/////////////////////////////////////////////////////////////////////////////////// // Copyright (C) 2018 F4HKW // // for F4EXB / SDRAngel // // using LeanSDR Framework (C) 2016 F4DAV // // // // 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 as version 3 of the License, or // // // // 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 V3 for more details. // // // // You should have received a copy of the GNU General Public License // // along with this program. If not, see . // /////////////////////////////////////////////////////////////////////////////////// #ifndef DATVCONSTELLATION_H #define DATVCONSTELLATION_H #include #include "leansdr/framework.h" #include "gui/tvscreen.h" namespace leansdr { static const int DEFAULT_GUI_DECIMATION = 64; template struct datvconstellation: runnable { T xymin, xymax; unsigned long decimation; unsigned long pixels_per_frame; cstln_lut<256> **cstln; // Optional ptr to optional constellation TVScreen *m_objDATVScreen; pipereader > in; unsigned long phase; std::vector cstln_rows; std::vector cstln_cols; datvconstellation( scheduler *sch, pipebuf > &_in, T _xymin, T _xymax, const char *_name = nullptr, TVScreen *objDATVScreen = nullptr) : runnable(sch, _name ? _name : _in.name), xymin(_xymin), xymax(_xymax), decimation(DEFAULT_GUI_DECIMATION), pixels_per_frame(1024), cstln(0), m_objDATVScreen(objDATVScreen), in(_in), phase(0) { } void run() { //Symbols while (in.readable() >= pixels_per_frame) { if ((!phase) && m_objDATVScreen) { m_objDATVScreen->resetImage(); complex *p = in.rd(), *pend = p + pixels_per_frame; for (; p < pend; ++p) { m_objDATVScreen->selectRow(256 * (p->re - xymin) / (xymax - xymin)); m_objDATVScreen->setDataColor( 256 - 256 * ((p->im - xymin) / (xymax - xymin)), 255, 0, 255); } if (cstln && (*cstln)) { // Plot constellation points std::vector::const_iterator row_it = cstln_rows.begin(); std::vector::const_iterator col_it = cstln_cols.begin(); for (;(row_it != cstln_rows.end()) && (col_it != cstln_cols.end()); ++row_it, ++col_it) { m_objDATVScreen->selectRow(*row_it); m_objDATVScreen->setDataColor(*col_it, 250, 250, 5); } } m_objDATVScreen->renderImage(0); } in.read(pixels_per_frame); if (++phase >= decimation) { phase = 0; } } } void draw_begin() { } void calculate_cstln_points() { if (!(*cstln)) { return; } cstln_rows.clear(); cstln_cols.clear(); for (int i = 0; i < (*cstln)->nsymbols; ++i) { complex *p = &(*cstln)->symbols[i]; int x = 256 * (p->re - xymin) / (xymax - xymin); int y = 256 - 256 * (p->im - xymin) / (xymax - xymin); for (int d = -4; d <= 4; ++d) { cstln_rows.push_back(x + d); cstln_cols.push_back(y); cstln_rows.push_back(x); cstln_cols.push_back(y + d); } } } }; } // leansdr #endif // DATVCONSTELLATION_H