) )
valRef = val->u.s;
else
{
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a string.",_typeFlagToLabel(val->tflag),val->tflag);
valRef = nullptr;
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, const char* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kStringTFl:
val->u.s=mem::duplStr(v); break;
case kInvalidTFl:
val->u.s = mem::duplStr(v);
val->tflag = kStringTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A string could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, abuf_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kABufTFl) )
valRef = val->u.abuf;
else
{
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to an abuf.",_typeFlagToLabel(val->tflag),val->tflag);
valRef = nullptr;
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, const abuf_t*& valRef )
{
abuf_t* non_const_val;
rc_t rc = kOkRC;
if((rc = value_get(val,non_const_val)) == kOkRC )
valRef = non_const_val;
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, abuf_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kABufTFl:
val->u.abuf=v;
break;
case kInvalidTFl:
val->u.abuf=v;
val->tflag = kABufTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A audio signal could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, fbuf_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kFBufTFl) )
valRef = val->u.fbuf;
else
{
valRef = nullptr;
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to an fbuf.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, const fbuf_t*& valRef )
{
fbuf_t* non_const_val;
rc_t rc = kOkRC;
if((rc = value_get(val,non_const_val)) == kOkRC )
valRef = non_const_val;
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, fbuf_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kFBufTFl:
val->u.fbuf=v;
break;
case kInvalidTFl:
val->u.fbuf=v;
val->tflag = kFBufTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A spectrum signal could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, mbuf_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kMBufTFl) )
valRef = val->u.mbuf;
else
{
valRef = nullptr;
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to an mbuf.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, const mbuf_t*& valRef )
{
mbuf_t* non_const_val;
rc_t rc = kOkRC;
if((rc = value_get(val,non_const_val)) == kOkRC )
valRef = non_const_val;
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, mbuf_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kMBufTFl:
val->u.mbuf=v;
break;
case kInvalidTFl:
val->u.mbuf=v;
val->tflag = kMBufTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A MIDI signal could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, rbuf_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kRBufTFl) )
valRef = val->u.rbuf;
else
{
valRef = nullptr;
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to an rbuf.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, const rbuf_t*& valRef )
{
rbuf_t* non_const_val;
rc_t rc = kOkRC;
if((rc = value_get(val,non_const_val)) == kOkRC )
valRef = non_const_val;
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, rbuf_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kRBufTFl:
val->u.rbuf=v;
break;
case kInvalidTFl:
val->u.rbuf=v;
val->tflag = kRBufTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A recd-buf could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( value_t* val, const object_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kCfgTFl) )
valRef = val->u.cfg;
else
{
valRef = nullptr;
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a cfg.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set( value_t* val, const object_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kCfgTFl:
val->u.cfg=v;
break;
case kInvalidTFl:
val->u.cfg=v;
val->tflag = kCfgTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A cfg. could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_get( const value_t* val, midi::ch_msg_t*& valRef )
{
rc_t rc = kOkRC;
if( cwIsFlag(val->tflag & kTypeMask, kMidiTFl) )
valRef = val->u.midi;
else
{
valRef = nullptr;
rc = cwLogError(kTypeMismatchRC,"The type %s (0x%x) could not be converted to a MIDI record.",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::value_set(value_t* val, midi::ch_msg_t* v )
{
rc_t rc = kOkRC;
switch( val->tflag & kTypeMask )
{
case kMidiTFl:
val->u.midi=v;
break;
case kInvalidTFl:
val->u.midi=v;
val->tflag = kCfgTFl;
break;
default:
rc = cwLogError(kTypeMismatchRC,"A MIDI record could not be converted to a %s (0x%x).",_typeFlagToLabel(val->tflag),val->tflag);
}
return rc;
}
cw::rc_t cw::flow::recd_type_create( recd_type_t*& recd_type_ref, const recd_type_t* base, const char* fields_str )
{
rc_t rc = kOkRC;
recd_type_t* recd_type = mem::allocZ<recd_type_t>();
recd_type_ref = nullptr;
if((rc = recd_type_add_value_fields( recd_type, fields_str )) != kOkRC )
{
goto errLabel;
}
recd_type->base = base;
recd_type_ref = recd_type;
errLabel:
if( rc != kOkRC && recd_type != nullptr )
{
rc = cwLogError(rc,"recd_type create failed.");
recd_type_destroy(recd_type);
}
return rc;
}
void cw::flow::recd_type_destroy( recd_type_t*& recd_type_ref )
{
if( recd_type_ref == nullptr )
return;
_recd_type_destroy_field_list(recd_type_ref->fieldL);
mem::release(recd_type_ref);
}
cw::rc_t cw::flow::recd_type_add_value_fields( recd_type_t* recd_type, const char* field_labels )
{
return _recd_type_add_value_fields( recd_type, recd_type->fieldL, field_labels );
}
cw::rc_t cw::flow::recd_type_add_group( recd_type_t* recd_type, const char* group_label, const char* field_labels )
{
rc_t rc;
recd_field_t* f = nullptr;
if((rc = _recd_type_add_group_field( recd_type->fieldL, group_label, f )) != kOkRC )
{
goto errLabel;
}
if((rc = _recd_type_add_value_fields( recd_type, f->u.group_fieldL, field_labels )) != kOkRC )
{
goto errLabel;
}
errLabel:
if( rc !=kOkRC )
rc = cwLogError(rc,"Record group add failed.");
return rc;
}
unsigned cw::flow::recd_type_max_field_count( const recd_type_t* recd_type )
{
unsigned n = 0;
for(const recd_type_t* t = recd_type; t!=nullptr; t=t->base)
n += t->fieldN;
return n;
}
unsigned cw::flow::recd_type_field_index( const recd_type_t* recd_type, const char* field_label)
{
unsigned index;
if((index = _calc_value_field_index( recd_type, field_label)) == kInvalidIdx )
{
cwLogError(kInvalidArgRC,"The record field label '%s' was not found.",cwStringNullGuard(field_label));
goto errLabel;
}
errLabel:
return index;
}
void cw::flow::recd_type_print( const recd_type_t* recd_type )
{
_recd_type_print(recd_type,recd_type);
}
cw::rc_t cw::flow::recd_print( const recd_type_t* rt, const recd_t* r )
{ return _recd_print( rt, r ); }
cw::rc_t cw::flow::recd_array_create( recd_array_t*& recd_array_ref, recd_type_t* recd_type, unsigned allocRecdN )
{
rc_t rc = kOkRC;
recd_array_t* recd_array = mem::allocZ<recd_array_t>();
recd_array_ref = nullptr;
recd_array->type = recd_type;
recd_array->valA = mem::allocZ<value_t>(recd_array->type->fieldN * allocRecdN);
recd_array->recdA = mem::allocZ<recd_t>(allocRecdN);
recd_array->allocRecdN = allocRecdN;
for(unsigned i=0; i<allocRecdN; ++i)
recd_array->recdA[i].valA = recd_array->valA + (i*recd_array->type->fieldN);
recd_array_ref = recd_array;
//if( rc != kOkRC )
// recd_array_destroy(recd_array);
return rc;
}
cw::rc_t cw::flow::recd_array_destroy( recd_array_t*& recd_array_ref )
{
if( recd_array_ref != nullptr )
{
mem::release(recd_array_ref->valA);
mem::release(recd_array_ref->recdA);
mem::release(recd_array_ref);
}
return kOkRC;
}
cw::rc_t cw::flow::value_test( const test::test_args_t& args )
{
rc_t rc = kOkRC;
recd_type_t* rt0 = nullptr;
recd_type_t* rt1 = nullptr;
recd_array_t* ra0 = nullptr;
recd_array_t* ra1 = nullptr;
if((rc = recd_type_create( rt0, nullptr, "a b c" )) != kOkRC )
{
rc = cwLogError(rc,"rt0 create failed.");
goto errLabel;
}
if((rc = recd_type_add_group( rt0, "g0", "a b c" )) != kOkRC )
{
rc = cwLogError(rc,"rt.g0 group create failed.");
goto errLabel;
}
if((rc = recd_type_create( rt1, rt0, "d e f" )) != kOkRC )
{
rc = cwLogError(rc,"rt0 create failed.");
goto errLabel;
}
if((rc = recd_type_add_group( rt1, "g1", "a b c" )) != kOkRC )
{
rc = cwLogError(rc,"rt.g0 group create failed.");
goto errLabel;
}
recd_type_print( rt0 );
recd_type_print( rt1 );
if((rc = recd_array_create(ra0,rt0,10)) != kOkRC )
{
rc = cwLogError(rc,"ra0 alloc failed.");
goto errLabel;
}
if((rc = recd_array_create(ra1,rt1,10)) != kOkRC )
{
rc = cwLogError(rc,"ra1 alloc failed.");
goto errLabel;
}
for(unsigned i=0; i<ra0->allocRecdN; ++i)
{
recd_t* r = ra0->recdA + i;
rc_t rc0 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"a"), 0*i);
rc_t rc1 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"b"), 1*i);
rc_t rc2 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"c"), 2*i);
rc_t rc3 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"g0.a"), 4.0*i);
rc_t rc4 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"g0.b"), 5.0*i);
rc_t rc5 = recd_set( ra0->type, nullptr, r, recd_type_field_index(ra0->type,"g0.c"), 6.0*i);
if((rc = rcSelect(rc0,rc1,rc2,rc3,rc4,rc5)) != kOkRC )
{
rc = cwLogError(rc,"recd_set() failed on ra0.");
goto errLabel;
}
}
for(unsigned i=0; i<ra0->allocRecdN; ++i)
recd_print(ra0->type,ra0->recdA+i);
for(unsigned i=0; i<ra1->allocRecdN; ++i)
{
recd_t* r = ra1->recdA + i;
recd_t* r_base = ra0->recdA + i;
rc_t rc0 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"d"), 0*i*2);
rc_t rc1 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"e"), 1*i*2);
rc_t rc2 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"f"), 2*i*2);
rc_t rc3 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"g1.a"), 4.0*i*2);
rc_t rc4 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"g1.b"), 5.0*i*2);
rc_t rc5 = recd_set( ra1->type, r_base, r, recd_type_field_index(ra1->type,"g1.c"), 6.0*i*2);
if((rc = rcSelect(rc0,rc1,rc2,rc3,rc4,rc5)) != kOkRC )
{
rc = cwLogError(rc,"recd_set() failed on ra1.");
goto errLabel;
}
}
for(unsigned i=0; i<ra1->allocRecdN; ++i)
recd_print(ra1->type,ra1->recdA+i);
recd_array_destroy(ra0);
recd_array_destroy(ra1);
recd_type_destroy(rt0);
recd_type_destroy(rt1);
errLabel:
return rc;
}