added adjust_range, fast scan and slow scan, lock/unlock range, integer division results when possible, default step of 1

This commit is contained in:
GullCode 2023-04-13 10:18:16 +02:00
parent ec7a77896a
commit 72d1e21fc6
2 changed files with 236 additions and 119 deletions

View File

@ -27,7 +27,6 @@ using namespace portapack;
namespace ui
{
void GlassView::focus()
{
field_marker.focus();
@ -40,6 +39,19 @@ namespace ui
baseband::shutdown();
}
void GlassView::adjust_range(int64_t* f_min, int64_t* f_max, int64_t width) {
int64_t span = *f_max - *f_min;
int64_t num_intervals = span / width;
if( span % width != 0 )
{
num_intervals++;
}
int64_t new_span = num_intervals * width;
int64_t delta_span = (new_span - span) / 2;
*f_min -= delta_span;
*f_max += delta_span;
}
void GlassView::on_lna_changed(int32_t v_db)
{
receiver_model.set_lna(v_db);
@ -64,12 +76,12 @@ namespace ui
}
}
void GlassView::add_spectrum_pixel(int16_t color)
void GlassView::add_spectrum_pixel( uint8_t power )
{
static uint64_t last_max_freq = 0 ;
static int64_t last_max_freq = 0 ;
spectrum_row[pixel_index] = spectrum_rgb3_lut[color] ;
spectrum_data[pixel_index] = ( live_frequency_integrate * spectrum_data[pixel_index] + color ) / (live_frequency_integrate + 1); // smoothing
spectrum_row[pixel_index] = spectrum_rgb3_lut[power] ; // row of colors
spectrum_data[pixel_index] = ( live_frequency_integrate * spectrum_data[pixel_index] + power ) / (live_frequency_integrate + 1); // smoothing
pixel_index ++ ;
if (pixel_index == 240) // got an entire waterfall line
@ -124,51 +136,84 @@ namespace ui
void GlassView::on_channel_spectrum(const ChannelSpectrum &spectrum)
{
baseband::spectrum_streaming_stop();
// Convert bins of this spectrum slice into a representative max_power and when enough, into pixels
// Spectrum.db has 256 bins. Center 12 bins are ignored (DC spike is blanked) Leftmost and rightmost 2 bins are ignored
// All things said and done, we actually need 240 of those bins:
for (uint8_t bin = 0; bin < 240; bin++)
if( fast_scan )
{
if (bin < 120)
// Convert bins of this spectrum slice into a representative max_power and when enough, into pixels
// Spectrum.db has 256 bins. Center 12 bins are ignored (DC spike is blanked) Leftmost and rightmost 2 bins are ignored
// All things said and done, we actually need 240 of those bins:
for (uint8_t bin = 0; bin < 240; bin++)
{
if (bin < 120)
{
if (spectrum.db[134 + bin] > max_power) // 134
max_power = spectrum.db[134 + bin];
}
else
{
if (spectrum.db[bin - 118] > max_power) // 118
max_power = spectrum.db[bin - 118];
}
bins_Hz_size += each_bin_size; // add this bin Hz count into the "pixel fulfilled bag of Hz"
if (bins_Hz_size >= marker_pixel_step) // new pixel fullfilled
{
if (min_color_power < max_power)
add_spectrum_pixel(max_power); // Pixel will represent max_power
else
add_spectrum_pixel(0); // Filtered out, show black
max_power = 0;
if (!pixel_index) // Received indication that a waterfall line has been completed
{
bins_Hz_size = 0; // Since this is an entire pixel line, we don't carry "Pixels into next bin"
f_center = f_center_ini; // Start a new sweep
radio::set_tuning_frequency(f_center); // tune rx for this new slice directly, faster than using persistent memory saving
chThdSleepMilliseconds(10);
baseband::spectrum_streaming_start(); // Do the RX
return;
}
bins_Hz_size -= marker_pixel_step; // reset bins size, but carrying the eventual excess Hz into next pixel
}
}
f_center += LOOKING_GLASS_SLICE_WIDTH; // Move into the next bandwidth slice NOTE: spectrum.sampling_rate = LOOKING_GLASS_SLICE_WIDTH
}
else //slow scan
{
for( int16_t bin = 0 ; bin < 120 ; bin++)
{
if (spectrum.db[134 + bin] > max_power) // 134
max_power = spectrum.db[134 + bin];
}
else
{
if (spectrum.db[bin - 118] > max_power) // 118
max_power = spectrum.db[bin - 118];
}
max_power = spectrum.db[134 + bin];
bins_Hz_size += each_bin_size; // add this bin Hz count into the "pixel fulfilled bag of Hz"
bins_Hz_size += each_bin_size; // add this bin Hz count into the "pixel fulfilled bag of Hz"
if (bins_Hz_size >= marker_pixel_step) // new pixel fullfilled
{
if (min_color_power < max_power)
add_spectrum_pixel(max_power); // Pixel will represent max_power
else
add_spectrum_pixel(0); // Filtered out, show black
max_power = 0;
if (!pixel_index) // Received indication that a waterfall line has been completed
if (bins_Hz_size >= marker_pixel_step) // new pixel fullfilled
{
bins_Hz_size = 0; // Since this is an entire pixel line, we don't carry "Pixels into next bin"
f_center = f_center_ini; // Start a new sweep
radio::set_tuning_frequency(f_center); // tune rx for this new slice directly, faster than using persistent memory saving
chThdSleepMilliseconds(10);
baseband::spectrum_streaming_start(); // Do the RX
return;
}
bins_Hz_size -= marker_pixel_step; // reset bins size, but carrying the eventual excess Hz into next pixel
}
}
if (min_color_power < max_power)
add_spectrum_pixel(max_power); // Pixel will represent max_power
else
add_spectrum_pixel(0); // Filtered out, show black
f_center += LOOKING_GLASS_SLICE_WIDTH; // Move into the next bandwidth slice NOTE: spectrum.sampling_rate = LOOKING_GLASS_SLICE_WIDTH
max_power = 0;
if (!pixel_index) // Received indication that a waterfall line has been completed
{
bins_Hz_size = 0; // Since this is an entire pixel line, we don't carry "Pixels into next bin"
f_center = f_center_ini; // Start a new sweep
radio::set_tuning_frequency(f_center); // tune rx for this new slice directly, faster than using persistent memory saving
chThdSleepMilliseconds(10);
baseband::spectrum_streaming_start(); // Do the RX
return;
}
bins_Hz_size -= marker_pixel_step; // reset bins size, but carrying the eventual excess Hz into next pixel
}
}
f_center += LOOKING_GLASS_SLICE_WIDTH / 2 ;
}
radio::set_tuning_frequency(f_center); // tune rx for this new slice directly, faster than using persistent memory saving
chThdSleepMilliseconds(5);
// receiver_model.set_tuning_frequency(f_center); //tune rx for this slice
baseband::spectrum_streaming_start(); // Do the RX
}
@ -194,13 +239,20 @@ namespace ui
field_marker.set_range(f_min, f_max); // Move the marker between range
field_marker.set_value(f_min + (search_span / 2)); // Put MARKER AT MIDDLE RANGE
text_range.set(to_string_dec_uint(search_span));
if( locked_range )
{
button_range.set_text(">"+to_string_dec_uint(search_span)+"<");
}
else
{
button_range.set_text(" "+to_string_dec_uint(search_span)+" ");
}
f_min = (f_min)*MHZ_DIV; // Transpose into full frequency realm
f_max = (f_max)*MHZ_DIV;
search_span = search_span * MHZ_DIV;
adjust_range( &f_min , &f_max , 240 );
marker_pixel_step = search_span / 240; // Each pixel value in Hz
marker_pixel_step = (f_max - f_min) / 240; // Each pixel value in Hz
text_marker_pm.set(to_string_dec_uint((marker_pixel_step / X2_MHZ_DIV) + 1)); // Give idea of +/- marker precision
int32_t marker_step = marker_pixel_step / MHZ_DIV;
@ -249,8 +301,9 @@ namespace ui
&field_frequency_max,
&field_lna,
&field_vga,
&text_range,
&button_range,
&steps_config,
&scan_type,
&view_config,
&level_integration,
&filter_config,
@ -265,89 +318,100 @@ namespace ui
load_Presets(); // Load available presets from TXT files (or default)
field_frequency_min.set_value(presets_db[0].min); // Defaults to first preset
field_frequency_min.set_step( steps );
field_frequency_min.on_change = [this](int32_t v)
{
reset_live_view( true );
int32_t steps_ = steps ;
if( steps_ < 24 )
steps_ = 24 ;
if( v > 7200 - steps_ )
int32_t min_size = steps ;
if( locked_range )
min_size = search_span ;
if( min_size < 20 )
min_size = 20 ;
if( v > 7200 - min_size )
{
v = 7200 - steps_ ;
v = 7200 - min_size ;
field_frequency_min.set_value( v );
}
if (v >= (field_frequency_max.value() - steps_ ) )
field_frequency_max.set_value( v + steps_ );
if (v > (field_frequency_max.value() - min_size ) )
field_frequency_max.set_value( v + min_size );
if( locked_range )
field_frequency_max.set_value( v + min_size );
this->on_range_changed();
};
field_frequency_min.set_value(presets_db[0].min); // Defaults to first preset
field_frequency_min.set_step( steps );
field_frequency_min.on_select = [this, &nav](NumberField& field) {
auto new_view = nav_.push<FrequencyKeypadView>(field_frequency_min.value()*1000000);
new_view->on_changed = [this, &field](rf::Frequency f) {
int32_t freq = f / 1000000 ;
int32_t steps_ = steps ;
if( steps_ < 24 )
steps_ = 24 ;
if( freq > (7200 - steps_ ) )
freq= 7200 - steps_ ;
int32_t min_size = steps ;
if( locked_range )
min_size = search_span ;
if( min_size < 20 )
min_size = 20 ;
if( freq > (7200 - min_size ) )
freq = 7200 - min_size ;
field_frequency_min.set_value( freq );
if( field_frequency_max.value() < ( freq + steps_ ) )
field_frequency_max.set_value( freq + steps_ );
if( field_frequency_max.value() < ( freq + min_size ) )
field_frequency_max.set_value( freq + min_size );
this->on_range_changed();
};
};
field_frequency_max.set_value(presets_db[0].max); // Defaults to first preset
field_frequency_max.set_step( steps );
field_frequency_max.on_change = [this](int32_t v)
{
reset_live_view( true );
int32_t steps_ = steps ;
if( steps_ < 24 )
steps_ = 24 ;
if( v < steps_ )
int32_t min_size = steps ;
if( locked_range )
min_size = search_span ;
if( min_size < 20 )
min_size = 20 ;
if( v < min_size )
{
v = steps_ ;
v = min_size ;
field_frequency_max.set_value( v );
}
if (v < (field_frequency_min.value() + steps_) )
field_frequency_min.set_value(v - steps_);
if (v < (field_frequency_min.value() + min_size) )
field_frequency_min.set_value(v - min_size);
if( locked_range )
field_frequency_min.set_value( v - min_size );
this->on_range_changed();
};
field_frequency_max.set_value(presets_db[0].max); // Defaults to first preset
field_frequency_max.set_step( steps );
field_frequency_max.on_select = [this, &nav](NumberField& field) {
auto new_view = nav_.push<FrequencyKeypadView>(field_frequency_max.value()*1000000);
new_view->on_changed = [this, &field](rf::Frequency f) {
int32_t steps_ = steps ;
if( steps_ < 24 )
steps_ = 24 ;
int32_t min_size = steps ;
if( locked_range )
min_size = search_span ;
if( min_size < 20 )
min_size = 20 ;
int32_t freq = f / 1000000 ;
if( freq < 24 )
freq = 24 ;
if( freq < min_size )
freq = min_size ;
field_frequency_max.set_value( freq );
if( field_frequency_min.value() > ( freq - steps) )
field_frequency_min.set_value( freq - steps );
if( field_frequency_min.value() > ( freq - min_size) )
field_frequency_min.set_value( freq - min_size );
this->on_range_changed();
};
};
field_lna.set_value(receiver_model.lna());
field_lna.on_change = [this](int32_t v)
{
reset_live_view( true );
this->on_lna_changed(v);
};
field_lna.set_value(receiver_model.lna());
field_vga.set_value(receiver_model.vga());
field_vga.on_change = [this](int32_t v_db)
{
reset_live_view( true );
this->on_vga_changed(v_db);
};
field_vga.set_value(receiver_model.vga());
steps_config.set_selected_index(3); //default of 250 Mhz steps
steps_config.on_change = [this](size_t n, OptionsField::value_t v)
{
(void)n;
@ -355,6 +419,14 @@ namespace ui
field_frequency_max.set_step( v );
steps = v ;
};
steps_config.set_selected_index(0); //default of 1 Mhz steps
scan_type.on_change = [this](size_t n, OptionsField::value_t v)
{
(void)n;
fast_scan = v ;
};
scan_type.set_selected_index(0); // default legacy fast scan
view_config.on_change = [this](size_t n, OptionsField::value_t v)
{
@ -400,14 +472,14 @@ namespace ui
reset_live_view( true );
live_frequency_integrate = v ;
};
level_integration.set_selected_index(2); //default integration of ( 3 * old value + new_value ) / 4
level_integration.set_selected_index(3); //default integration of ( 3 * old value + new_value ) / 4
filter_config.set_selected_index(0);
filter_config.on_change = [this](size_t n, OptionsField::value_t v) {
(void)n;
reset_live_view( true );
min_color_power = v;
};
filter_config.set_selected_index(0);
range_presets.on_change = [this](size_t n, OptionsField::value_t v)
{
@ -432,11 +504,26 @@ namespace ui
nav_.push<AnalogAudioView>(); // Jump into audio view
};
field_trigger.set_value(32); // Defaults to 32, as normal triggering resolution
field_trigger.on_change = [this](int32_t v)
{
baseband::set_spectrum(LOOKING_GLASS_SLICE_WIDTH, v);
};
field_trigger.set_value(32); // Defaults to 32, as normal triggering resolution
button_range.on_select = [this](Button&) {
if( locked_range )
{
locked_range = false ;
button_range.set_style(&style_white);
button_range.set_text(" "+to_string_dec_uint(search_span)+" ");
}
else
{
locked_range = true ;
button_range.set_style(&style_red);
button_range.set_text(">"+to_string_dec_uint(search_span)+"<");
}
};
button_jump.on_select = [this](Button&) {
receiver_model.set_tuning_frequency(max_freq_hold); // Center tune rx in marker freq.

View File

@ -37,15 +37,13 @@
namespace ui
{
#define LOOKING_GLASS_SLICE_WIDTH 19999920 // Each slice bandwidth 20 MHz and a multiple of 240
// since we are using LOOKING_GLASS_SLICE_WIDTH/240 as the each_bin_size
// it should also be a multiple of 2 since we are using LOOKING_GLASS_SLICE_WIDTH / 2 as centering freq
#define MHZ_DIV 1000000
#define X2_MHZ_DIV 2000000
class GlassView : public View
{
public:
GlassView(NavigationView &nav);
GlassView( const GlassView &);
@ -67,16 +65,33 @@ namespace ui
rf::Frequency max{};
std::string label{};
};
const Style style_white { // free range
.font = font::fixed_8x16,
.background = Color::black(),
.foreground = Color::white(),
};
const Style style_red { // locked range
.font = font::fixed_8x16,
.background = Color::black(),
.foreground = Color::red(),
};
std::vector<preset_entry> presets_db{};
int64_t LOOKING_GLASS_SLICE_WIDTH = 19999920; // Each slice bandwidth 20 MHz and a multiple of 240
// since we are using LOOKING_GLASS_SLICE_WIDTH/240 as the each_bin_size
// it should also be a multiple of 2 since we are using LOOKING_GLASS_SLICE_WIDTH / 2 as centering freq
void adjust_range(int64_t* f_min, int64_t* f_max, int64_t width);
void on_channel_spectrum(const ChannelSpectrum& spectrum);
void do_timers();
void on_range_changed();
void on_lna_changed(int32_t v_db);
void on_vga_changed(int32_t v_db);
void reset_live_view( bool clear_screen );
void add_spectrum_pixel(int16_t color);
void add_spectrum_pixel(uint8_t power);
void PlotMarker(rf::Frequency pos);
void load_Presets();
void txtline_process(std::string& line);
@ -96,15 +111,17 @@ namespace ui
std::array<uint8_t, 240> spectrum_data = { 0 };
ChannelSpectrumFIFO* fifo { nullptr };
uint8_t max_power = 0;
int32_t steps = 250 ; // default of 250 Mhz steps
int32_t steps = 0 ;
uint8_t live_frequency_view = 0 ;
int16_t live_frequency_integrate = 3 ;
uint64_t max_freq_hold = 0 ;
int64_t max_freq_hold = 0 ;
int16_t max_freq_power = -1000 ;
bool fast_scan = true ; // default to legacy fast scan
bool locked_range = false ;
Labels labels{
{{0, 0}, "MIN: MAX: LNA VGA ", Color::light_grey()},
{{0, 1 * 16}, " RANGE: FILTER: AMP:", Color::light_grey()},
{{0, 1 * 16}, "RANGE: FILTER: AMP:", Color::light_grey()},
{{0, 2 * 16}, "PRESET:", Color::light_grey()},
{{0, 3 * 16}, "MARKER: MHz +/- MHz", Color::light_grey()},
{{0, 4 * 16}, "RES: STEP:", Color::light_grey()}
@ -134,8 +151,8 @@ namespace ui
{ 27 * 8, 0 * 16 }
};
Text text_range{
{7 * 8, 1 * 16, 4 * 8, 16},
Button button_range{
{6 * 8, 1 * 16, 4 * 8, 16},
""};
OptionsField filter_config{
@ -176,38 +193,51 @@ namespace ui
' '};
OptionsField steps_config{
{ 14 * 8, 4 * 16},
4,
{
{"1", 1},
{"50", 50},
{"100", 100},
{"250", 250},
{"500", 500},
}};
{ 13 * 8, 4 * 16},
3,
{
{"1", 1},
{"25", 25},
{"50", 50},
{"100", 100},
{"250", 250},
{"500", 500},
}
};
OptionsField view_config{
OptionsField scan_type{
{ 17 * 8, 4 * 16},
2,
{
{"F-", true },
{"S-", false },
}
};
OptionsField view_config{
{ 19 * 8, 4 * 16},
7,
{
{"SPCTR-V", 0 },
{"LEVEL-V", 1 },
{"PEAK-V" , 2 },
}};
7,
{
{"SPCTR-V", 0 },
{"LEVEL-V", 1 },
{"PEAK-V" , 2 },
}
};
OptionsField level_integration{
{ 27 * 8, 4 * 16},
2,
{
{"x1", 1 },
{"x2", 2 },
{"x3", 3 },
{"x4", 4 },
{"x5", 5 },
{"x6", 6 },
{"x7", 7 },
{"x8", 8 },
{"x9", 9 },
2,
{
{"x0", 0 },
{"x1", 1 },
{"x2", 2 },
{"x3", 3 },
{"x4", 4 },
{"x5", 5 },
{"x6", 6 },
{"x7", 7 },
{"x8", 8 },
{"x9", 9 },
}};
Button button_jump {