static inline LADSPA_Data sat(LADSPA_Data x, float q, float dist) {
if (x == q) {
return 1.0f / dist + q / (1.0f - f_exp(dist * q));
}
return ((x - q) / (1.0f - f_exp(-dist * (x - q))) + q /
(1.0f - f_exp(dist * q)));
}
static void runValveRect(LV2_Handle instance, uint32_t sample_count)
{
ValveRect *plugin_data = (ValveRect *)instance;
const float sag = *(plugin_data->sag);
const float dist_p = *(plugin_data->dist_p);
const float * const input = plugin_data->input;
float * const output = plugin_data->output;
float lp1tm1 = plugin_data->lp1tm1;
float lp2tm1 = plugin_data->lp2tm1;
float * avg = plugin_data->avg;
int avg_size = plugin_data->avg_size;
float avg_sizer = plugin_data->avg_sizer;
float avgs = plugin_data->avgs;
unsigned int apos = plugin_data->apos;
unsigned long pos;
float q, x, fx;
const float dist = dist_p * 40.0f + 0.1f;
for (pos = 0; pos < sample_count; pos++) {
x = fabs(input[pos]);
if (x > lp1tm1) {
lp1tm1 = x;
} else {
lp1tm1 = 0.9999f * lp1tm1 + 0.0001f * x;
}
avgs -= avg[apos];
avgs += lp1tm1;
avg[apos++] = lp1tm1;
apos %= avg_size;
lp2tm1 = 0.999f * lp2tm1 + avgs*avg_sizer * 0.001f;
q = lp1tm1 * sag - lp2tm1 * 1.02f - 1.0f;
if (q > -0.01f) {
q = -0.01f;
} else if (q < -1.0f) {
q = -1.0f;
}
if (input[pos] == q) {
fx = 1.0f / dist + q / (1.0f - f_exp(dist * q));
} else {
fx = (input[pos] - q) /
(1.0f - f_exp(-dist * (input[pos] - q))) +
q / (1.0f - f_exp(dist * q));
}
buffer_write(output[pos], fx);
}
plugin_data->lp1tm1 = lp1tm1;
plugin_data->lp2tm1 = lp2tm1;
plugin_data->avgs = avgs;
plugin_data->apos = apos;
}
static void runAddingValve(LADSPA_Handle instance, unsigned long sample_count) {
Valve *plugin_data = (Valve *)instance;
LADSPA_Data run_adding_gain = plugin_data->run_adding_gain;
/* Distortion level (float value) */
const LADSPA_Data q_p = *(plugin_data->q_p);
/* Distortion character (float value) */
const LADSPA_Data dist_p = *(plugin_data->dist_p);
/* Input (array of floats of length sample_count) */
const LADSPA_Data * const input = plugin_data->input;
/* Output (array of floats of length sample_count) */
LADSPA_Data * const output = plugin_data->output;
LADSPA_Data itm1 = plugin_data->itm1;
LADSPA_Data otm1 = plugin_data->otm1;
#line 26 "valve_1209.xml"
unsigned long pos;
LADSPA_Data fx;
const float q = q_p - 0.999f;
const float dist = dist_p * 40.0f + 0.1f;
if (q == 0.0f) {
for (pos = 0; pos < sample_count; pos++) {
if (input[pos] == q) {
fx = 1.0f / dist;
} else {
fx = input[pos] / (1.0f - f_exp(-dist * input[pos]));
}
otm1 = 0.999f * otm1 + fx - itm1;
round_to_zero(&otm1);
itm1 = fx;
buffer_write(output[pos], otm1);
}
} else {
for (pos = 0; pos < sample_count; pos++) {
if (input[pos] == q) {
fx = 1.0f / dist + q / (1.0f - f_exp(dist * q));
} else {
fx = (input[pos] - q) /
(1.0f - f_exp(-dist * (input[pos] - q))) +
q / (1.0f - f_exp(dist * q));
}
otm1 = 0.999f * otm1 + fx - itm1;
round_to_zero(&otm1);
itm1 = fx;
buffer_write(output[pos], otm1);
}
}
plugin_data->itm1 = itm1;
plugin_data->otm1 = otm1;
}
void
RyanWah::setampsns (int Pp)
{
Pampsns = Pp;
if(Pampsns>0) {
ampsns = expf(0.083f*(float)Pampsns);
} else {
ampsns = - expf(-0.083f*(float)Pampsns);
}
fbias = ((float)Pampsnsinv )/ 127.0f;
ampsmooth = f_exp(-1.0f/((((float) Pampsmooth)/127.0f + 0.01f)*fSAMPLE_RATE)); //goes up to 1 second
};
void
Dflange::changepar (int npar, int value)
{
switch (npar) {
case 0:
Pwetdry = value;
dry = (float) (Pwetdry+64) /128.0f;
wet = 1.0f - dry;
if(Psubtract) {
ldelayline0->set_mix(-dry);
rdelayline0->set_mix(-dry);
ldelayline1->set_mix(-dry);
rdelayline1->set_mix(-dry);
} else {
ldelayline0->set_mix(dry);
rdelayline0->set_mix(dry);
ldelayline1->set_mix(dry);
rdelayline1->set_mix(dry);
}
break;
case 1:
Ppanning = value;
if (value < 0) {
rpan = 1.0f + (float) Ppanning/64.0;
lpan = 1.0f;
} else {
lpan = 1.0f - (float) Ppanning/64.0;
rpan = 1.0f;
};
break;
case 2:
Plrcross = value;
flrcross = (float) Plrcross/127.0;
frlcross = 1.0f - flrcross; //keep this out of the DSP loop
break;
case 3:
Pdepth = value;
fdepth = (float) Pdepth;
zcenter = (int) fSAMPLE_RATE/floor(0.5f * (fdepth + fwidth));
logmax = logf( (fdepth + fwidth)/fdepth )/LOG_2;
break;
case 4:
Pwidth = value;
fwidth = (float) Pwidth;
zcenter = (int) fSAMPLE_RATE/floor(0.5f * (fdepth + fwidth));
logmax = logf( (fdepth + fwidth)/fdepth )/LOG_2;
break;
case 5:
Poffset = value;
foffset = 0.5f + (float) Poffset/255.0;
break;
case 6:
Pfb = value;
ffb = (float) Pfb/64.5f;
break;
case 7:
Phidamp = value;
fhidamp = f_exp(-D_PI * (float) Phidamp/fSAMPLE_RATE);
break;
case 8:
Psubtract = value;
fsubtract = 0.5f;
if(Psubtract) {
fsubtract = -0.5f; //In loop a mult by 0.5f is necessary, so this kills 2 birds with 1...
ldelayline0->set_mix(-dry);
rdelayline0->set_mix(-dry);
ldelayline1->set_mix(-dry);
rdelayline1->set_mix(-dry);
}
break;
case 9:
Pzero = value;
if (Pzero) fzero = 1.0f;
break;
case 10:
lfo.Pfreq = value;
lfo.updateparams ();
break;
case 11:
lfo.Pstereo = value;
lfo.updateparams ();
break;
case 12:
lfo.PLFOtype = value;
lfo.updateparams ();
break;
case 13:
lfo.Prandomness = value;
lfo.updateparams ();
break;
case 14:
Pintense = value;
break;
};
};
bool TestExtMath::test_exp() {
VC(f_exp(12), 162754.791419);
VC(f_exp(5.7), 298.86740096706);
return Count(true);
}
static void runAddingDysonCompress(LADSPA_Handle instance, unsigned long sample_count) {
DysonCompress *plugin_data = (DysonCompress *)instance;
LADSPA_Data run_adding_gain = plugin_data->run_adding_gain;
/* Peak limit (dB) (float value) */
const LADSPA_Data peak_limit = *(plugin_data->peak_limit);
/* Release time (s) (float value) */
const LADSPA_Data release_time = *(plugin_data->release_time);
/* Fast compression ratio (float value) */
const LADSPA_Data cfrate = *(plugin_data->cfrate);
/* Compression ratio (float value) */
const LADSPA_Data crate = *(plugin_data->crate);
/* Input (array of floats of length sample_count) */
const LADSPA_Data * const input = plugin_data->input;
/* Output (array of floats of length sample_count) */
LADSPA_Data * const output = plugin_data->output;
LADSPA_Data * delay = plugin_data->delay;
float extra_maxlevel = plugin_data->extra_maxlevel;
float lastrgain = plugin_data->lastrgain;
float maxgain = plugin_data->maxgain;
float mingain = plugin_data->mingain;
float ndelay = plugin_data->ndelay;
unsigned int ndelayptr = plugin_data->ndelayptr;
int peaklimitdelay = plugin_data->peaklimitdelay;
float rgain = plugin_data->rgain;
float rlevelsq0 = plugin_data->rlevelsq0;
float rlevelsq1 = plugin_data->rlevelsq1;
LADSPA_Data * rlevelsqe = plugin_data->rlevelsqe;
LADSPA_Data * rlevelsqn = plugin_data->rlevelsqn;
float rmastergain0 = plugin_data->rmastergain0;
float rpeakgain0 = plugin_data->rpeakgain0;
float rpeakgain1 = plugin_data->rpeakgain1;
float rpeaklimitdelay = plugin_data->rpeaklimitdelay;
float sample_rate = plugin_data->sample_rate;
unsigned long pos;
float targetlevel = MAXLEVEL * DB_CO(peak_limit);
float rgainfilter = 1.0f / (release_time * sample_rate);
float fastgaincompressionratio = cfrate;
float compressionratio = crate;
float efilt;
float levelsqe;
float gain;
float tgain;
float d;
float fastgain;
float qgain;
float tslowgain;
float slowgain;
float npeakgain;
float neww;
float nrgain;
float ngain;
float ngsq;
float tnrgain;
float sqrtrpeakgain;
float totalgain;
unsigned int i;
for (pos = 0; pos < sample_count; pos++) {
// Ergh! this was originally meant to track a stereo signal
float levelsq0 = 2.0f * (input[pos] * input[pos]);
delay[ndelayptr] = input[pos];
ndelayptr++;
if (ndelayptr >= ndelay) {
ndelayptr = 0;
}
if (levelsq0 > rlevelsq0) {
rlevelsq0 = (levelsq0 * RLEVELSQ0FFILTER) +
rlevelsq0 * (1 - RLEVELSQ0FFILTER);
} else {
rlevelsq0 = (levelsq0 * RLEVELSQ0FILTER) +
rlevelsq0 * (1 - RLEVELSQ0FILTER);
}
if (rlevelsq0 <= FLOORLEVEL * FLOORLEVEL) {
goto skipagc;
}
if (rlevelsq0 > rlevelsq1) {
rlevelsq1 = rlevelsq0;
} else {
rlevelsq1 = rlevelsq0 * RLEVELSQ1FILTER +
rlevelsq1 * (1 - RLEVELSQ1FILTER);
}
rlevelsqn[0] = rlevelsq1;
for(i = 0; i < NFILT-1; i++) {
if (rlevelsqn[i] > rlevelsqn[i+1])
rlevelsqn[i+1] = rlevelsqn[i];
else
rlevelsqn[i+1] = rlevelsqn[i] * RLEVELSQ1FILTER +
rlevelsqn[i+1] * (1 - RLEVELSQ1FILTER);
}
efilt = RLEVELSQEFILTER;
levelsqe = rlevelsqe[0] = rlevelsqn[NFILT-1];
for(i = 0; i < NEFILT-1; i++) {
rlevelsqe[i+1] = rlevelsqe[i] * efilt +
rlevelsqe[i+1] * (1.0 - efilt);
if (rlevelsqe[i+1] > levelsqe)
levelsqe = rlevelsqe[i+1];
efilt *= 1.0f / 1.5f;
}
gain = targetlevel / sqrt(levelsqe);
if (compressionratio < 0.99f) {
if (compressionratio == 0.50f)
gain = sqrt(gain);
else
gain = f_exp(log(gain) * compressionratio);
}
if (gain < rgain)
rgain = gain * RLEVELSQEFILTER/2 +
rgain * (1 - RLEVELSQEFILTER/2);
else
rgain = gain * rgainfilter +
rgain * (1 - rgainfilter);
lastrgain = rgain;
if ( gain < lastrgain)
lastrgain = gain;
skipagc:;
tgain = lastrgain;
d = delay[ndelayptr];
fastgain = tgain;
if (fastgain > MAXFASTGAIN)
fastgain = MAXFASTGAIN;
if (fastgain < 0.0001)
fastgain = 0.0001;
qgain = f_exp(log(fastgain) * fastgaincompressionratio);
tslowgain = tgain / qgain;
if (tslowgain > MAXSLOWGAIN)
tslowgain = MAXSLOWGAIN;
if (tslowgain < rmastergain0)
rmastergain0 = tslowgain;
else
rmastergain0 = tslowgain * RMASTERGAIN0FILTER +
(1 - RMASTERGAIN0FILTER) * rmastergain0;
slowgain = rmastergain0;
npeakgain = slowgain * qgain;
neww = d * npeakgain;
if (fabs(neww) >= MAXLEVEL)
nrgain = MAXLEVEL / fabs(neww);
else
nrgain = 1.0;
ngain = nrgain;
ngsq = ngain * ngain;
if (ngsq <= rpeakgain0) {
rpeakgain0 = ngsq /* * 0.50 + rpeakgain0 * 0.50 */;
rpeaklimitdelay = peaklimitdelay;
} else if (rpeaklimitdelay == 0) {
if (nrgain > 1.0)
tnrgain = 1.0;
else
tnrgain = nrgain;
rpeakgain0 = tnrgain * RPEAKGAINFILTER +
(1.0 - RPEAKGAINFILTER) * rpeakgain0;
}
if (rpeakgain0 <= rpeakgain1) {
rpeakgain1 = rpeakgain0;
rpeaklimitdelay = peaklimitdelay;
} else if (rpeaklimitdelay == 0) {
rpeakgain1 = RPEAKGAINFILTER * rpeakgain0 +
(1.0 - RPEAKGAINFILTER) * rpeakgain1;
} else {
--rpeaklimitdelay;
}
sqrtrpeakgain = sqrt(rpeakgain1);
totalgain = npeakgain * sqrtrpeakgain;
buffer_write(output[pos], neww * sqrtrpeakgain);
if (totalgain > maxgain)
maxgain = totalgain;
if (totalgain < mingain)
mingain = totalgain;
if (output[pos] > extra_maxlevel)
extra_maxlevel = output[pos];
}
plugin_data->ndelayptr = ndelayptr;
plugin_data->rlevelsq0 = rlevelsq0;
plugin_data->rlevelsq1 = rlevelsq1;
plugin_data->mingain = mingain;
plugin_data->maxgain = maxgain;
plugin_data->rpeaklimitdelay = rpeaklimitdelay;
plugin_data->rgain = rgain;
plugin_data->rmastergain0 = rmastergain0;
plugin_data->rpeakgain0 = rpeakgain0;
plugin_data->rpeakgain1 = rpeakgain1;
plugin_data->lastrgain = lastrgain;
plugin_data->extra_maxlevel = extra_maxlevel;
}
static void runAddingValveRect(LADSPA_Handle instance, unsigned long sample_count) {
ValveRect *plugin_data = (ValveRect *)instance;
LADSPA_Data run_adding_gain = plugin_data->run_adding_gain;
/* Sag level (float value) */
const LADSPA_Data sag = *(plugin_data->sag);
/* Distortion (float value) */
const LADSPA_Data dist_p = *(plugin_data->dist_p);
/* Input (array of floats of length sample_count) */
const LADSPA_Data * const input = plugin_data->input;
/* Output (array of floats of length sample_count) */
LADSPA_Data * const output = plugin_data->output;
unsigned int apos = plugin_data->apos;
float * avg = plugin_data->avg;
int avg_size = plugin_data->avg_size;
float avg_sizer = plugin_data->avg_sizer;
float avgs = plugin_data->avgs;
float lp1tm1 = plugin_data->lp1tm1;
float lp2tm1 = plugin_data->lp2tm1;
#line 48 "valve_rect_1405.xml"
unsigned long pos;
float q, x, fx;
const float dist = dist_p * 40.0f + 0.1f;
for (pos = 0; pos < sample_count; pos++) {
x = fabs(input[pos]);
if (x > lp1tm1) {
lp1tm1 = x;
} else {
lp1tm1 = 0.9999f * lp1tm1 + 0.0001f * x;
}
avgs -= avg[apos];
avgs += lp1tm1;
avg[apos++] = lp1tm1;
apos %= avg_size;
lp2tm1 = 0.999f * lp2tm1 + avgs*avg_sizer * 0.001f;
q = lp1tm1 * sag - lp2tm1 * 1.02f - 1.0f;
if (q > -0.01f) {
q = -0.01f;
} else if (q < -1.0f) {
q = -1.0f;
}
if (input[pos] == q) {
fx = 1.0f / dist + q / (1.0f - f_exp(dist * q));
} else {
fx = (input[pos] - q) /
(1.0f - f_exp(-dist * (input[pos] - q))) +
q / (1.0f - f_exp(dist * q));
}
buffer_write(output[pos], fx);
}
plugin_data->lp1tm1 = lp1tm1;
plugin_data->lp2tm1 = lp2tm1;
plugin_data->avgs = avgs;
plugin_data->apos = apos;
}
ConstitutiveModelParameters<EvalT, Traits>::
ConstitutiveModelParameters(Teuchos::ParameterList& p,
const Teuchos::RCP<Albany::Layouts>& dl) :
have_temperature_(false),
dl_(dl)
{
// get number of integration points and spatial dimensions
std::vector<PHX::DataLayout::size_type> dims;
dl_->qp_vector->dimensions(dims);
num_pts_ = dims[1];
num_dims_ = dims[2];
// get the Parameter Library
Teuchos::RCP<ParamLib> paramLib =
p.get<Teuchos::RCP<ParamLib> >("Parameter Library", Teuchos::null);
// get the material parameter list
Teuchos::ParameterList* mat_params =
p.get<Teuchos::ParameterList*>("Material Parameters");
// Check for optional field: temperature
if (p.isType<std::string>("Temperature Name")) {
have_temperature_ = true;
PHX::MDField<ScalarT, Cell, QuadPoint>
tmp(p.get<std::string>("Temperature Name"), dl_->qp_scalar);
temperature_ = tmp;
this->addDependentField(temperature_);
}
// step through the possible parameters, registering as necessary
//
// elastic modulus
std::string e_mod("Elastic Modulus");
if (mat_params->isSublist(e_mod)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(e_mod, dl_->qp_scalar);
elastic_mod_ = tmp;
field_map_.insert(std::make_pair(e_mod, elastic_mod_));
parseParameters(e_mod, p, paramLib);
}
// Poisson's ratio
std::string pr("Poissons Ratio");
if (mat_params->isSublist(pr)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(pr, dl_->qp_scalar);
poissons_ratio_ = tmp;
field_map_.insert(std::make_pair(pr, poissons_ratio_));
parseParameters(pr, p, paramLib);
}
// bulk modulus
std::string b_mod("Bulk Modulus");
if (mat_params->isSublist(b_mod)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(b_mod, dl_->qp_scalar);
bulk_mod_ = tmp;
field_map_.insert(std::make_pair(b_mod, bulk_mod_));
parseParameters(b_mod, p, paramLib);
}
// shear modulus
std::string s_mod("Shear Modulus");
if (mat_params->isSublist(s_mod)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(s_mod, dl_->qp_scalar);
shear_mod_ = tmp;
field_map_.insert(std::make_pair(s_mod, shear_mod_));
parseParameters(s_mod, p, paramLib);
}
// yield strength
std::string yield("Yield Strength");
if (mat_params->isSublist(yield)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(yield, dl_->qp_scalar);
yield_strength_ = tmp;
field_map_.insert(std::make_pair(yield, yield_strength_));
parseParameters(yield, p, paramLib);
}
// hardening modulus
std::string h_mod("Hardening Modulus");
if (mat_params->isSublist(h_mod)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(h_mod, dl_->qp_scalar);
hardening_mod_ = tmp;
field_map_.insert(std::make_pair(h_mod, hardening_mod_));
parseParameters(h_mod, p, paramLib);
}
// recovery modulus
std::string r_mod("Recovery Modulus");
if (mat_params->isSublist(r_mod)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(r_mod, dl_->qp_scalar);
recovery_mod_ = tmp;
field_map_.insert(std::make_pair(r_mod, recovery_mod_));
parseParameters(r_mod, p, paramLib);
}
// concentration equilibrium parameter
std::string c_eq("Concentration Equilibrium Parameter");
if (mat_params->isSublist(c_eq)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(c_eq, dl_->qp_scalar);
conc_eq_param_ = tmp;
field_map_.insert(std::make_pair(c_eq, conc_eq_param_));
parseParameters(c_eq, p, paramLib);
}
// diffusion coefficient
std::string d_coeff("Diffusion Coefficient");
if (mat_params->isSublist(d_coeff)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(d_coeff, dl_->qp_scalar);
diff_coeff_ = tmp;
field_map_.insert(std::make_pair(d_coeff, diff_coeff_));
parseParameters(d_coeff, p, paramLib);
}
// thermal conductivity
std::string th_cond("Thermal Conductivity");
if (mat_params->isSublist(th_cond)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(th_cond, dl_->qp_scalar);
thermal_cond_ = tmp;
field_map_.insert(std::make_pair(th_cond, thermal_cond_));
parseParameters(th_cond, p, paramLib);
}
// flow rule coefficient
std::string f_coeff("Flow Rule Coefficient");
if (mat_params->isSublist(f_coeff)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(f_coeff, dl_->qp_scalar);
flow_coeff_ = tmp;
field_map_.insert(std::make_pair(f_coeff, flow_coeff_));
parseParameters(f_coeff, p, paramLib);
}
// flow rule exponent
std::string f_exp("Flow Rule Exponent");
if (mat_params->isSublist(f_exp)) {
PHX::MDField<ScalarT, Cell, QuadPoint> tmp(f_exp, dl_->qp_scalar);
flow_exp_ = tmp;
field_map_.insert(std::make_pair(f_exp, flow_exp_));
parseParameters(f_exp, p, paramLib);
}
// register evaluated fields
typename
std::map<std::string, PHX::MDField<ScalarT, Cell, QuadPoint> >::iterator it;
for (it = field_map_.begin();
it != field_map_.end();
++it) {
this->addEvaluatedField(it->second);
}
this->setName(
"Constitutive Model Parameters" + PHX::TypeString<EvalT>::value);
}
bool nf2ff_calc::AddPlane(float **lines, unsigned int* numLines, complex<float>**** E_field, complex<float>**** H_field, int MeshType)
{
//find normal direction
int ny = -1;
int nP,nPP;
for (int n=0;n<3;++n)
{
nP = (n+1)%3;
nPP = (n+2)%3;
if ((numLines[n]==1) && (numLines[nP]>2) && (numLines[nPP]>2))
ny=n;
}
nP = (ny+1)%3;
nPP = (ny+2)%3;
if (ny<0)
{
cerr << "nf2ff_calc::AddPlane: Error can't determine normal direction..." << endl;
return false;
}
complex<float>**** Js = Create_N_3DArray<complex<float> >(numLines);
complex<float>**** Ms = Create_N_3DArray<complex<float> >(numLines);
float normDir[3]= {0,0,0};
if (lines[ny][0]>=m_centerCoord[ny])
normDir[ny]=1;
else
normDir[ny]=-1;
unsigned int pos[3];
float edge_length_P[numLines[nP]];
for (unsigned int n=1;n<numLines[nP]-1;++n)
edge_length_P[n]=0.5*(lines[nP][n+1]-lines[nP][n-1]);
edge_length_P[0]=0.5*(lines[nP][1]-lines[nP][0]);
edge_length_P[numLines[nP]-1]=0.5*(lines[nP][numLines[nP]-1]-lines[nP][numLines[nP]-2]);
float edge_length_PP[numLines[nPP]];
for (unsigned int n=1;n<numLines[nPP]-1;++n)
edge_length_PP[n]=0.5*(lines[nPP][n+1]-lines[nPP][n-1]);
edge_length_PP[0]=0.5*(lines[nPP][1]-lines[nPP][0]);
edge_length_PP[numLines[nPP]-1]=0.5*(lines[nPP][numLines[nPP]-1]-lines[nPP][numLines[nPP]-2]);
//check for cylindrical mesh
if (MeshType==1)
{
if (ny==0) //surface a-z
{
for (unsigned int n=0;n<numLines[nP];++n)
edge_length_P[n]*=lines[0][0]; //angle-width * radius
}
else if (ny==2) //surface r-a
{
//calculate: area = delta_angle * delta_radius * center_radius
for (unsigned int n=1;n<numLines[nP]-1;++n)
edge_length_P[n]*=lines[nP][n]; //radius-width * center-radius
edge_length_P[0]*=(lines[nP][0]+0.5*edge_length_P[0]);
edge_length_P[numLines[nP]-1]*=(lines[nP][numLines[nP]-1]-0.5*edge_length_P[numLines[nP]-1]);
}
}
complex<float> power = 0;
float area;
for (pos[0]=0; pos[0]<numLines[0]; ++pos[0])
for (pos[1]=0; pos[1]<numLines[1]; ++pos[1])
for (pos[2]=0; pos[2]<numLines[2]; ++pos[2])
{
area = edge_length_P[pos[nP]]*edge_length_PP[pos[nPP]];
power = (E_field[nP][pos[0]][pos[1]][pos[2]]*conj(H_field[nPP][pos[0]][pos[1]][pos[2]]) \
- E_field[nPP][pos[0]][pos[1]][pos[2]]*conj(H_field[nP][pos[0]][pos[1]][pos[2]]));
m_radPower += 0.5*area*real(power)*normDir[ny];
}
unsigned int numAngles[2] = {m_numTheta, m_numPhi};
// setup multi-threading jobs
vector<unsigned int> jpt = AssignJobs2Threads(numLines[nP], m_numThreads, true);
m_numThreads = jpt.size();
nf2ff_data thread_data[m_numThreads];
m_Barrier = new boost::barrier(m_numThreads+1); // numThread workers + 1 controller
unsigned int start=0;
unsigned int stop=jpt.at(0)-1;
for (unsigned int n=0; n<m_numThreads; n++)
{
thread_data[n].ny=ny;
thread_data[n].mesh_type = MeshType;
thread_data[n].normDir=normDir;
thread_data[n].numLines=numLines;
thread_data[n].lines=lines;
thread_data[n].edge_length_P=edge_length_P;
thread_data[n].edge_length_PP=edge_length_PP;
thread_data[n].E_field=E_field;
thread_data[n].H_field=H_field;
thread_data[n].Js=Js;
thread_data[n].Ms=Ms;
thread_data[n].m_Nt=Create2DArray<complex<float> >(numAngles);
thread_data[n].m_Np=Create2DArray<complex<float> >(numAngles);
thread_data[n].m_Lt=Create2DArray<complex<float> >(numAngles);
thread_data[n].m_Lp=Create2DArray<complex<float> >(numAngles);
boost::thread *t = new boost::thread( nf2ff_calc_thread(this,start,stop,n,thread_data[n]) );
m_thread_group.add_thread( t );
start = stop+1;
if (n<m_numThreads-1)
stop = start + jpt.at(n+1)-1;
}
//all threads a running and waiting for the barrier
m_Barrier->wait(); //start
// threads: calc Js and Ms (eq. 8.15a/b)
// threads calc their local Nt,Np,Lt and Lp
m_Barrier->wait(); //combine all thread local Nt,Np,Lt and Lp
//cleanup E- & H-Fields
Delete_N_3DArray(E_field,numLines);
Delete_N_3DArray(H_field,numLines);
complex<float>** Nt = Create2DArray<complex<float> >(numAngles);
complex<float>** Np = Create2DArray<complex<float> >(numAngles);
complex<float>** Lt = Create2DArray<complex<float> >(numAngles);
complex<float>** Lp = Create2DArray<complex<float> >(numAngles);
for (unsigned int n=0; n<m_numThreads; n++)
{
for (unsigned int tn=0;tn<m_numTheta;++tn)
for (unsigned int pn=0;pn<m_numPhi;++pn)
{
Nt[tn][pn] += thread_data[n].m_Nt[tn][pn];
Np[tn][pn] += thread_data[n].m_Np[tn][pn];
Lt[tn][pn] += thread_data[n].m_Lt[tn][pn];
Lp[tn][pn] += thread_data[n].m_Lp[tn][pn];
}
Delete2DArray(thread_data[n].m_Nt,numAngles);
Delete2DArray(thread_data[n].m_Np,numAngles);
Delete2DArray(thread_data[n].m_Lt,numAngles);
Delete2DArray(thread_data[n].m_Lp,numAngles);
}
m_Barrier->wait(); //wait for termination
m_thread_group.join_all(); // wait for termination
delete m_Barrier;
m_Barrier = NULL;
//cleanup Js & Ms
Delete_N_3DArray(Js,numLines);
Delete_N_3DArray(Ms,numLines);
// calc equations 8.23a/b and 8.24a/b
float k = 2*M_PI*m_freq/__C0__;
complex<float> factor(0,k/4.0/M_PI/m_radius);
complex<float> f_exp(0,-1*k*m_radius);
factor *= exp(f_exp);
complex<float> Z0 = __Z0__;
float P_max = 0;
for (unsigned int tn=0;tn<m_numTheta;++tn)
for (unsigned int pn=0;pn<m_numPhi;++pn)
{
m_E_theta[tn][pn] -= factor*(Lp[tn][pn] + Z0*Nt[tn][pn]);
m_E_phi[tn][pn] += factor*(Lt[tn][pn] - Z0*Np[tn][pn]);
m_H_theta[tn][pn] += factor*(Np[tn][pn] - Lt[tn][pn]/Z0);
m_H_phi[tn][pn] -= factor*(Nt[tn][pn] + Lp[tn][pn]/Z0);
m_P_rad[tn][pn] = m_radius*m_radius/(2*__Z0__) * abs((m_E_theta[tn][pn]*conj(m_E_theta[tn][pn])+m_E_phi[tn][pn]*conj(m_E_phi[tn][pn])));
if (m_P_rad[tn][pn]>P_max)
P_max = m_P_rad[tn][pn];
}
//cleanup Nx and Lx
Delete2DArray(Nt,numAngles);
Delete2DArray(Np,numAngles);
Delete2DArray(Lt,numAngles);
Delete2DArray(Lp,numAngles);
m_maxDir = 4*M_PI*P_max / m_radPower;
return true;
}
void
Opticaltrem::out (float *smpsl, float *smpsr, uint32_t period)
{
unsigned int i;
float lfol, lfor, xl, xr, fxl, fxr;
float rdiff, ldiff;
lfo->effectlfoout (&lfol, &lfor);
if(Pinvert) {
lfol = lfol*fdepth;
lfor = lfor*fdepth;
} else {
lfor = 1.0f - lfor*fdepth;
lfol = 1.0f - lfol*fdepth;
}
if (lfol > 1.0f)
lfol = 1.0f;
else if (lfol < 0.0f)
lfol = 0.0f;
if (lfor > 1.0f)
lfor = 1.0f;
else if (lfor < 0.0f)
lfor = 0.0f;
lfor = powf(lfor, 1.9f);
lfol = powf(lfol, 1.9f); //emulate lamp turn on/off characteristic
//lfo interpolation
rdiff = (lfor - oldgr)/(float)period;
ldiff = (lfol - oldgl)/(float)period;
gr = lfor;
gl = lfol;
oldgr = lfor;
oldgl = lfol;
for (i = 0; i < period; i++) {
//Left Cds
stepl = gl*(1.0f - alphal) + alphal*oldstepl;
oldstepl = stepl;
dRCl = dTC*f_exp(stepl*minTC);
alphal = 1.0f - cSAMPLE_RATE/(dRCl + cSAMPLE_RATE);
xl = CNST_E + stepl*b;
fxl = f_exp(Ra/logf(xl));
if(Pinvert) {
fxl = fxl*Rp/(fxl + Rp); //Parallel resistance
fxl = fxl/(fxl + R1);
}
else fxl = R1/(fxl + R1);
//Right Cds
stepr = gr*(1.0f - alphar) + alphar*oldstepr;
oldstepr = stepr;
dRCr = dTC*f_exp(stepr*minTC);
alphar = 1.0f - cSAMPLE_RATE/(dRCr + cSAMPLE_RATE);
xr = CNST_E + stepr*b;
fxr = f_exp(Ra/logf(xr));
if(Pinvert) {
fxr = fxr*Rp/(fxr + Rp); //Parallel resistance
fxr = fxr/(fxr + R1);
}
else fxr = R1/(fxr + R1);
//Modulate input signal
efxoutl[i] = lpanning*fxl*smpsl[i];
efxoutr[i] = rpanning*fxr*smpsr[i];
gl += ldiff;
gr += rdiff; //linear interpolation of LFO
};
};
void
Vibe::out (float *smpsl, float *smpsr)
{
int i,j;
float lfol, lfor, xl, xr;
float fxl=0.0f;
float fxr=0.0f;
//float vbe,vin;
float cvolt, ocvolt, evolt, input;
float emitterfb = 0.0f;
float outl, outr;
input = cvolt = ocvolt = evolt = 0.0f;
lfo.effectlfoout (&lfol, &lfor);
lfol = fdepth + lfol*fwidth;
if (lfol > 1.0f)
lfol = 1.0f;
else if (lfol < 0.0f)
lfol = 0.0f;
lfol = 2.0f - 2.0f/(lfol + 1.0f); //emulate lamp turn on/off characteristic by typical curves
if(Pstereo) {
lfor = fdepth + lfor*fwidth;
if (lfor > 1.0f) lfor = 1.0f;
else if (lfor < 0.0f) lfor = 0.0f;
lfor = 2.0f - 2.0f/(lfor + 1.0f); //
}
for (i = 0; i < param->PERIOD; i++) {
//Left Lamp
gl = lfol*lampTC + oldgl*ilampTC;
oldgl = gl;
//Left Cds
stepl = gl*alphal + dalphal*oldstepl;
oldstepl = stepl;
dRCl = dTC*f_exp(stepl*minTC);
alphal = cSAMPLE_RATE/(dRCl + cSAMPLE_RATE);
dalphal = 1.0f - cSAMPLE_RATE/(0.5f*dRCl + cSAMPLE_RATE); //different attack & release character
xl = CNST_E + stepl*b;
fxl = f_exp(Ra/logf(xl));
//Right Lamp
if(Pstereo) {
gr = lfor*lampTC + oldgr*ilampTC;
oldgr = gr;
//Right Cds
stepr = gr*alphar + dalphar*oldstepr;
oldstepr = stepr;
dRCr = dTC*f_exp(stepr*minTC);
alphar = cSAMPLE_RATE/(dRCr + cSAMPLE_RATE);
dalphar = 1.0f - cSAMPLE_RATE/(0.5f*dRCr + cSAMPLE_RATE); //different attack & release character
xr = CNST_E + stepr*b;
fxr = f_exp(Ra/logf(xr));
}
if(i%16 == 0) modulate(fxl, fxr);
//Left Channel
input = bjt_shape(fbl + smpsl[i]);
/*
//Inline BJT Shaper bleow
vin = 7.5f*(1.0f + fbl+smpsl[i]);
if(vin<0.0f) vin = 0.0f;
if(vin>15.0f) vin = 15.0f;
vbe = 0.8f - 0.8f/(vin + 1.0f); //really rough, simplistic bjt turn-on emulator
input = vin - vbe;
input = input*0.1333333333f -0.90588f; //some magic numbers to return gain to unity & zero the DC
*/
emitterfb = 25.0f/fxl;
for(j=0; j<4; j++) { //4 stages phasing
/*
//Inline filter implementation below
float y0 = 0.0f;
y0 = input*ecvc[j].n0 + ecvc[j].x1*ecvc[j].n1 - ecvc[j].y1*ecvc[j].d1;
ecvc[j].y1 = y0 + DENORMAL_GUARD;
ecvc[j].x1 = input;
float x0 = 0.0f;
float data = input + emitterfb*oldcvolt[j];
x0 = data*vc[j].n0 + vc[j].x1*vc[j].n1 - vc[j].y1*vc[j].d1;
vc[j].y1 = x0 + DENORMAL_GUARD;
vc[j].x1 = data;
cvolt=y0+x0;
ocvolt= cvolt*vcvo[j].n0 + vcvo[j].x1*vcvo[j].n1 - vcvo[j].y1*vcvo[j].d1;
vcvo[j].y1 = ocvolt + DENORMAL_GUARD;
vcvo[j].x1 = cvolt;
oldcvolt[j] = ocvolt;
evolt = input*vevo[j].n0 + vevo[j].x1*vevo[j].n1 - vevo[j].y1*vevo[j].d1;
vevo[j].y1 = evolt + DENORMAL_GUARD;
vevo[j].x1 = input;
vin = 7.5f*(1.0f + ocvolt+evolt);
if(vin<0.0f) vin = 0.0f;
if(vin>15.0f) vin = 15.0f;
vbe = 0.8f - 0.8f/(vin + 1.0f); //really rough, simplistic bjt turn-on emulator
input = vin - vbe;
input = input*0.1333333333f -0.90588f; //some magic numbers to return gain to unity & zero the DC
*/
// Orig code, Comment below if instead using inline
cvolt = vibefilter(input,ecvc,j) + vibefilter(input + emitterfb*oldcvolt[j],vc,j);
ocvolt = vibefilter(cvolt,vcvo,j);
oldcvolt[j] = ocvolt;
evolt = vibefilter(input, vevo,j);
input = bjt_shape(ocvolt + evolt);
//Close comment here if using inline
}
fbl = fb*ocvolt;
outl = lpanning*input;
//Right channel
if(Pstereo) {
/*
//Inline BJT shaper
vin = 7.5f*(1.0f + fbr+smpsr[i]);
if(vin<0.0f) vin = 0.0f;
if(vin>15.0f) vin = 15.0f;
vbe = 0.8f - 0.8f/(vin + 1.0f); //really rough, simplistic bjt turn-on emulator
input = vin - vbe;
input = input*0.1333333333f -0.90588f; //some magic numbers to return gain to unity & zero the DC
*/
//Orig code
input = bjt_shape(fbr + smpsr[i]);
//Close Comment here if using Inline instead
emitterfb = 25.0f/fxr;
for(j=4; j<8; j++) { //4 stages phasing
/*
//This is the inline version
float y0 = 0.0f;
y0 = input*ecvc[j].n0 + ecvc[j].x1*ecvc[j].n1 - ecvc[j].y1*ecvc[j].d1;
ecvc[j].y1 = y0 + DENORMAL_GUARD;
ecvc[j].x1 = input;
float x0 = 0.0f;
float data = input + emitterfb*oldcvolt[j];
x0 = data*vc[j].n0 + vc[j].x1*vc[j].n1 - vc[j].y1*vc[j].d1;
vc[j].y1 = x0 + DENORMAL_GUARD;
vc[j].x1 = data;
cvolt=y0+x0;
ocvolt= cvolt*vcvo[j].n0 + vcvo[j].x1*vcvo[j].n1 - vcvo[j].y1*vcvo[j].d1;
vcvo[j].y1 = ocvolt + DENORMAL_GUARD;
vcvo[j].x1 = cvolt;
oldcvolt[j] = ocvolt;
evolt = input*vevo[j].n0 + vevo[j].x1*vevo[j].n1 - vevo[j].y1*vevo[j].d1;
vevo[j].y1 = evolt + DENORMAL_GUARD;
vevo[j].x1 = input;
vin = 7.5f*(1.0f + ocvolt+evolt);
if(vin<0.0f) vin = 0.0f;
if(vin>15.0f) vin = 15.0f;
vbe = 0.8f - 0.8f/(vin + 1.0f); //really rough, simplistic bjt turn-on emulator
input = vin - vbe;
input = input*0.1333333333f -0.90588f; //some magic numbers to return gain to unity & zero the DC
*/
// Comment block below if using inline code instead
cvolt = vibefilter(input,ecvc,j) + vibefilter(input + emitterfb*oldcvolt[j],vc,j);
ocvolt = vibefilter(cvolt,vcvo,j);
oldcvolt[j] = ocvolt;
evolt = vibefilter(input, vevo,j);
input = bjt_shape(ocvolt + evolt);
// Close comment here if inlining
}
fbr = fb*ocvolt;
outr = rpanning*input;
efxoutl[i] = outl*fcross + outr*flrcross;
efxoutr[i] = outr*fcross + outl*flrcross;
} else { //if(Pstereo)
efxoutl[i] = outl;
efxoutr[i] = outl;
}
};
};
// Set release time in samples
inline static void env_set_release(envelope *e, float r)
{
e->gr = f_exp(-1.0f/r);
}
// Set attack time in samples
inline static void env_set_attack(envelope *e, float a)
{
e->ga = f_exp(-1.0f/a);
}