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tinySA/plot.c

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/* All rights reserved.
*
* This 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 3, or (at your option)
* any later version.
*
* The software 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 GNU Radio; see the file COPYING. If not, write to
* the Free Software Foundation, Inc., 51 Franklin Street,
* Boston, MA 02110-1301, USA.
*/
#include <math.h>
#include <string.h>
#include "ch.h"
#include "hal.h"
#include "chprintf.h"
#include "nanovna.h"
#pragma GCC push_options
#pragma GCC optimize ("Og") // Makes the code just a bit faster, disable during debugging.
#ifdef __SCROLL__
uint16_t _grid_y = (CHART_BOTTOM / NGRIDY);
uint16_t graph_bottom = CHART_BOTTOM;
#endif
static void cell_draw_marker_info(int x0, int y0);
static void cell_grid_line_info(int x0, int y0);
static void cell_blit_bitmap(int x, int y, uint16_t w, uint16_t h, const uint8_t *bitmap);
static void draw_battery_status(void);
static void update_waterfall(void);
#ifdef __LEVEL_METER__
static void update_level_meter(void);
char level_text[20];
#endif
void cell_draw_test_info(int x0, int y0);
int cell_printf(int16_t x, int16_t y, const char *fmt, ...);
#ifndef wFONT_GET_DATA
static void cell_drawstring_size(char *str, int x, int y, int size);
#endif
static int16_t grid_offset;
static int16_t grid_width;
static freq_t grid_span;
uint16_t area_width = AREA_WIDTH_NORMAL;
uint16_t area_height; // initialized in main() = AREA_HEIGHT_NORMAL;
// Cell render use spi buffer
pixel_t *cell_buffer = (pixel_t *)spi_buffer;
// Check buffer size
#if CELLWIDTH*CELLHEIGHT > SPI_BUFFER_SIZE
#error "Too small spi_buffer size SPI_BUFFER_SIZE < CELLWIDTH*CELLHEIGH"
#endif
// indicate dirty cells (not redraw if cell data not changed)
#define MAX_MARKMAP_X ((LCD_WIDTH+CELLWIDTH-1)/CELLWIDTH)
#define MAX_MARKMAP_Y ((LCD_HEIGHT+CELLHEIGHT-1)/CELLHEIGHT)
// Define markmap mask size
#if MAX_MARKMAP_X <= 8
typedef uint8_t map_t;
#elif MAX_MARKMAP_X <= 16
typedef uint16_t map_t;
#elif MAX_MARKMAP_X <= 32
typedef uint32_t map_t;
#endif
static map_t markmap[2][MAX_MARKMAP_Y+1];
static uint8_t current_mappage = 0;
// Trace data cache, for faster redraw cells
// Set data size types depend from screen resolution
// Set type for x resolution
#if LCD_WIDTH < 256
typedef uint8_t index_x_t;
#else
typedef uint16_t index_x_t;
#endif
// Set type for y resolution
#if LCD_HEIGHT < 256
typedef uint8_t index_y_t;
#else
typedef uint16_t index_y_t;
#endif
static index_x_t trace_index_x[POINTS_COUNT];
static index_y_t trace_index_y[TRACES_MAX][POINTS_COUNT];
uint16_t marker_color(int m_i)
{
return LCD_TRACE_1_COLOR + markers[m_i].trace;
}
#if 1
#define float2int(v) ((int)(v))
#else
static int
float2int(float v)
{
if (v < 0) return v - 0.5;
if (v > 0) return v + 0.5;
return 0;
}
#endif
void update_grid(void)
{
freq_t gdigit = 1000000000;
freq_t fstart = get_sweep_frequency(ST_START) + (setting.frequency_offset - FREQUENCY_SHIFT);
freq_t fspan = get_sweep_frequency(ST_SPAN);
freq_t grid;
if (fspan == 0) {
fspan = setting.actual_sweep_time_us; // Time in uS
fstart = 0;
}
if (config.gridlines < 3)
config.gridlines = 6;
while (gdigit > 1) {
grid = 5 * gdigit;
if (fspan / grid >= config.gridlines)
break;
grid = 2 * gdigit;
if (fspan / grid >= config.gridlines)
break;
grid = gdigit;
if (fspan / grid >= config.gridlines)
break;
gdigit /= 10;
}
grid_span = grid;
grid_offset = (WIDTH) * ((fstart % grid) / 100) / (fspan / 100);
grid_width = (WIDTH) * (grid / 100) / (fspan / 1000);
if (setting.waterfall)
set_waterfall();
#ifdef __LEVEL_METER__
if (setting.level_meter)
set_level_meter();
#endif
redraw_request |= REDRAW_FREQUENCY | REDRAW_AREA;
}
#if 0
static int
rectangular_grid(int x, int y)
{
//#define FREQ(x) (((x) * (fspan / 1000) / (WIDTH-1)) * 1000 + fstart)
//int32_t n = FREQ(x-1) / fgrid;
//int32_t m = FREQ(x) / fgrid;
//if ((m - n) > 0)
//if (((x * 6) % (WIDTH-1)) < 6)
//if (((x - grid_offset) % grid_width) == 0)
if (x == 0 || x == WIDTH-1)
return 1;
if ((y % GRIDY) == 0)
return 1;
if ((((x + grid_offset) * 10) % grid_width) < 10)
return 1;
return 0;
}
#endif
#ifdef __HAM_BAND__
typedef const struct {
freq_t start;
freq_t stop;
} ham_bands_t;
const ham_bands_t ham_bands[] =
{
{135700, 137800},
{472000, 479000},
{1800000, 2000000},
{3500000, 3800000},
{5250000, 5450000},
{7000000, 7200000},
{10100000, 10150000},
{14000000, 14350000},
{18068000, 18168000},
{21000000, 21450000},
{24890000, 24990000},
{28000000, 29700000},
{50000000, 52000000},
{70000000, 70500000},
{144000000, 146000000}
};
int ham_band(int x) // Search which index in the frequency tabled matches with frequency f using actual_rbw
{
freq_t f = frequencies[x] + (setting.frequency_offset - FREQUENCY_SHIFT);
int L = 0;
int R = (sizeof ham_bands)/sizeof(freq_t) - 1;
while (L <= R) {
int m = (L + R) / 2;
if (ham_bands[m].stop < f)
L = m + 1;
else if (ham_bands[m].start > f)
R = m - 1;
else
return true; // index is m
}
return false;
}
#endif
static int
rectangular_grid_x(int x)
{
x -= CELLOFFSETX;
if (x < 0) return 0;
if (x == 0 || x == WIDTH)
return 1;
if ((((x + grid_offset) * 10) % grid_width) < 10)
return 1;
return 0;
}
static int
rectangular_grid_y(int y)
{
if (y < 0)
return 0;
if ((y % GRIDY) == 0)
return 1;
return 0;
}
#if 0
int
set_strut_grid(int x)
{
uint16_t *buf = spi_buffer;
int y;
for (y = 0; y < HEIGHT; y++) {
int c = rectangular_grid(x, y);
c |= smith_grid(x, y);
*buf++ = c;
}
return y;
}
void
draw_on_strut(int v0, int d, int color)
{
int v;
int v1 = v0 + d;
if (v0 < 0) v0 = 0;
if (v1 < 0) v1 = 0;
if (v0 >= HEIGHT) v0 = HEIGHT-1;
if (v1 >= HEIGHT) v1 = HEIGHT-1;
if (v0 == v1) {
v = v0; d = 2;
} else if (v0 < v1) {
v = v0; d = v1 - v0 + 1;
} else {
v = v1; d = v0 - v1 + 1;
}
while (d-- > 0)
spi_buffer[v++] |= color;
}
#endif
/*
* calculate log10f(abs(gamma))
*/
#if 0
float
index_to_value(const int i)
{
return(value(actual_t[i]));
}
#endif
#ifdef __MARKER_CACHE__
float marker_cache[MARKERS_MAX];
bool marker_cache_valid[MARKERS_MAX];
int32_t marker_cache_index[MARKERS_MAX];
void
clear_marker_cache(void)
{
for (int i = 0; i<MARKERS_MAX; i++) {
marker_cache_valid[i] = false;
}
}
#endif
float
marker_to_value(const int i)
{
#ifdef __MARKER_CACHE__
if (markers[i].mtype & M_AVER && linear_averaging && marker_cache_valid[i] && marker_cache_index[i] == markers[i].index)
return marker_cache[i];
#endif
float *ref_marker_levels;
ref_marker_levels = measured[markers[i].trace];
float v = value(ref_marker_levels[markers[i].index]);
if (markers[i].mtype & M_AVER) {
int old_unit = setting.unit;
if (markers[i].mtype & M_NOISE
#ifdef TINYSA4
&& linear_averaging
#endif
)
setting.unit = U_WATT; // Noise averaging should always be done in Watts
v = 0;
for (int i=0; i<sweep_points; i++)
v += value(ref_marker_levels[i]); // TODO this should be power averaging for noise markers
v /= sweep_points;
v = to_dBm(v);
setting.unit = old_unit;
v = value(v);
}
if (markers[i].mtype & M_NOISE){
v = v - logf(actual_rbw_x10*100.0) * (10.0/logf(10.0))
#ifdef TINYSA4
+ SI4463_noise_correction_x10/10.0 + (linear_averaging ? 0.0 : log_averaging_correction);
#endif
;
}
#ifdef __MARKER_CACHE__
marker_cache_valid[i] = true;
marker_cache_index[i] = markers[i].index;
marker_cache[i] = v;
#endif
return(v);
}
#ifdef TINYSA3
float sa_sqrtf(const float x)
{
union
{
int i;
float x;
} u;
u.x = x;
u.i = (1<<29) + (u.i >> 1) - (1<<22);
// Two Babylonian Steps (simplified from:)
// u.x = 0.5f * (u.x + x/u.x);
// u.x = 0.5f * (u.x + x/u.x);
u.x = u.x + x/u.x;
u.x = 0.25f*u.x + x/u.x;
return u.x;
}
#else
//#define sa_sqrtf(x) sqrtf(x)
__attribute__((always_inline)) __STATIC_INLINE float sa_sqrtf(float x){__asm__ ("vsqrt.f32 %0, %1" : "=t"(x) : "t"(x)); return x;}
#endif
// Function for convert to different type of values from dBm
// Replaced some equal functions and use recalculated constants:
// powf(10,x) = expf(x * logf(10))
// log10f(x) = logf(x)/logf(10)
float
value(const float v)
{
switch(setting.unit)
{
case U_DBMV:
return v + (30.0 + 20.0*log10f(sqrtf(50.0)));
case U_DBUV:
return v + (90.0 + 20.0*log10f(sqrtf(50.0)));
case U_VOLT:
// return powf(10.0, (v-30.0)/20.0) * sqrtf(50.0); // powf(10.0, v /20.0) * powf(10, -30.0/20.0) * sqrtf(50)
return expf(v*(logf(10.0)/20.0)) * (powf(10, -30.0/20.0)*sqrtf(50));// expf(v*logf(10.0)/20.0) * powf(10, -30.0/20.0) * sqrtf(50)
case U_WATT:
// return powf(10.0, v/10.0)/1000.0; // powf(10.0, v /10.0) / 1000.0
return expf(v*(logf(10.0)/10.0)) / 1000.0; // expf(v*logf(10.0)/10.0) / 1000.0
}
// case U_DBM:
// case U_RAW:
return v; // raw data is in logmag*10 format
}
float
to_dBm(const float v)
{
switch(setting.unit)
{
case U_DBMV:
return v - (30.0 + 20.0*log10f(sqrtf(50.0)));
case U_DBUV:
return v - (90.0 + 20.0*log10f(sqrtf(50.0)));
case U_VOLT:
// return log10f(v/(sqrtf(50.0)))* 20.0 + 30.0;
return logf(v/(sqrtf(50.0)))*(20.0/logf(10.0)) + 30.0;
case U_WATT:
// return log10f(v*1000.0)* 10.0;
return logf(v*1000.0)*(10.0/logf(10.0));
}
// case U_DBM:
return v; // raw data is in logmag*10 format
}
float
dBm_to_Watt(const float v)
{
return logf(v*1000.0)*(10.0/logf(10.0));
}
static float fast_expf(float x)
{
union { float f; int32_t i; } v;
v.i = (int32_t)(12102203.0f*x) + 0x3F800000;
int32_t m = (v.i >> 7) & 0xFFFF; // copy mantissa
#if 1
// cubic spline approximation
// empirical values for small maximum relative error (8.34e-5):
v.i += ((((((((1277*m) >> 14) + 14825)*m) >> 14) - 79749)*m) >> 11) - 626;
#else
// quartic spline approximation
// empirical values for small maximum relative error (1.21e-5):
v.i += (((((((((((3537*m) >> 16) + 13668)*m) >> 18) + 15817)*m) >> 14) - 80470)*m) >> 11);
#endif
return v.f;
}
static void
trace_into_index_x_array(index_x_t *x, uint16_t points){
// Not need update if index calculated for this points count
static uint16_t old_points = 0;
if (old_points == points) return;
old_points = points;
points-=1;
for (int i=0; i<= points;i++)
x[i] = (i * WIDTH + (points>>1)) / points + CELLOFFSETX;
}
//
// Optimized by speed/size array processing of value(const float v) function
// on screen need calculate as:
// y = (ref-v)/scale
// and align by top/bottom
static void
trace_into_index_y_array(index_y_t *y, float *array, int points)
{
float scale = GRIDY / get_trace_scale();
float ref = get_trace_refpos();
float mult = 0, vmult = 1.0;
float ref_shift = 0;
switch (setting.unit){
case U_DBM: break;
#ifdef TINYSA4
case U_RAW: break;
#endif
case U_DBMV: ref_shift = 30.0 + 20.0*log10f(sqrtf(50.0));break;
case U_DBUV: ref_shift = 90.0 + 20.0*log10f(sqrtf(50.0));break;
case U_VOLT: vmult = powf(10, -30.0/20.0) * sqrtf(50.0); mult = logf(10.0)/20.0;break;
case U_WATT: vmult = 1.0/1000.0; mult = logf(10.0)/10.0;break;
default:
return;
}
// Universal formula look like this:
// v = (refpos - (mult ? expf(value*mult) : value) - ref_shift) * vmult) * scale;
// v = ((refpos - ref_shift) * scale) - (mult ? expf(value*mult) : value) * (vmult * scale)
// Made precalculated constants:
ref = (ref - ref_shift) * scale + 0.5; // add 0.5 for floor on int convert
scale = scale * vmult;
int max = NGRIDY * GRIDY, i;
for (i=0;i<points;i++){
float value = array[i];
if (mult) value = fast_expf(value*mult);
value = ref - value * scale;
int v = value;
if (v < 0) v = 0;
else if (v > max) v = max;
y[i] = v;
}
return;
}
static inline void
swap_markmap(void)
{
current_mappage^= 1;
}
static void
clear_markmap(void)
{
memset(markmap[current_mappage], 0, sizeof markmap[current_mappage]);
}
static void
force_set_markmap(void)
{
memset(markmap[current_mappage], 0xff, sizeof markmap[current_mappage]);
}
/*
* Force region of screen update
*/
static void
invalidate_rect_func(int x0, int y0, int x1, int y1)
{
int x, y;
map_t *map = &markmap[current_mappage][0];
for (y = y0; y <= y1; y++)
if ((uint32_t)y < MAX_MARKMAP_Y)
for (x = x0; x <= x1; x++)
map[y]|= 1 << x;
}
#define invalidate_rect(x0, y0, x1, y1) invalidate_rect_func((x0)/CELLWIDTH, (y0)/CELLHEIGHT, (x1)/CELLWIDTH, (y1)/CELLHEIGHT)
#define SWAP(x,y) {int t=x;x=y;y=t;}
static void
mark_cells_from_index(void)
{
int t, i, j;
/* mark cells between each neighber points */
map_t *map = &markmap[current_mappage][0];
index_x_t *index_x = trace_index_x;
for (t = 0; t < TRACES_MAX; t++) {
if (IS_TRACE_DISABLE(t))
continue;
index_y_t *index_y = trace_index_y[t];
int m0 = index_x[0] / CELLWIDTH;
int n0 = index_y[0] / CELLHEIGHT;
map[n0] |= 1 << m0;
for (i = 1; i < sweep_points; i++) {
int m1 = index_x[i] / CELLWIDTH;
int n1 = index_y[i] / CELLHEIGHT;
if (m0 == m1 && n0 == n1)
continue;
int x0 = m0; int x1 = m1; if (x0>x1) SWAP(x0, x1); m0 = m1;
int y0 = n0; int y1 = n1; if (y0>y1) SWAP(y0, y1); n0 = n1;
for (; y0 <= y1; y0++)
for (j = x0; j <= x1; j++)
map[y0] |= 1 << j;
}
}
}
static inline void
markmap_upperarea(void)
{
// Hardcoded, Text info from upper area
#if MARKER_COUNT == 4
invalidate_rect(0, 0, AREA_WIDTH_NORMAL, 31);
#else
invalidate_rect(0, 0, AREA_WIDTH_NORMAL, 63);
#endif
}
static uint16_t get_trigger_level(void){
index_y_t trigger;
trace_into_index_y_array(&trigger, &setting.trigger_level, 1);
return trigger;
}
static inline void
markmap_trigger_area(void){
uint16_t tp = get_trigger_level();
markmap[current_mappage][tp/CELLWIDTH] = (map_t)0xFFFFFFFF;
}
//
// in most cases _compute_outcode clip calculation not give render line speedup
//
static inline void
cell_drawline(int x0, int y0, int x1, int y1, int c)
{
if (x0 < 0 && x1 < 0) return;
if (y0 < 0 && y1 < 0) return;
if (x0 >= CELLWIDTH && x1 >= CELLWIDTH) return;
if (y0 >= CELLHEIGHT && y1 >= CELLHEIGHT) return;
// modifed Bresenham's line algorithm, see https://en.wikipedia.org/wiki/Bresenham%27s_line_algorithm
// Draw from top to bottom (most graph contain vertical lines)
if (y1 < y0) { SWAP(x0, x1); SWAP(y0, y1); }
int dx =-(x1 - x0), sx = 1; if (dx > 0) { dx = -dx; sx = -sx; }
int dy = (y1 - y0);
int err = ((dy + dx) < 0 ? -dx : -dy) / 2;
// Fast skip points while y0 < 0
if (y0 < 0){
while(1){
int e2 = err;
if (e2 > dx) { err-= dy; x0+=sx;}
if (e2 < dy) { err-= dx; y0++; if (y0 == 0) break;}
}
}
// align y by CELLWIDTH for faster calculations
y0*=CELLWIDTH;
y1*=CELLWIDTH;
while (1) {
if ((uint32_t)x0 < CELLWIDTH)
cell_buffer[y0 + x0]|= c;
if (x0 == x1 && y0 == y1)
return;
int e2 = err;
if (e2 > dx) { err-= dy; x0+=sx;}
if (e2 < dy) { err-= dx; y0+=CELLWIDTH; if (y0>=CELLHEIGHT*CELLWIDTH) return;} // stop after cell bottom
}
}
// Give a little speedup then draw rectangular plot (50 systick on all calls, all render req 700 systick)
// Write more difficult algoritm for seach indexes not give speedup
static int
search_index_range_x(int x1, int x2, int *i0, int *i1)
{
int i, j;
int head = 0;
int tail = sweep_points;
int idx_x;
index_x_t *index_x = trace_index_x;
// Search index point in cell
while (1) {
i = (head + tail) / 2;
idx_x = index_x[i];
if (idx_x >= x2) { // index after cell
if (tail == i)
return false;
tail = i;
}
else if (idx_x < x1) { // index before cell
if (head == i)
return false;
head = i;
}
else // index in cell (x =< idx_x < cell_end)
break;
}
j = i;
// Search index left from point
do {
j--;
} while (j > 0 && x1 <= index_x[j]);
*i0 = j;
// Search index right from point
do {
i++;
} while (i < sweep_points-1 && index_x[i] < x2);
*i1 = i;
return TRUE;
}
#if 0 // Not used as refpos is always at top of screen
#define REFERENCE_WIDTH 6
#define REFERENCE_HEIGHT 5
#define REFERENCE_X_OFFSET 5
#define REFERENCE_Y_OFFSET 2
// Reference bitmap
static const uint8_t reference_bitmap[]={
_BMP8(0b11000000),
_BMP8(0b11110000),
_BMP8(0b11111100),
_BMP8(0b11110000),
_BMP8(0b11000000),
#endif
#if _MARKER_SIZE_ == 0
#define MARKER_WIDTH 7
#define MARKER_HEIGHT 10
#define X_MARKER_OFFSET 3
#define Y_MARKER_OFFSET 10
#define MARKER_BITMAP(i) (&marker_bitmap[(i)*MARKER_HEIGHT])
static const uint8_t marker_bitmap[]={
// Marker Back plate
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b11111110),
_BMP8(0b01111100),
_BMP8(0b00111000),
_BMP8(0b00010000),
// Marker 1
_BMP8(0b00000000),
_BMP8(0b00010000),
_BMP8(0b00110000),
_BMP8(0b00010000),
_BMP8(0b00010000),
_BMP8(0b00010000),
_BMP8(0b00111000),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#if MARKERS_MAX >=2
// Marker 2
_BMP8(0b00000000),
_BMP8(0b00111000),
_BMP8(0b01000100),
_BMP8(0b00000100),
_BMP8(0b00111000),
_BMP8(0b01000000),
_BMP8(0b01111100),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=3
// Marker 3
_BMP8(0b00000000),
_BMP8(0b00111000),
_BMP8(0b01000100),
_BMP8(0b00011000),
_BMP8(0b00000100),
_BMP8(0b01000100),
_BMP8(0b00111000),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=4
// Marker 4
_BMP8(0b00000000),
_BMP8(0b00001000),
_BMP8(0b00011000),
_BMP8(0b00101000),
_BMP8(0b01001000),
_BMP8(0b01001000),
_BMP8(0b01111100),
_BMP8(0b00001000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=5
// Marker 5
_BMP8(0b00000000),
_BMP8(0b01111100),
_BMP8(0b01000000),
_BMP8(0b01111000),
_BMP8(0b00000100),
_BMP8(0b01000100),
_BMP8(0b00111000),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=6
// Marker 6
_BMP8(0b00000000),
_BMP8(0b00111100),
_BMP8(0b01000000),
_BMP8(0b01111000),
_BMP8(0b01000100),
_BMP8(0b01000100),
_BMP8(0b00111000),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=7
// Marker 7
_BMP8(0b00000000),
_BMP8(0b01111100),
_BMP8(0b01000100),
_BMP8(0b00000100),
_BMP8(0b00001000),
_BMP8(0b00010000),
_BMP8(0b00010000),
_BMP8(0b00010000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
#if MARKERS_MAX >=8
// Marker 8
_BMP8(0b00000000),
_BMP8(0b00111000),
_BMP8(0b01000100),
_BMP8(0b00111000),
_BMP8(0b01000100),
_BMP8(0b01000100),
_BMP8(0b00111000),
_BMP8(0b00000000),
_BMP8(0b00000000),
_BMP8(0b00000000),
#endif
};
#elif _MARKER_SIZE_ == 1
#define MARKER_WIDTH 11
#define MARKER_HEIGHT 14
#define X_MARKER_OFFSET 5
#define Y_MARKER_OFFSET 14
#define MARKER_BITMAP(i) (&marker_bitmap[(i)*2*MARKER_HEIGHT])
static const uint8_t marker_bitmap[]={
// Marker Back plate
_BMP16(0b0000000000000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0111111111000000),
_BMP16(0b0011111110000000),
_BMP16(0b0001111100000000),
_BMP16(0b0000111000000000),
_BMP16(0b0000010000000000),
// Marker 1
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000111000100000),
_BMP16(0b1001011000100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000011000100000),
_BMP16(0b0100111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#if MARKERS_MAX >=2
// Marker 2
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1000111100100000),
_BMP16(0b1001100110100000),
_BMP16(0b1001100110100000),
_BMP16(0b1000000110100000),
_BMP16(0b1000001100100000),
_BMP16(0b1000111000100000),
_BMP16(0b1001100000100000),
_BMP16(0b1001100000100000),
_BMP16(0b0101111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=3
// Marker 3
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1001111100100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1000000110100000),
_BMP16(0b1000011100100000),
_BMP16(0b1000000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b0101111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=4
// Marker 4
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1000001100100000),
_BMP16(0b1000011100100000),
_BMP16(0b1000111100100000),
_BMP16(0b1001101100100000),
_BMP16(0b1011001100100000),
_BMP16(0b1011001100100000),
_BMP16(0b1011111110100000),
_BMP16(0b1000001100100000),
_BMP16(0b0100001101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=5
// Marker 5
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1011111110100000),
_BMP16(0b1011000000100000),
_BMP16(0b1011000000100000),
_BMP16(0b1011111100100000),
_BMP16(0b1011000110100000),
_BMP16(0b1000000110100000),
_BMP16(0b1000000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b0101111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=6
// Marker 6
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1001111100100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000000100000),
_BMP16(0b1011011100100000),
_BMP16(0b1011100110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b0101111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=7
// Marker 7
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1011111110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1000000110100000),
_BMP16(0b1000001100100000),
_BMP16(0b1000011000100000),
_BMP16(0b1000110000100000),
_BMP16(0b1000110000100000),
_BMP16(0b1000110000100000),
_BMP16(0b0100110001000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
#if MARKERS_MAX >=8
// Marker 8
_BMP16(0b1111111111100000),
_BMP16(0b1000000000100000),
_BMP16(0b1001111100100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1001111100100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b1011000110100000),
_BMP16(0b0101111101000000),
_BMP16(0b0010000010000000),
_BMP16(0b0001000100000000),
_BMP16(0b0000101000000000),
#endif
};
#endif
static void
markmap_marker(int marker)
{
if (!markers[marker].enabled)
return;
if (IS_TRACE_DISABLE(TRACE_ACTUAL))
return;
#ifdef __MARKER_CACHE__
marker_cache_valid[marker] = false; // force recalculation
#endif
int idx = markers[marker].index;
int x = trace_index_x[idx] - X_MARKER_OFFSET;
int y = trace_index_y[TRACE_ACTUAL][idx] - Y_MARKER_OFFSET;
invalidate_rect(x, y, x+MARKER_WIDTH-1, y+MARKER_HEIGHT-1);
}
void
markmap_all_markers(void)
{
int i;
for (i = 0; i < MARKERS_MAX; i++) {
if (!markers[i].enabled)
continue;
markmap_marker(i);
}
markmap_upperarea();
}
int
distance_to_index(int8_t t, uint16_t idx, int16_t x, int16_t y)
{
x-= trace_index_x[idx];
y-= trace_index_y[t][idx];
return x*x + y*y;
}
int
search_nearest_index(int x, int y, int t)
{
int min_i = -1;
int min_d = MARKER_PICKUP_DISTANCE * MARKER_PICKUP_DISTANCE;
int i;
for (i = 0; i < sweep_points; i++) {
int d = distance_to_index(t, i, x , y);
if (d < min_d) {
min_d = d;
min_i = i;
}
}
return min_i;
}
void
plot_into_index(measurement_t measured)
{
int t;
// START_PROFILE
trace_into_index_x_array(trace_index_x, sweep_points);
for (t = 0; t < TRACES_MAX; t++) {
if (IS_TRACE_DISABLE(t))
continue;
trace_into_index_y_array(trace_index_y[t], measured[t], sweep_points);
}
// STOP_PROFILE
// START_PROFILE
mark_cells_from_index();
markmap_all_markers();
// STOP_PROFILE
}
static void
draw_cell(int m, int n)
{
int x0 = m * CELLWIDTH;
int y0 = n * CELLHEIGHT;
int w = CELLWIDTH;
int h = CELLHEIGHT;
int x, y;
int i;
int t;
uint16_t c;
// Clip cell by area
if (w > area_width - x0)
w = area_width - x0;
if (h > area_height - y0)
h = area_height - y0;
if (w <= 0 || h <= 0)
return;
// PULSE;
cell_buffer = ili9341_get_cell_buffer();
// Clear buffer ("0 : height" lines)
#if 0
// use memset 350 system ticks for all screen calls
// as understand it use 8 bit set, slow down on 32 bit systems
memset(spi_buffer, LCD_BG_COLOR, (h*CELLWIDTH)*sizeof(uint16_t));
#else
// use direct set 35 system ticks for all screen calls
#if CELLWIDTH%8 != 0
#error "CELLWIDTH % 8 should be == 0 for speed, or need rewrite cell cleanup"
#endif
// Set LCD_BG_COLOR for 8 pixels in one cycle
int count = h*CELLWIDTH / 8;
uint32_t *p = (uint32_t *)cell_buffer;
uint32_t clr = GET_PALTETTE_COLOR(LCD_BG_COLOR) | (GET_PALTETTE_COLOR(LCD_BG_COLOR) << 16);
while (count--) {
p[0] = clr;
p[1] = clr;
p[2] = clr;
p[3] = clr;
p += 4;
}
#endif
// Draw grid
#if 1
c = GET_PALTETTE_COLOR(LCD_GRID_COLOR);
// Generate grid type list
uint32_t trace_type = 0;
if (IS_TRACES_ENABLED(TRACE_ACTUAL_FLAG|TRACE_STORED_FLAG|TRACE_TEMP_FLAG))
trace_type |= RECTANGULAR_GRID_MASK;
// Draw rectangular plot (40 system ticks for all screen calls)
if (trace_type & RECTANGULAR_GRID_MASK) {
for (x = 0; x < w; x++) {
if (rectangular_grid_x(x + x0)) {
for (y = 0; y < h; y++) cell_buffer[y * CELLWIDTH + x] = c;
}
}
for (y = 0; y < h; y++) {
if (rectangular_grid_y(y + y0)) {
for (x = 0; x < w; x++)
if ((uint32_t)(x + x0 - CELLOFFSETX) <= WIDTH)
cell_buffer[y * CELLWIDTH + x] = c;
}
}
}
#ifdef __HAM_BAND__
if (config.hambands){
c = GET_PALTETTE_COLOR(LCD_HAM_COLOR);
for (x = 0; x < w; x++)
if (ham_band(x+x0))
for (y = 0; y < h; y++) cell_buffer[y * CELLWIDTH + x] = c;
}
#endif
#ifdef __CHANNEL_POWER__
if (setting.measurement == M_CP||setting.measurement == M_SNR) {
c = GET_PALTETTE_COLOR(LCD_TRIGGER_COLOR);
for (x = 0; x < w; x++)
if (x+x0 == WIDTH/3 || x+x0 == 2*WIDTH/3 ) {
for (y = 0; y < h; y++) cell_buffer[y * CELLWIDTH + x] = c;
}
}
#endif
// PULSE;
#endif
// Draw trigger line
if (setting.trigger != T_AUTO) {
c = GET_PALTETTE_COLOR(LCD_TRIGGER_COLOR);
int tp = get_trigger_level() - y0;
if (tp>=0 && tp < h)
for (x = 0; x < w; x++)
if ((uint32_t)(x + x0 - CELLOFFSETX) <= WIDTH + CELLOFFSETX)
cell_buffer[tp * CELLWIDTH + x] = c;
}
#if 1
// Only right cells
if (m >= (GRID_X_TEXT)/CELLWIDTH)
cell_grid_line_info(x0, y0);
#endif
// Draw traces (50-600 system ticks for all screen calls, depend from lines
// count and size)
#if 1
int i0 = 0;
int i1 = 0;
index_x_t *index_x = trace_index_x;
search_index_range_x(x0, x0 + w, &i0, &i1);
for (t = 0; t < TRACES_MAX; t++) {
if (IS_TRACE_DISABLE(t))
continue;
c = GET_PALTETTE_COLOR(LCD_TRACE_1_COLOR + t);
index_y_t *index_y = trace_index_y[t];
for (i = i0; i < i1; i++) {
int x1 = index_x[i ] - x0;
int x2 = index_x[i+1] - x0;
int y1 = index_y[i ] - y0;
int y2 = index_y[i+1] - y0;
cell_drawline(x1, y1, x2, y2, c);
}
}
#else
for (x = 0; x < area_width; x += 6)
cell_drawline(x - x0, 0 - y0, area_width - x - x0, area_height - y0,
config.trace_color[0]);
#endif
// PULSE;
// draw marker symbols on each trace (<10 system ticks for all screen calls)
#if 1
for (int t = TRACE_ACTUAL; t < TRACES_MAX; t++ ) {
if (IS_TRACE_ENABLE(t)) {
for (i = 0; i < MARKERS_MAX; i++) {
if (!markers[i].enabled)
continue;
if (markers[i].trace != t) {
continue;
}
int idx = markers[i].index;
int x = trace_index_x[idx] - x0 - X_MARKER_OFFSET;
int y = trace_index_y[t][idx] - y0 - Y_MARKER_OFFSET;
// Check marker icon on cell
if ((uint32_t)(x+MARKER_WIDTH ) < (CELLWIDTH + MARKER_WIDTH ) &&
(uint32_t)(y+MARKER_HEIGHT) < (CELLHEIGHT + MARKER_HEIGHT)){
// Draw marker plate
ili9341_set_foreground(LCD_TRACE_1_COLOR + t);
cell_blit_bitmap(x, y, MARKER_WIDTH, MARKER_HEIGHT, MARKER_BITMAP(0));
// Draw marker number
ili9341_set_foreground(LCD_BG_COLOR);
cell_blit_bitmap(x, y, MARKER_WIDTH, MARKER_HEIGHT, MARKER_BITMAP(i+1));
}
}
}
}
#endif
// Draw trace and marker info on the top (50 system ticks for all screen calls)
#if 1
if (n <= (MARKERS_MAX > 4 ? 1 : 0))
cell_draw_marker_info(x0, y0);
#endif
#ifdef __SELFTEST__
cell_draw_test_info(x0, y0);
#endif
// PULSE;
#if 0
// Draw reference position (<10 system ticks for all screen calls)
for (t = 0; t < TRACES_MAX; t++) {
if (!trace[t].enabled)
continue;
uint32_t trace_type = (1 << trace[t].type);
if (trace_type & ((1 << TRC_SMITH) | (1 << TRC_POLAR)))
continue;
int x = 0 - x0 + CELLOFFSETX - REFERENCE_X_OFFSET;
if (x + REFERENCE_WIDTH >= 0 && x - REFERENCE_WIDTH < CELLWIDTH) {
int y = HEIGHT - float2int((get_trace_refpos(t) * GRIDY)) - y0 - REFERENCE_Y_OFFSET;
if (y + REFERENCE_HEIGHT >= 0 && y - REFERENCE_HEIGHT < CELLHEIGHT){
ili9341_set_foreground(GET_PALTETTE_COLOR(LCD_TRACE_1_COLOR + t));
cell_blit_bitmap(x , y, REFERENCE_WIDTH, REFERENCE_HEIGHT, reference_bitmap);
}
}
}
#endif
// Need right clip cell render (25 system ticks for all screen calls)
#if 1
if (w < CELLWIDTH) {
pixel_t *src = cell_buffer + CELLWIDTH;
pixel_t *dst = cell_buffer + w;
for (y = h; --y; src += CELLWIDTH - w)
for (x = w; x--;)
*dst++ = *src++;
}
#endif
// Draw cell (500 system ticks for all screen calls)
ili9341_bulk_continue(OFFSETX + x0, OFFSETY + y0, w, h);
}
static void
draw_all_cells(bool flush_markmap)
{
int m, n;
// START_PROFILE
for (n = 0; n < (area_height+CELLHEIGHT-1) / CELLHEIGHT; n++){
map_t update_map = markmap[0][n] | markmap[1][n];
if (update_map == 0) continue;
for (m = 0; update_map; update_map>>=1, m++)
if (update_map & 1)
draw_cell(m, n);
}
#if 0
// Used for debug control cell update
ili9341_bulk_finish();
for (m = 0; m < (area_width+CELLWIDTH-1) / CELLWIDTH; m++)
for (n = 0; n < (area_height+CELLHEIGHT-1) / CELLHEIGHT; n++) {
ili9341_set_background(((markmap[0][n] | markmap[1][n]) & (1 << m)) ? LCD_LOW_BAT_COLOR : LCD_NORMAL_BAT_COLOR);
ili9341_fill(m*CELLWIDTH+OFFSETX, n*CELLHEIGHT, 2, 2);
}
#endif
if (flush_markmap) {
// keep current map for update
swap_markmap();
// clear map for next plotting
clear_markmap();
}
// Flush LCD buffer, wait completion (need call after end use ili9341_bulk_continue mode)
ili9341_bulk_finish();
// STOP_PROFILE
}
void
draw_all(bool flush)
{
#ifdef __LEVEL_METER__
level_text[0] = 0; // Clear level text
#endif
if (redraw_request & REDRAW_AREA) // this set all area for update
force_set_markmap();
else {
if (redraw_request & REDRAW_MARKER) // update marker area
markmap_upperarea();
if (redraw_request & REDRAW_TRIGGER) // update trigger area
markmap_trigger_area();
}
if (redraw_request & (REDRAW_CELLS | REDRAW_MARKER | REDRAW_AREA | REDRAW_TRIGGER)){
draw_all_cells(flush);
#ifdef __SCROLL__
// START_PROFILE
if (setting.waterfall)
update_waterfall();
// STOP_PROFILE
#endif
#ifdef __LEVEL_METER__
if (setting.level_meter) {
update_level_meter();
}
#endif
}
if (redraw_request & REDRAW_CAL_STATUS)
draw_cal_status(); // calculates the actual sweep time, must be before draw_frequencies
if (redraw_request & REDRAW_FREQUENCY)
draw_frequencies();
if (redraw_request & REDRAW_BATTERY)
draw_battery_status();
redraw_request = 0;
}
//
// Call this function then need fast draw marker and marker info
// Used in ui.c for leveler move marker, drag marker and etc.
void
redraw_marker(int marker)
{
if (marker < 0)
return;
// mark map on new position of marker
markmap_marker(marker);
// mark cells on marker info
markmap_upperarea();
draw_all_cells(TRUE);
// Force redraw all area after (disable artifacts after fast marker update area)
redraw_request|=REDRAW_AREA;
}
#if 0 // Not used
void
request_to_draw_cells_behind_menu(void)
{
// Values Hardcoded from ui.c
if (current_menu_is_form())
invalidate_rect(0, 0, LCD_WIDTH-1, LCD_HEIGHT-1);
else
invalidate_rect(LCD_WIDTH-MENU_BUTTON_WIDTH-OFFSETX, 0, LCD_WIDTH-OFFSETX, LCD_HEIGHT-1);
redraw_request |= REDRAW_CELLS;
}
void
request_to_draw_cells_behind_numeric_input(void)
{
// Values Hardcoded from ui.c
invalidate_rect(0, LCD_HEIGHT-NUM_INPUT_HEIGHT, LCD_WIDTH-1, LCD_HEIGHT-1);
redraw_request |= REDRAW_CELLS;
}
#endif
static void
cell_blit_bitmap(int x, int y, uint16_t w, uint16_t h, const uint8_t *bmp)
{
if (x <= -w)
return;
uint8_t bits = 0;
int c = h+y, r;
for (; y < c; y++) {
for (r = 0; r < w; r++, bits<<=1) {
if ((r&7)==0) bits = *bmp++;
if ((0x80 & bits) == 0) continue; // no pixel
if ((uint32_t)(y+0) >= CELLHEIGHT) continue; // y < 0 || y >= CELLHEIGHT
if ((uint32_t)(x+r) >= CELLWIDTH ) continue; // x+r < 0 || x+r >= CELLWIDTH
cell_buffer[y*CELLWIDTH + x + r] = foreground_color;
}
}
}
#ifndef wFONT_GET_DATA
static int
cell_drawchar_size(uint8_t ch, int x, int y, int size)
{
uint8_t bits;
int c, r, ch_size;
const uint8_t *char_buf = FONT_GET_DATA(ch);
ch_size = FONT_GET_WIDTH(ch);
// if (y <= -FONT_GET_HEIGHT || y >= CELLHEIGHT || x <= -ch_size || x >= CELLWIDTH)
// return ch_size;
if (x <= -ch_size*size)
return ch_size*size;
for (c = 0; c < FONT_GET_HEIGHT; c++) {
for (int i=0; i < size; i++) {
bits = *char_buf;
if ((y + c*size+i) < 0 || (y + c*size+i) >= CELLHEIGHT)
continue;
for (r = 0; r < ch_size; r++) {
for (int j = 0; j < size; j++) {
if ((x+r*size + j) >= 0 && (x+r*size+j) < CELLWIDTH && (0x80 & bits))
cell_buffer[(y+c*size+i)*CELLWIDTH + (x+r*size+j)] = foreground_color;
}
bits <<= 1;
}
}
char_buf++;
}
return ch_size*size;
}
#endif
typedef struct {
const void *vmt;
int16_t x;
int16_t y;
} screenPrintStream;
static msg_t cellPut(void *ip, uint8_t ch) {
screenPrintStream *ps = ip;
if (ps->x < CELLWIDTH){
uint16_t w = FONT_GET_WIDTH(ch);
cell_blit_bitmap(ps->x, ps->y, w, FONT_GET_HEIGHT, FONT_GET_DATA(ch));
ps->x+= w;
}
return MSG_OK;
}
static msg_t cellPut7x13(void *ip, uint8_t ch) {
screenPrintStream *ps = ip;
if (ps->x < CELLWIDTH){
uint16_t w = bFONT_GET_WIDTH(ch);
cell_blit_bitmap(ps->x, ps->y, w, bFONT_GET_HEIGHT, bFONT_GET_DATA(ch));
ps->x+= w;
}
return MSG_OK;
}
//#define ENABLE_WIDE_FONT_ON_CELL
#ifdef ENABLE_WIDE_FONT_ON_CELL
static msg_t cellPut10x14(void *ip, uint8_t ch) {
screenPrintStream *ps = ip;
if (ps->x < CELLWIDTH){
#ifdef wFONT_GET_DATA
uint16_t w = wFONT_GET_WIDTH(ch);
cell_blit_bitmap(ps->x, ps->y, w <=8 ? 9 : w, wFONT_GET_HEIGHT, wFONT_GET_DATA(ch));
#else
w = cell_drawchar_size( ch, ps->x, ps->y, 2);
#endif
ps->x+= w;
}
return MSG_OK;
}
#endif
// Simple print in buffer function
int cell_printf(int16_t x, int16_t y, const char *fmt, ...) {
// skip always if right
if (x>=CELLWIDTH) return 0;
// Init small cell print stream
struct cellprintStreamVMT {
_base_sequential_stream_methods
} cell_vmt = {NULL, NULL, NULL, NULL};
screenPrintStream ps = {&cell_vmt, x, y};
// Select font and skip print if not on cell (at top/bottom)
switch (*fmt++){
case _FONT_s:
if ((uint32_t)(y+FONT_GET_HEIGHT) >= CELLHEIGHT + FONT_GET_HEIGHT) return 0;
cell_vmt.put = cellPut;
break;
#ifdef ENABLE_WIDE_FONT_ON_CELL
case _FONT_w:
if ((uint32_t)(y+FONT_GET_HEIGHT) >= CELLHEIGHT + FONT_GET_HEIGHT) return 0;
cell_vmt.put = cellPut10x14;
break;
#endif
default:
fmt--;
__attribute__ ((fallthrough)); // prevent warning
case _FONT_b:
if ((uint32_t)(y+bFONT_GET_HEIGHT) >= CELLHEIGHT + bFONT_GET_HEIGHT) return 0;
cell_vmt.put = cellPut7x13;
break;
}
// Performing the print operation using the common code.
va_list ap;
va_start(ap, fmt);
int retval = chvprintf((BaseSequentialStream *)(void *)&ps, fmt, ap);
va_end(ap);
// Return number of bytes that would have been written.
return retval;
}
extern float temppeakLevel;
static void cell_grid_line_info(int x0, int y0)
{
int xpos = GRID_X_TEXT - x0;
int ypos = 0 - y0 + 2;
ili9341_set_foreground(LCD_GRID_VALUE_COLOR);
float ref = get_trace_refpos();
float scale = get_trace_scale();
for (int i = 0; i < NGRIDY; i++){
if (ypos >= CELLHEIGHT) break;
cell_printf(xpos, ypos, FONT_s"% 7.3F", ref);
ypos+=GRIDY;
ref-=scale;
}
}
static void trace_print_value_string( // Only used at one place
int xpos, int ypos,
bool bold,
int mi // Marker number
)
{
(void) bold;
int ref_marker=-1;
int mtype = markers[mi].mtype;
int idx = markers[mi].index;
float v = marker_to_value(mi);
char buf2[24];
char *ptr2 = buf2;
// Prepare marker type string
*ptr2++ = mi == active_marker ? S_SARROW[0] : ' ';
*ptr2++ = mi+'1';
// if (mtype & M_REFERENCE)
// *ptr2++ = 'R';
if (mtype & M_TRACKING)
*ptr2++ = 'T';
if (mtype & M_DELTA) {
*ptr2++ = S_DELTA[0];
*ptr2++ = markers[mi].ref+'1';
}
// if (mtype & M_NOISE)
// *ptr2++ = 'N';
*ptr2++ = ' ';
// Not possible ???
if (v == -INFINITY){
cell_printf(xpos, ypos, FONT_b"%s-INF", buf2);
return;
}
// Prepare output frequency and value
freq_t freq = markers[mi].frequency;
int unit_index = setting.unit;
// Setup delta values
if (mtype & M_DELTA) {
ref_marker = markers[mi].ref;
// *ptr2++ = S_DELTA[0];
unit_index+= MAX_UNIT_TYPE;
freq_t ref_freq = markers[ref_marker].frequency;
int ridx = markers[ref_marker].index;
if (ridx > idx) {freq = ref_freq - freq; idx = ridx - idx; *ptr2++ = '-';}
else {freq = freq - ref_freq; idx = idx - ridx; *ptr2++ = '+';}
v-= marker_to_value(ref_marker);
} else
freq += (setting.frequency_offset - FREQUENCY_SHIFT);
// For CW mode output time
if (FREQ_IS_CW()) {
plot_printf(ptr2, sizeof(buf2) - 9, "%.3Fs", idx*setting.actual_sweep_time_us/(float)((sweep_points - 1)*ONE_SECOND_TIME));
} else {
freq_t step = getFrequency(1)-getFrequency(0);
int digits = 1;
if (freq>1000000 && step != 0) {
while (step < 1000000 && digits<5) {
digits++;
step = step*10;
}
}
#ifdef TINYSA4
if (freq >= 1000000000)
digits += 3;
#endif
plot_printf(ptr2, sizeof(buf2) - 9, "%9.*QHz", digits, freq);
}
const char *format;
if (UNIT_IS_LINEAR(setting.unit))
format = FONT_s"%s %.3F%s%s%s"; // 5 characters incl u, m, etc...
else
format = FONT_s"%s %.1f%s%s%s";
#ifdef TINYSA4
format++; // Skip small prefix for bold output
#else
if (bold) format++; // Skip small prefix for bold output
#endif
cell_printf(xpos, ypos, format, buf2, v, unit_string[unit_index], (mtype & M_NOISE?"/Hz":""), (mtype & M_AVER?"/T":""));
#ifdef __LEVEL_METER__
if (level_text[0] == 0)
plot_printf(level_text, sizeof(level_text), &format[3], v, unit_string[unit_index], (mtype & M_NOISE?"/Hz":"") ,(mtype & M_AVER?"/T":""));
#endif
}
static void cell_draw_marker_info(int x0, int y0)
{
int t;
// int ref_marker = 0;
int j = 0;
// int count = 0;
int active=0;
for (int i = 0; i < MARKER_COUNT; i++) {
if (markers[i].enabled) {
// if (markers[i].mtype & M_REFERENCE) {
// ref_marker = i;
// }
active++;
}
}
#ifdef __CHANNEL_POWER__
if (setting.measurement==M_CP || setting.measurement==M_SNR) {
ili9341_set_foreground(LCD_FG_COLOR);
freq_t bw = get_sweep_frequency(ST_SPAN)/3;
for (int c=0; c<3;c++) {
int xpos = 10 + (c)*(WIDTH/3) + CELLOFFSETX - x0;
int ypos = 1 - y0;
cell_printf(xpos, ypos, FONT_b"%4.1fdBm/%3QHz", channel_power[c], bw);
ypos = 14 - y0;
if (setting.measurement==M_CP ) {
float v = 100.0 * channel_power_watt[c] /(channel_power_watt[0] + channel_power_watt[1] + channel_power_watt[2]);
cell_printf(xpos, ypos, FONT_b"%4.1f%%", v );
#ifdef __LEVEL_METER__
if (c == 1)
plot_printf(level_text, sizeof(level_text), "%4.1f%%", v);
#endif
}
else if (c == 1) {
float v = channel_power[1] - (channel_power[0] + channel_power[2])/2;
cell_printf(xpos, ypos, FONT_b"SNR: %4.1fdB", v);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%4.1f", v);
#endif
}
}
return;
}
#endif
if (setting.measurement == M_THD && active >= 1)
active = 2;
for (int i = 0; i < MARKER_COUNT; i++) {
if (i == 3) {
if (setting.measurement == M_PASS_BAND) {
freq_t f;
if (markers[2].frequency>markers[1].frequency)
f = markers[2].frequency-markers[1].frequency;
else
f = markers[1].frequency-markers[2].frequency;
j = 3;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_b"WIDTH: %8.3QHz", f);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%8.3Q", f);
#endif
// cell_drawstring(buf, xpos, ypos);
} else if (setting.measurement == M_AM){
#ifdef AM_IN_VOLT
int old_unit = setting.unit;
setting.unit = U_VOLT;
float level = (marker_to_value(1) + marker_to_value(2))/2 / marker_to_value(0);
setting.unit = old_unit;
int depth = (int)( level * 2.0 * 80.0) + 20;
#else
float delta = actual_t[markers[1].index] - actual_t[markers[2].index];
if (delta < -5 || delta > 5)
break;
float level = (actual_t[markers[1].index] + actual_t[markers[2].index])/2.0 - actual_t[markers[0].index];
if (level < -70 || level > 0)
break;
// int depth = powf(10.0, 2.0 + (level + 6.02)/20.0 ); //
// powf(10.0, level/20.0 + 6.02/20.0 + 2.0)
// powf(10.0, level /20.0 ) * powf(10.0, 6.02/20.0 + 2.0);
int depth = expf(level*(logf(10.0)/20.0)) * (powf(10.0, 6.02/20.0 + 2.0));
#endif
j = 3;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_b"DEPTH: %3d%%", depth);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%3d%%", depth);
#endif
} else if (setting.measurement == M_FM){
freq_t dev = markers[1].frequency + actual_rbw_x10*100.0; // Temp value to prevent calculation of negative deviation
if ( markers[2].frequency < dev)
break;
dev = ( markers[2].frequency - dev ) >> 1;
j = 3;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_b"DEVIATION:%6.1QHz", dev);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%6.1Q", dev);
#endif
#ifdef TINYSA4
#define THD_SHIFT 7
#else
#define THD_SHIFT 6
#endif
} else if (setting.measurement == M_THD && markers[0].enabled && (markers[0].index << THD_SHIFT) > sweep_points ) {
int old_unit = setting.unit;
setting.unit = U_WATT;
float p = marker_to_value(0);
int h_i = 2;
freq_t f = markers[0].frequency;
float h = 0.0;
int h_count = 0;
int search_gate = 10;
if (markers[0].index < search_gate)
search_gate = markers[0].index * 2 / 3;
freq_t stop = getFrequency(sweep_points-1);
while (f * h_i < stop) {
if (search_maximum(1, f*h_i, search_gate) ) { // use marker 1 for searching harmonics
h_count++;
f = (f * 3 + markers[1].frequency / h_i) >> 2;
h += marker_to_value(1);
}
h_i++;
}
float thd = 100.0 * sa_sqrtf(h/p);
setting.unit = old_unit;
ili9341_set_foreground(marker_color(0));
// j = 1;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_b"#%d THD: %4.1f%%", h_count, thd);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%4.1f%%", thd);
#endif
break;
}
#ifdef __NOISE_FIGURE__
} else if (i>=2 && (setting.measurement == M_NF_TINYSA || setting.measurement == M_NF_VALIDATE || setting.measurement == M_NF_AMPLIFIER) && markers[0].enabled) {
float aNP = 0;
aNP = marker_to_value(0);
measured_noise_figure = aNP + 173.93 - nf_gain; // measured noise figure at 20C
if (setting.measurement != M_NF_TINYSA) {
float mnf = expf(measured_noise_figure/10.0 * logf(10)); // measure noise factor
float tnf = expf(config.noise_figure/10.0 * logf(10.0)); // tinySA noise factor
float amp_gain = expf(nf_gain/10.0 * logf(10.0));
float anf = mnf - (tnf - 1.0)/amp_gain;
measured_noise_figure = 10.0*logf(anf)/logf(10.0);
}
// powf(10,x) = expf(x * logf(10))
// log10f(x) = logf(x)/logf(10)
ili9341_set_foreground(marker_color(0));
// j = 1;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
if (setting.measurement == M_NF_TINYSA) {
cell_printf(xpos, ypos, FONT_b"TINYSA NF: %4.1f", measured_noise_figure);
} else {
if (setting.measurement == M_NF_VALIDATE)
cell_printf(xpos, ypos, FONT_b"TINYSA NF ERROR: %4.1f", measured_noise_figure);
else
cell_printf(xpos, ypos, FONT_b"GAIN: %4.1fdB NF: %4.1f", nf_gain, measured_noise_figure);
}
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%4.1f", measured_noise_figure);
#endif
break;
#endif
} else
if (i >= 2 && setting.measurement == M_OIP3 && markers[2].enabled && markers[3].enabled) {
float il = marker_to_value(2);
float ir = marker_to_value(3);
float sl = marker_to_value(0);
float sr = marker_to_value(1);
float ip = sl+ (sr - il)/2;
j = 2;
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_s"OIP3: %4.1fdB", ip);
#ifdef __LEVEL_METER__
plot_printf(level_text, sizeof(level_text), "%4.1f", ip);
#endif
ip = sr+ (sl - ir)/2;
j = 3;
xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
ypos = 1 + (j/2)*(16) - y0;
cell_printf(xpos, ypos, FONT_s"OIP3: %4.1fdB", ip);
break;
}
#if 0
if (i >= 2 && in_selftest) {
j = 2;
int xpos = 1 + CELLOFFSETX +25 - x0;
int ypos = 1 + 16 - y0;
cell_printf(xpos, ypos, FONT_b"DO NOT SWITCH OFF!!");
break;
}
#endif
if (!markers[i].enabled)
continue;
for (t = TRACE_ACTUAL; t < TRACES_MAX; t++) { // Only show info on actual trace
if (IS_TRACE_DISABLE(t))
continue;
if (markers[i].trace != t) {
continue;
}
uint16_t color;
int level = temppeakLevel - get_attenuation() + setting.external_gain;
if ((!setting.normalized[t] && !setting.subtract[t]) && // Disabled when normalized or subtract
((setting.mode == M_LOW && level > -10)
|| (setting.mode == M_HIGH && level > -29)
|| (setting.mode == M_LOW && (markers[i].mtype & M_NOISE) && vbwSteps > 1)) //MAXPEAK increases noise marker, should reduce span.
)
color = LCD_BRIGHT_COLOR_RED;
else
color = marker_color(i);
ili9341_set_foreground(color);
ili9341_set_background(LCD_BG_COLOR);
#if 1
int xpos = 1 + (j%2)*(WIDTH/2) + CELLOFFSETX - x0;
int ypos = 1 + (j/2)*(16) - y0;
#else
int xpos = 1 + CELLOFFSETX - x0;
int ypos = 1 + j*(FONT_GET_HEIGHT*2+1) - y0;
#endif
trace_print_value_string(xpos, ypos, active == 1, i);
j++;
}
}
}
void
draw_frequencies(void)
{
char buf1[40];
char buf2[32];
if (MODE_OUTPUT(setting.mode)) // No frequencies during output
return;
if (current_menu_is_form() && !in_selftest)
return;
char *shift = (setting.frequency_offset == FREQUENCY_SHIFT ? "" : "shifted");
if (FREQ_IS_CW()) {
plot_printf(buf1, sizeof(buf1), " CW %QHz", get_sweep_frequency(ST_CW) + (setting.frequency_offset - FREQUENCY_SHIFT));
// Show user actual select sweep time?
uint32_t t = setting.actual_sweep_time_us;
plot_printf(buf2, sizeof(buf2), " TIME %.3Fs", (float)t/ONE_SECOND_TIME);
} else if (FREQ_IS_STARTSTOP()) {
plot_printf(buf1, sizeof(buf1), " START %.3QHz %5.1QHz/ %s", get_sweep_frequency(ST_START) + (setting.frequency_offset - FREQUENCY_SHIFT), grid_span, shift);
plot_printf(buf2, sizeof(buf2), " STOP %.3QHz", get_sweep_frequency(ST_STOP) + (setting.frequency_offset - FREQUENCY_SHIFT));
} else if (FREQ_IS_CENTERSPAN()) {
plot_printf(buf1, sizeof(buf1), " CENTER %.3QHz %5.1QHz/ %s", get_sweep_frequency(ST_CENTER) + (setting.frequency_offset - FREQUENCY_SHIFT), grid_span, shift);
plot_printf(buf2, sizeof(buf2), " SPAN %.3QHz", get_sweep_frequency(ST_SPAN));
}
ili9341_set_foreground(LCD_FG_COLOR);
ili9341_set_background(LCD_BG_COLOR);
ili9341_fill(FREQUENCIES_XPOS1, FREQUENCIES_YPOS, LCD_WIDTH - FREQUENCIES_XPOS1, LCD_HEIGHT - FREQUENCIES_YPOS);
if (uistat.lever_mode == LM_CENTER)
buf1[0] = S_SARROW[0];
if (uistat.lever_mode == LM_SPAN)
buf2[0] = S_SARROW[0];
// int p2 = FREQUENCIES_XPOS2;
// if (FREQ_IS_CW()) {
int p2 = LCD_WIDTH - FONT_WIDTH*strlen(buf2);
// }
ili9341_drawstring(buf2, p2, FREQUENCIES_YPOS);
ili9341_drawstring(buf1, FREQUENCIES_XPOS1, FREQUENCIES_YPOS);
#ifdef TINYSA4
if (get_sweep_frequency(ST_STOP) > 2000000000ULL && setting.attenuate_x2 >= 16 ) {
ili9341_set_foreground(LCD_BRIGHT_COLOR_RED);
ili9341_drawstring("REDUCED LINEARITY", p2 - 18*7, FREQUENCIES_YPOS);
}
#endif
}
// Draw battery level
#define BATTERY_TOP_LEVEL 4200
#define BATTERY_BOTTOM_LEVEL 3300
#define BATTERY_WARNING_LEVEL 3300
#define BATTERY_MID_LEVEL 3900
static void draw_battery_status(void)
{
#ifdef __USE_SD_CARD__
static const uint8_t sd_icon [] = {
_BMP16(0b1111111111111000), //
_BMP16(0b1000000000001000), // 1
_BMP16(0b1000000000001000), // 2
_BMP16(0b1000000000001000), // 3
_BMP16(0b1001100111001000), // 4
_BMP16(0b1010010100101000), // 5
_BMP16(0b1001000100101000), // 6
_BMP16(0b1000100100101000), // 7
_BMP16(0b1010010100101000), // 8
_BMP16(0b1001100111001000), // 9
_BMP16(0b0100000000001000), //10
_BMP16(0b0100000000001000), //11
_BMP16(0b1100000000001000), //12
_BMP16(0b1000000000001000), //13
_BMP16(0b0101010101011000), //14
_BMP16(0b0111111111111000) //
};
if (SD_Inserted()){
ili9341_set_foreground(LCD_BRIGHT_COLOR_GREEN);
ili9341_blitBitmap(4, SD_CARD_START, 16, 16, sd_icon);
// ili9341_drawstring("-SD-", x, SD_CARD_START);
}
else{
ili9341_set_background(LCD_BG_COLOR);
ili9341_fill(4, SD_CARD_START, 16, 16);
}
#endif
int16_t vbat = adc_vbat_read();
if (vbat <= 0)
return;
uint8_t string_buf[24];
// Set battery color
ili9341_set_foreground(vbat < BATTERY_WARNING_LEVEL ? LCD_LOW_BAT_COLOR : (vbat < BATTERY_MID_LEVEL ? LCD_TRACE_1_COLOR : LCD_NORMAL_BAT_COLOR));
ili9341_set_background(LCD_BG_COLOR);
// Prepare battery bitmap image
// Battery top
int x = 0;
string_buf[x++] = 0b00000000;
string_buf[x++] = 0b00111100;
string_buf[x++] = 0b00111100;
string_buf[x++] = 0b11111111;
// Fill battery status
for (int power=BATTERY_TOP_LEVEL; power > BATTERY_BOTTOM_LEVEL; ){
if ((x&3) == 0) {string_buf[x++] = 0b10000001; continue;}
string_buf[x++] = (power > vbat) ? 0b10000001 : // Empty line
0b10111101; // Full line
power-=100;
}
// Battery bottom
string_buf[x++] = 0b10000001;
string_buf[x++] = 0b11111111;
// Draw battery
ili9341_blitBitmap(7, BATTERY_START, 8, x, string_buf);
plot_printf((char*)string_buf, sizeof string_buf, "%.2fv", vbat/1000.0);
ili9341_drawstring((char*)string_buf, 1, BATTERY_START+x+3);
}
void
request_to_redraw_grid(void)
{
redraw_request |= REDRAW_AREA;
}
void
redraw_frame(void)
{
ili9341_set_background(LCD_BG_COLOR);
ili9341_clear_screen();
draw_frequencies();
draw_cal_status();
}
int display_test_pattern(pixel_t p)
{
// write and read display, return false on fail.
for (int h = 0; h < LCD_HEIGHT; h++) {
// write test pattern to LCD
for (int w = 0; w < LCD_WIDTH; w++)
spi_buffer[w] = p;
ili9341_bulk(0, h, LCD_WIDTH, 1);
// Cleanup buffer
memset(spi_buffer, 0, LCD_WIDTH * sizeof(pixel_t));
// try read data
ili9341_read_memory(0, h, LCD_WIDTH, 1, spi_buffer);
// Check pattern from data for (volatile int w = 0; w < LCD_WIDTH; w++)
for (int w = 0; w < LCD_WIDTH; w++)
if (spi_buffer[w] != p)
return false;
}
return true;
}
int display_test(void)
{
#if 0
if (!display_test_pattern(RGB565(0,0,0)))
return false;
if (!display_test_pattern(RGB565(255,255,255)))
return false;
if (!display_test_pattern(RGB565(255,0,0)))
return false;
if (!display_test_pattern(RGB565(0,255,0)))
return false;
if (!display_test_pattern(RGB565(0,0,255)))
return false;
if (!display_test_pattern(0xd200))
return false;
#endif
for (int h = 0; h < LCD_HEIGHT; h++) {
// write test pattern to LCD
for (int w = 0; w < LCD_WIDTH; w++)
spi_buffer[w] = h*w; //(h<<8)+w;
ili9341_bulk(0, h, LCD_WIDTH, 1);
// Cleanup buffer
memset(spi_buffer, 0, LCD_WIDTH * sizeof(pixel_t));
// try read data
ili9341_read_memory(0, h, LCD_WIDTH, 1, spi_buffer);
// Check pattern from data
for (volatile int w = 0; w < LCD_WIDTH; w++)
if (spi_buffer[w] != (pixel_t) (h*w) )// ((h<<8)+w)) // WARNING: Comparison fails without typecast of (w*h) to pixel_t
return false;
}
return true;
}
#define _USE_WATERFALL_PALETTE
#ifdef _USE_WATERFALL_PALETTE
#include "waterfall.c"
#endif
static void update_waterfall(void){
int i;
int w_width = area_width < WIDTH ? area_width : WIDTH;
// START_PROFILE;
for (i = CHART_BOTTOM-1; i >=graph_bottom+1; i--) { // Scroll down
ili9341_read_memory(OFFSETX, i, w_width, 1, spi_buffer);
ili9341_bulk(OFFSETX, i+1, w_width, 1);
}
index_y_t *index = NULL;
for (int t=0;t<TRACES_MAX;t++) { // Find trace with active measurement
if (IS_TRACE_ENABLE(t) && setting.average[t] == AV_OFF) {
index = trace_index_y[t];
break;
}
}
if (index == NULL)
return;
int j = 0;
for (i=0; i< sweep_points; i++) { // Add new topline
uint16_t color;
#ifdef _USE_WATERFALL_PALETTE
uint16_t y = _PALETTE_ALIGN(256 - graph_bottom + index[i]); // should be always in range 0 - graph_bottom
// y = (uint8_t)i; // for test
color = waterfall_palette[y];
#elif 1
uint16_t y = index[i]; // should be always in range 0 - graph_bottom
uint16_t ratio = (graph_bottom - y)*4;
// ratio = (i*2); // Uncomment for testing the waterfall colors
int16_t b = 255 - ratio;
if (b > 255) b = 255;
if (b < 0) b = 0;
int16_t r = ratio - 255;
if (r > 255) r = 255;
if (r < 0) r = 0;
int16_t g = 255 - b - r;
#define gamma_correct(X) X = (X < 64 ? X * 2 : X < 128 ? 128 + (X-64) : X < 192 ? 192 + (X - 128)/2 : 225 + (X - 192) / 4)
gamma_correct(r);
gamma_correct(g);
gamma_correct(b);
color = RGB565(r, g, b);
#else
uint16_t y = SMALL_WATERFALL - index[i]* (graph_bottom == BIG_WATERFALL ? 2 : 1); // should be always in range 0 - graph_bottom *2 depends on height of scroll
// Calculate gradient palette for range 0 .. 192
// idx r g b
// 0 - 127 0 0
// 32 - 255 127 0
// 64 - 255 255 127
// 96 - 255 255 255
// 128 - 127 255 255
// 160 - 0 127 255
// 192 - 0 0 127
// 224 - 0 0 0
// y = (uint8_t)i; // for test
if (y < 32) color = RGB565( 127+((y- 0)*4), 0+((y- 0)*4), 0);
else if (y < 64) color = RGB565( 255, 127+((y- 32)*4), 0+((y- 32)*4));
else if (y < 96) color = RGB565( 255, 255, 127+((y- 64)*4));
else if (y < 128) color = RGB565( 252-((y- 96)*4), 255, 255);
else if (y < 160) color = RGB565( 124-((y-128)*4), 252-((y-128)*4), 255);
else color = RGB565( 0, 124-((y-160)*4), 252-((y-160)*4));
#endif
while (j * sweep_points < (i+1) * WIDTH) { // Scale waterfall to WIDTH points
spi_buffer[j++] = color;
}
}
ili9341_bulk(OFFSETX, graph_bottom+1, w_width, 1);
// STOP_PROFILE;
}
//extern float peakLevel;
//extern float min_level;
//int w_max = -130;
//int w_min = 0;
void
set_waterfall(void)
{
if (setting.waterfall == W_SMALL) graph_bottom = SMALL_WATERFALL;
else if (setting.waterfall == W_BIG) graph_bottom = BIG_WATERFALL;
else /*if (setting.waterfall == W_OFF)*/graph_bottom = NO_WATERFALL;
_grid_y = graph_bottom / NGRIDY;
area_height = AREA_HEIGHT_NORMAL;
if (setting.waterfall != W_OFF){
ili9341_set_background(LCD_BG_COLOR);
ili9341_fill(OFFSETX, graph_bottom, LCD_WIDTH - OFFSETX, CHART_BOTTOM - graph_bottom);
}
request_to_redraw_grid();
}
void
disable_waterfall(void)
{
setting.waterfall = W_OFF;
set_waterfall();
}
#ifdef __LEVEL_METER__
static void update_level_meter(void){
if (level_text[0] == 0)
return;
ili9341_set_background(LCD_BG_COLOR);
// const int minimum_text_width = 6*5*7;
// level_text[6] = 0;
// if (area_width-minimum_text_width > 0)
// ili9341_fill(OFFSETX+minimum_text_width, graph_bottom+1, area_width-minimum_text_width, CHART_BOTTOM - graph_bottom);
ili9341_set_foreground(LCD_FG_COLOR);
int x_max = area_width+OFFSETX;
#ifdef TINYSA4
#define BIG_SIZE 5
#else
#define BIG_SIZE 3
#endif
int w = ili9341_drawstring_size(level_text,OFFSETX, graph_bottom+1,BIG_SIZE, x_max); // TODO Size 4 does not transfer to remote desktop??????
ili9341_fill(OFFSETX, graph_bottom+BIG_SIZE*11+1, x_max - OFFSETX, CHART_BOTTOM - (graph_bottom+BIG_SIZE*11+1) + 1);
if (w < x_max)
ili9341_fill(w, graph_bottom+1, x_max - w, CHART_BOTTOM - graph_bottom+1);
}
void
set_level_meter(void)
{
if (setting.level_meter) graph_bottom = SMALL_WATERFALL;
// else if (setting.level_meter == W_BIG) graph_bottom = BIG_WATERFALL;
else /*if (setting.level_meter == W_OFF)*/graph_bottom = NO_WATERFALL;
_grid_y = graph_bottom / NGRIDY;
area_height = AREA_HEIGHT_NORMAL;
if (setting.level_meter){
ili9341_set_background(LCD_BG_COLOR);
ili9341_fill(OFFSETX, graph_bottom, LCD_WIDTH - OFFSETX, CHART_BOTTOM - graph_bottom);
}
request_to_redraw_grid();
}
void
disable_level_meter(void)
{
setting.level_meter = false;
set_level_meter();
}
#endif
void
plot_init(void)
{
redraw_request|= REDRAW_AREA | REDRAW_BATTERY | REDRAW_CAL_STATUS | REDRAW_FREQUENCY;
draw_all(true);
}
#pragma GCC pop_options
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