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89c8a0e2b5
wdsp/gen.c
Uladzimir Karpenka 89c8a0e2b5 first commit
2026-06-01 15:58:45 +03:00

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/* gen.c
This file is part of a program that implements a Software-Defined Radio.
Copyright (C) 2013, 2025 Warren Pratt, NR0V
This program is free software; you can redistribute it and/or
modify it under the terms of the GNU General Public License
as published by the Free Software Foundation; either version 2
of the License, or (at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program; if not, write to the Free Software
Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
The author can be reached by email at
warren@wpratt.com
*/
#include "comm.h"
void calc_tone (GEN a)
{
a->tone.phs = 0.0;
a->tone.delta = TWOPI * a->tone.freq / a->rate;
a->tone.cosdelta = cos (a->tone.delta);
a->tone.sindelta = sin (a->tone.delta);
}
void calc_tt (GEN a)
{
a->tt.phs1 = 0.0;
a->tt.phs2 = 0.0;
a->tt.delta1 = TWOPI * a->tt.f1 / a->rate;
a->tt.delta2 = TWOPI * a->tt.f2 / a->rate;
a->tt.cosdelta1 = cos (a->tt.delta1);
a->tt.cosdelta2 = cos (a->tt.delta2);
a->tt.sindelta1 = sin (a->tt.delta1);
a->tt.sindelta2 = sin (a->tt.delta2);
}
void calc_sweep (GEN a)
{
a->sweep.phs = 0.0;
a->sweep.dphs = TWOPI * a->sweep.f1 / a->rate;
a->sweep.d2phs = TWOPI * a->sweep.sweeprate / (a->rate * a->rate);
a->sweep.dphsmax = TWOPI * a->sweep.f2 / a->rate;
}
void calc_sawtooth (GEN a)
{
a->saw.period = 1.0 / a->saw.f;
a->saw.delta = 1.0 / a->rate;
a->saw.t = 0.0;
}
void calc_triangle (GEN a)
{
a->tri.period = 1.0 / a->tri.f;
a->tri.half = 0.5 * a->tri.period;
a->tri.delta = 1.0 / a->rate;
a->tri.t = 0.0;
a->tri.t1 = 0.0;
}
void calc_pulse (GEN a)
{
int i;
double delta, theta;
a->pulse.pperiod = 1.0 / a->pulse.pf;
a->pulse.tphs = 0.0;
a->pulse.tdelta = TWOPI * a->pulse.tf / a->rate;
a->pulse.tcosdelta = cos (a->pulse.tdelta);
a->pulse.tsindelta = sin (a->pulse.tdelta);
a->pulse.pntrans = (int)(a->pulse.ptranstime * a->rate);
a->pulse.pnon = (int)(a->pulse.pdutycycle * a->pulse.pperiod * a->rate);
a->pulse.pnoff = (int)(a->pulse.pperiod * a->rate) - a->pulse.pnon - 2 * a->pulse.pntrans;
if (a->pulse.pnoff < 0) a->pulse.pnoff = 0;
a->pulse.pcount = a->pulse.pnoff;
a->pulse.state = 0;
a->pulse.ctrans = (double *) malloc0 ((a->pulse.pntrans + 1) * sizeof (double));
delta = PI / (double)a->pulse.pntrans;
theta = 0.0;
for (i = 0; i <= a->pulse.pntrans; i++)
{
a->pulse.ctrans[i] = 0.5 * (1.0 - cos (theta));
theta += delta;
}
}
void calc_ttpulse(GEN a)
{
int i;
double delta, theta;
a->ttpulse.pperiod = 1.0 / a->ttpulse.pf;
a->ttpulse.tphs1 = 0.0;
a->ttpulse.tphs2 = 0.0;
a->ttpulse.tdelta1 = TWOPI * a->ttpulse.tf1 / a->rate;
a->ttpulse.tdelta2 = TWOPI * a->ttpulse.tf2 / a->rate;
a->ttpulse.tcosdelta1 = cos(a->ttpulse.tdelta1);
a->ttpulse.tcosdelta2 = cos(a->ttpulse.tdelta2);
a->ttpulse.tsindelta1 = sin(a->ttpulse.tdelta1);
a->ttpulse.tsindelta2 = sin(a->ttpulse.tdelta2);
a->ttpulse.pntrans = (int)(a->ttpulse.ptranstime * a->rate);
a->ttpulse.pnon = (int)(a->ttpulse.pdutycycle * a->ttpulse.pperiod * a->rate);
a->ttpulse.pnoff = (int)(a->ttpulse.pperiod * a->rate) - a->ttpulse.pnon - 2 * a->ttpulse.pntrans;
if (a->ttpulse.pnoff < 0) a->ttpulse.pnoff = 0;
a->ttpulse.pcount = a->ttpulse.pnoff;
a->ttpulse.state = 0;
a->ttpulse.ctrans = (double*)malloc0((a->ttpulse.pntrans + 1) * sizeof(double));
delta = PI / (double)a->ttpulse.pntrans;
theta = 0.0;
for (i = 0; i <= a->ttpulse.pntrans; i++)
{
a->ttpulse.ctrans[i] = 0.5 * (1.0 - cos(theta));
theta += delta;
}
}
void calc_gen (GEN a)
{
calc_tone (a);
calc_tt (a);
calc_sweep (a);
calc_sawtooth (a);
calc_triangle (a);
calc_pulse (a);
calc_ttpulse (a);
}
void decalc_gen (GEN a)
{
_aligned_free (a->ttpulse.ctrans);
_aligned_free (a->pulse.ctrans);
}
GEN create_gen (int run, int size, double* in, double* out, int rate, int mode)
{
GEN a = (GEN) malloc0 (sizeof (gen));
a->run = run;
a->size = size;
a->in = in;
a->out = out;
a->rate = (double)rate;
a->mode = mode;
// tone
a->tone.mag = 1.0;
a->tone.freq = 1000.0;
// two-tone
a->tt.mag1 = 0.5;
a->tt.mag2 = 0.5;
a->tt.f1 = + 900.0;
a->tt.f2 = + 1700.0;
// noise
srand ((unsigned int)time (0));
a->noise.mag = 1.0;
// sweep
a->sweep.mag = 1.0;
a->sweep.f1 = -20000.0;
a->sweep.f2 = +20000.0;
a->sweep.sweeprate = +4000.0;
// sawtooth
a->saw.mag = 1.0;
a->saw.f = 500.0;
// triangle
a->tri.mag = 1.0;
a->tri.f = 500.0;
// pulse
a->pulse.mag = 1.0;
a->pulse.pf = 2.0;
a->pulse.pdutycycle = 0.25;
a->pulse.ptranstime = 0.005;
a->pulse.tf = 600.0;
a->pulse.IQout = 0;
// two-tone pulse
a->ttpulse.mag1 = 0.5;
a->ttpulse.mag2 = 0.5;
a->ttpulse.pf = 2.0;
a->ttpulse.pdutycycle = 0.25;
a->ttpulse.ptranstime = 0.005;
a->ttpulse.tf1 = 900.0;
a->ttpulse.tf2 = 1700.0;
a->ttpulse.IQout = 0;
calc_gen (a);
return a;
}
void destroy_gen (GEN a)
{
decalc_gen (a);
_aligned_free (a);
}
void flush_gen (GEN a)
{
a->pulse.state = 0;
a->ttpulse.state = 0;
}
enum pstate
{
OFF,
UP,
ON,
DOWN
};
void xgen (GEN a)
{
if (a->run)
{
switch (a->mode)
{
case 0: // tone
{
int i;
double t1, t2;
double cosphase = cos (a->tone.phs);
double sinphase = sin (a->tone.phs);
for (i = 0; i < a->size; i++)
{
a->out[2 * i + 0] = + a->tone.mag * cosphase;
a->out[2 * i + 1] = - a->tone.mag * sinphase;
t1 = cosphase;
t2 = sinphase;
cosphase = t1 * a->tone.cosdelta - t2 * a->tone.sindelta;
sinphase = t1 * a->tone.sindelta + t2 * a->tone.cosdelta;
a->tone.phs += a->tone.delta;
if (a->tone.phs >= TWOPI) a->tone.phs -= TWOPI;
if (a->tone.phs < 0.0 ) a->tone.phs += TWOPI;
}
break;
}
case 1: // two-tone
{
int i;
double tcos, tsin;
double cosphs1 = cos (a->tt.phs1);
double sinphs1 = sin (a->tt.phs1);
double cosphs2 = cos (a->tt.phs2);
double sinphs2 = sin (a->tt.phs2);
for (i = 0; i < a->size; i++)
{
a->out[2 * i + 0] = + a->tt.mag1 * cosphs1 + a->tt.mag2 * cosphs2;
a->out[2 * i + 1] = - a->tt.mag1 * sinphs1 - a->tt.mag2 * sinphs2;
tcos = cosphs1;
tsin = sinphs1;
cosphs1 = tcos * a->tt.cosdelta1 - tsin * a->tt.sindelta1;
sinphs1 = tcos * a->tt.sindelta1 + tsin * a->tt.cosdelta1;
a->tt.phs1 += a->tt.delta1;
if (a->tt.phs1 >= TWOPI) a->tt.phs1 -= TWOPI;
if (a->tt.phs1 < 0.0 ) a->tt.phs1 += TWOPI;
tcos = cosphs2;
tsin = sinphs2;
cosphs2 = tcos * a->tt.cosdelta2 - tsin * a->tt.sindelta2;
sinphs2 = tcos * a->tt.sindelta2 + tsin * a->tt.cosdelta2;
a->tt.phs2 += a->tt.delta2;
if (a->tt.phs2 >= TWOPI) a->tt.phs2 -= TWOPI;
if (a->tt.phs2 < 0.0 ) a->tt.phs2 += TWOPI;
}
break;
}
case 2: // noise
{
int i;
double r1, r2, c, rad;
for (i = 0; i < a->size; i++)
{
do
{
r1 = 2.0 * (double)rand() / (double)RAND_MAX - 1.0;
r2 = 2.0 * (double)rand() / (double)RAND_MAX - 1.0;
c = r1 * r1 + r2 * r2;
} while (c >= 1.0);
rad = sqrt (-2.0 * log (c) / c);
a->out[2 * i + 0] = a->noise.mag * rad * r1;
a->out[2 * i + 1] = a->noise.mag * rad * r2;
}
break;
}
case 3: // sweep
{
int i;
for (i = 0; i < a->size; i++)
{
a->out[2 * i + 0] = + a->sweep.mag * cos(a->sweep.phs);
a->out[2 * i + 1] = - a->sweep.mag * sin(a->sweep.phs);
a->sweep.phs += a->sweep.dphs;
a->sweep.dphs += a->sweep.d2phs;
if (a->sweep.phs >= TWOPI) a->sweep.phs -= TWOPI;
if (a->sweep.phs < 0.0 ) a->sweep.phs += TWOPI;
if (a->sweep.dphs > a->sweep.dphsmax)
a->sweep.dphs = TWOPI * a->sweep.f1 / a->rate;
}
break;
}
case 4: // sawtooth (audio only)
{
int i;
for (i = 0; i < a->size; i++)
{
if (a->saw.t > a->saw.period) a->saw.t -= a->saw.period;
a->out[2 * i + 0] = a->saw.mag * (a->saw.t * a->saw.f - 1.0);
a->out[2 * i + 1] = 0.0;
a->saw.t += a->saw.delta;
}
}
break;
case 5: // triangle (audio only)
{
int i;
for (i = 0; i < a->size; i++)
{
if (a->tri.t > a->tri.period) a->tri.t1 = a->tri.t -= a->tri.period;
if (a->tri.t > a->tri.half) a->tri.t1 -= a->tri.delta;
else a->tri.t1 += a->tri.delta;
a->out[2 * i + 0] = a->tri.mag * (4.0 * a->tri.t1 * a->tri.f - 1.0);
a->out[2 * i + 1] = 0.0;
a->tri.t += a->tri.delta;
}
}
break;
case 6: // pulse (audio or IQ output)
{
int i;
double t1, t2;
double cosphase = cos (a->pulse.tphs);
double sinphase = sin (a->pulse.tphs);
for (i = 0; i < a->size; i++)
{
if (a->pulse.pnoff != 0)
{
switch (a->pulse.state)
{
case OFF:
a->out[2 * i + 0] = 0.0;
a->out[2 * i + 1] = 0.0;
if (--a->pulse.pcount == 0)
{
a->pulse.state = UP;
a->pulse.pcount = a->pulse.pntrans;
}
break;
case UP:
if (a->pulse.IQout)
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase * a->pulse.ctrans[a->pulse.pntrans - a->pulse.pcount];
a->out[2 * i + 1] = -a->pulse.mag * sinphase * a->pulse.ctrans[a->pulse.pntrans - a->pulse.pcount];
}
else
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase * a->pulse.ctrans[a->pulse.pntrans - a->pulse.pcount];
a->out[2 * i + 1] = 0.0;
}
if (--a->pulse.pcount == 0)
{
a->pulse.state = ON;
a->pulse.pcount = a->pulse.pnon;
}
break;
case ON:
if (a->pulse.IQout)
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase;
a->out[2 * i + 1] = -a->pulse.mag * sinphase;
}
else
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase;
a->out[2 * i + 1] = 0.0;
}
if (--a->pulse.pcount == 0)
{
a->pulse.state = DOWN;
a->pulse.pcount = a->pulse.pntrans;
}
break;
case DOWN:
if (a->pulse.IQout)
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase * a->pulse.ctrans[a->pulse.pcount];
a->out[2 * i + 1] = -a->pulse.mag * sinphase * a->pulse.ctrans[a->pulse.pcount];
}
else
{
a->out[2 * i + 0] = +a->pulse.mag * cosphase * a->pulse.ctrans[a->pulse.pcount];
a->out[2 * i + 1] = 0.0;
}
if (--a->pulse.pcount == 0)
{
a->pulse.state = OFF;
a->pulse.pcount = a->pulse.pnoff;
}
break;
}
}
else
{
a->out[2 * i + 0] = 0.0;
a->out[2 * i + 1] = 0.0;
}
t1 = cosphase;
t2 = sinphase;
cosphase = t1 * a->pulse.tcosdelta - t2 * a->pulse.tsindelta;
sinphase = t1 * a->pulse.tsindelta + t2 * a->pulse.tcosdelta;
a->pulse.tphs += a->pulse.tdelta;
if (a->pulse.tphs >= TWOPI) a->pulse.tphs -= TWOPI;
if (a->pulse.tphs < 0.0 ) a->pulse.tphs += TWOPI;
}
}
break;
case 7: // two-tone pulse (audio or IQ)
{
int i;
double t1a, t1b, t2a, t2b;
double cosphase1 = cos(a->ttpulse.tphs1);
double cosphase2 = cos(a->ttpulse.tphs2);
double sinphase1 = sin(a->ttpulse.tphs1);
double sinphase2 = sin(a->ttpulse.tphs2);
for (i = 0; i < a->size; i++)
{
if (a->ttpulse.pnoff != 0)
{
switch (a->ttpulse.state)
{
case OFF:
a->out[2 * i + 0] = 0.0;
a->out[2 * i + 1] = 0.0;
if (--a->ttpulse.pcount == 0)
{
a->ttpulse.state = UP;
a->ttpulse.pcount = a->ttpulse.pntrans;
}
break;
case UP:
if (a->ttpulse.IQout)
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2) * a->ttpulse.ctrans[a->ttpulse.pntrans - a->ttpulse.pcount];
a->out[2 * i + 1] = -(a->ttpulse.mag1 * sinphase1 + a->ttpulse.mag2 * sinphase2) * a->ttpulse.ctrans[a->ttpulse.pntrans - a->ttpulse.pcount];
}
else
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2) * a->ttpulse.ctrans[a->ttpulse.pntrans - a->ttpulse.pcount];
a->out[2 * i + 1] = 0.0;
}
if (--a->ttpulse.pcount == 0)
{
a->ttpulse.state = ON;
a->ttpulse.pcount = a->ttpulse.pnon;
}
break;
case ON:
if (a->ttpulse.IQout)
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2);
a->out[2 * i + 1] = -(a->ttpulse.mag1 * sinphase1 + a->ttpulse.mag2 * sinphase2);
}
else
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2);
a->out[2 * i + 1] = 0.0;
}
if (--a->ttpulse.pcount == 0)
{
a->ttpulse.state = DOWN;
a->ttpulse.pcount = a->ttpulse.pntrans;
}
break;
case DOWN:
if (a->ttpulse.IQout)
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2) * a->ttpulse.ctrans[a->ttpulse.pcount];
a->out[2 * i + 1] = -(a->ttpulse.mag1 * sinphase1 + a->ttpulse.mag2 * sinphase2) * a->ttpulse.ctrans[a->ttpulse.pcount];
}
else
{
a->out[2 * i + 0] = +(a->ttpulse.mag1 * cosphase1 + a->ttpulse.mag2 * cosphase2) * a->ttpulse.ctrans[a->ttpulse.pcount];
a->out[2 * i + 1] = 0.0;
}
if (--a->ttpulse.pcount == 0)
{
a->ttpulse.state = OFF;
a->ttpulse.pcount = a->ttpulse.pnoff;
}
break;
}
}
else
{
a->out[2 * i + 0] = 0.0;
a->out[2 * i + 1] = 0.0;
}
t1a = cosphase1;
t1b = sinphase1;
cosphase1 = t1a * a->ttpulse.tcosdelta1 - t1b * a->ttpulse.tsindelta1;
sinphase1 = t1a * a->ttpulse.tsindelta1 + t1b * a->ttpulse.tcosdelta1;
a->ttpulse.tphs1 += a->ttpulse.tdelta1;
if (a->ttpulse.tphs1 >= TWOPI) a->ttpulse.tphs1 -= TWOPI;
if (a->ttpulse.tphs1 < 0.0) a->ttpulse.tphs1 += TWOPI;
t2a = cosphase2;
t2b = sinphase2;
cosphase2 = t2a * a->ttpulse.tcosdelta2 - t2b * a->ttpulse.tsindelta2;
sinphase2 = t2a * a->ttpulse.tsindelta2 + t2b * a->ttpulse.tcosdelta2;
a->ttpulse.tphs2 += a->ttpulse.tdelta2;
if (a->ttpulse.tphs2 >= TWOPI) a->ttpulse.tphs2 -= TWOPI;
if (a->ttpulse.tphs2 < 0.0) a->ttpulse.tphs2 += TWOPI;
}
}
break;
default: // silence
{
memset (a->out, 0, a->size * sizeof (complex));
break;
}
}
}
else if (a->in != a->out)
memcpy (a->out, a->in, a->size * sizeof (complex));
}
void setBuffers_gen (GEN a, double* in, double* out)
{
a->in = in;
a->out = out;
}
void setSamplerate_gen (GEN a, int rate)
{
decalc_gen (a);
a->rate = rate;
calc_gen (a);
}
void setSize_gen (GEN a, int size)
{
a->size = size;
flush_gen (a);
}
/********************************************************************************************************
* *
* RXA Properties *
* *
********************************************************************************************************/
// 'PreGen', gen0
PORT
void SetRXAPreGenRun (int channel, int run)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->run = run;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenMode (int channel, int mode)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->mode = mode;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenToneMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->tone.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenToneFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->tone.freq = freq;
calc_tone (rxa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenNoiseMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->noise.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenSweepMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->sweep.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenSweepFreq (int channel, double freq1, double freq2)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->sweep.f1 = freq1;
rxa[channel].gen0.p->sweep.f2 = freq2;
calc_sweep (rxa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetRXAPreGenSweepRate (int channel, double rate)
{
EnterCriticalSection (&ch[channel].csDSP);
rxa[channel].gen0.p->sweep.sweeprate = rate;
calc_sweep (rxa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
/********************************************************************************************************
* *
* TXA Properties *
* *
********************************************************************************************************/
// 'PreGen', gen0
PORT
void SetTXAPreGenRun (int channel, int run)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->run = run;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenMode (int channel, int mode)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->mode = mode;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenToneMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->tone.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenToneFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->tone.freq = freq;
calc_tone (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenNoiseMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->noise.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenSweepMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->sweep.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenSweepFreq (int channel, double freq1, double freq2)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->sweep.f1 = freq1;
txa[channel].gen0.p->sweep.f2 = freq2;
calc_sweep (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenSweepRate (int channel, double rate)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->sweep.sweeprate = rate;
calc_sweep (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenSawtoothMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->saw.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenSawtoothFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->saw.f = freq;
calc_sawtooth (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenTriangleMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->tri.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenTriangleFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->tri.f = freq;
calc_triangle (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenPulseMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->pulse.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenPulseFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->pulse.pf = freq;
calc_pulse (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenPulseDutyCycle (int channel, double dc)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->pulse.pdutycycle = dc;
calc_pulse (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenPulseToneFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->pulse.tf = freq;
calc_pulse (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPreGenPulseTransition (int channel, double transtime)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen0.p->pulse.ptranstime = transtime;
calc_pulse (txa[channel].gen0.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
// 'PostGen', gen1
PORT
void SetTXAPostGenRun (int channel, int run)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->run = run;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenMode (int channel, int mode)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->mode = mode;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenToneMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->tone.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenToneFreq (int channel, double freq)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->tone.freq = freq;
calc_tone (txa[channel].gen1.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTMag (int channel, double mag1, double mag2)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->tt.mag1 = mag1;
txa[channel].gen1.p->tt.mag2 = mag2;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTFreq (int channel, double freq1, double freq2)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->tt.f1 = freq1;
txa[channel].gen1.p->tt.f2 = freq2;
calc_tt (txa[channel].gen1.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenSweepMag (int channel, double mag)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->sweep.mag = mag;
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenSweepFreq (int channel, double freq1, double freq2)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->sweep.f1 = freq1;
txa[channel].gen1.p->sweep.f2 = freq2;
calc_sweep (txa[channel].gen1.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenSweepRate (int channel, double rate)
{
EnterCriticalSection (&ch[channel].csDSP);
txa[channel].gen1.p->sweep.sweeprate = rate;
calc_sweep (txa[channel].gen1.p);
LeaveCriticalSection (&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseMag(int channel, double mag)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.mag = mag;
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseFreq(int channel, double freq)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.pf = freq;
calc_pulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseDutyCycle(int channel, double dc)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.pdutycycle = dc;
calc_pulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseToneFreq(int channel, double freq)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.tf = freq;
calc_pulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseTransition(int channel, double transtime)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.ptranstime = transtime;
calc_pulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenPulseIQout(int channel, int IQout)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->pulse.IQout = IQout;
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseMag(int channel, double mag1, double mag2)
{
// defaults are 0.5/0.5
// total must not exceed 1.0
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->ttpulse.mag1 = mag1;
txa[channel].gen1.p->ttpulse.mag2 = mag2;
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseFreq(int channel, double freq)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->ttpulse.pf = freq;
calc_ttpulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseDutyCycle(int channel, double dc)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->ttpulse.pdutycycle = dc;
calc_ttpulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseToneFreq(int channel, double freq1, double freq2)
{
GEN a = txa[channel].gen1.p;
EnterCriticalSection(&ch[channel].csDSP);
a->ttpulse.tf1 = freq1;
a->ttpulse.tf2 = freq2;
calc_ttpulse(a);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseTransition(int channel, double transtime)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->ttpulse.ptranstime = transtime;
calc_ttpulse(txa[channel].gen1.p);
LeaveCriticalSection(&ch[channel].csDSP);
}
PORT
void SetTXAPostGenTTPulseIQout(int channel, int IQout)
{
EnterCriticalSection(&ch[channel].csDSP);
txa[channel].gen1.p->ttpulse.IQout = IQout;
LeaveCriticalSection(&ch[channel].csDSP);
}
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