459 lines
No EOL
12 KiB
C++
459 lines
No EOL
12 KiB
C++
#include <iostream>
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#include <string>
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#include <list>
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struct VirtualCoords
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{
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int16_t x;
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int16_t y;
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int16_t virt_row; // chain of panels row
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int16_t virt_col; // chain of panels col
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VirtualCoords() : x(0), y(0)
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{
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}
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};
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enum PANEL_SCAN_RATE
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{
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NORMAL_TWO_SCAN, NORMAL_ONE_SIXTEEN, // treated as the same
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FOUR_SCAN_32PX_HIGH,
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FOUR_SCAN_16PX_HIGH
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};
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// Chaining approach... From the perspective of the DISPLAY / LED side of the chain of panels.
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enum PANEL_CHAIN_TYPE
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{
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CHAIN_TOP_LEFT_DOWN,
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CHAIN_TOP_RIGHT_DOWN,
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CHAIN_BOTTOM_LEFT_UP,
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CHAIN_BOTTOM_RIGHT_UP,
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CHAIN_TOP_RIGHT_DOWN_ZZ, /// ZigZag chaining. Might need a big ass cable to do this, all panels right way up.
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CHAIN_BOTTOM_RIGHT_UP_ZZ
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};
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class VirtualMatrixPanelTest
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{
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public:
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VirtualMatrixPanelTest(int _vmodule_rows, int _vmodule_cols, int _panelResX, int _panelResY, PANEL_CHAIN_TYPE _panel_chain_type = CHAIN_TOP_RIGHT_DOWN)
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{
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panelResX = _panelResX;
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panelResY = _panelResY;
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vmodule_rows = _vmodule_rows;
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vmodule_cols = _vmodule_cols;
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virtualResX = vmodule_cols * _panelResX;
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virtualResY = vmodule_rows * _panelResY;
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dmaResX = panelResX * vmodule_rows * vmodule_cols;
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panel_chain_type = _panel_chain_type;
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/* Virtual Display width() and height() will return a real-world value. For example:
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* Virtual Display width: 128
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* Virtual Display height: 64
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*
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* So, not values that at 0 to X-1
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*/
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coords.x = coords.y = -1; // By default use an invalid co-ordinates that will be rejected by updateMatrixDMABuffer
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switch (panel_chain_type) {
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case CHAIN_TOP_LEFT_DOWN:
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chain_type_str = "CHAIN_TOP_LEFT_DOWN";
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break;
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case CHAIN_TOP_RIGHT_DOWN:
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chain_type_str = "CHAIN_TOP_RIGHT_DOWN";
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break;
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case CHAIN_TOP_RIGHT_DOWN_ZZ:
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chain_type_str = "CHAIN_TOP_RIGHT_DOWN_ZZ";
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break;
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case CHAIN_BOTTOM_RIGHT_UP:
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chain_type_str = "CHAIN_BOTTOM_RIGHT_UP";
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break;
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case CHAIN_BOTTOM_LEFT_UP:
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chain_type_str = "CHAIN_BOTTOM_LEFT_UP";
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break;
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default:
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chain_type_str = "WTF!";
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break;
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}
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std::cout << "\n\n***************************************************************************\n";
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std::cout << "Chain type: " << chain_type_str << " ";
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std::printf("Testing chain of panels of %d rows, %d columns, %d px by %d px resolution. \n\n", vmodule_rows, vmodule_cols, panelResX, panelResX, panelResY);
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}
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// equivalent methods of the matrix library so it can be just swapped out.
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void drawPixel(int16_t x, int16_t y, int16_t expected_x, int16_t expected_y);
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std::string chain_type_str = "UNKNOWN";
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// Internal co-ord conversion function
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VirtualCoords getCoords_Dev(int16_t x, int16_t y);
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VirtualCoords getCoords_WorkingBaslineMarch2023(int16_t x, int16_t y);
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VirtualCoords coords;
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private:
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int16_t virtualResX;
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int16_t virtualResY;
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int16_t vmodule_rows;
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int16_t vmodule_cols;
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int16_t panelResX;
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int16_t panelResY;
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int16_t dmaResX; // The width of the chain in pixels (as the DMA engine sees it)
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PANEL_CHAIN_TYPE panel_chain_type;
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PANEL_SCAN_RATE panel_scan_rate = NORMAL_TWO_SCAN;
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bool _rotate = false;
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}; // end Class header
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#include "baseline.hpp"
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/**
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* Development version for testing.
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*/
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inline VirtualCoords VirtualMatrixPanelTest::getCoords_Dev(int16_t virt_x, int16_t virt_y)
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{
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coords.x = coords.y = -1; // By defalt use an invalid co-ordinates that will be rejected by updateMatrixDMABuffer
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if (virt_x < 0 || virt_x >= virtualResX || virt_y < 0 || virt_y >= virtualResY)
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{ // Co-ordinates go from 0 to X-1 remember! otherwise they are out of range!
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return coords;
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}
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// Do we want to rotate?
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if (_rotate)
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{
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int16_t temp_x = virt_x;
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virt_x = virt_y;
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virt_y = virtualResY - 1 - temp_x;
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}
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int row = (virt_y / panelResY); // 0 indexed
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switch(panel_chain_type)
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{
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case (CHAIN_TOP_RIGHT_DOWN):
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{
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if ( (row % 2) == 1 )
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{ // upside down panel
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//Serial.printf("Condition 1, row %d ", row);
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// refersed for the row
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coords.x = dmaResX - virt_x - (row*virtualResX);
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// y co-ord inverted within the panel
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coords.y = panelResY - 1 - (virt_y % panelResY);
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}
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else
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{
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//Serial.printf("Condition 2, row %d ", row);
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coords.x = ((vmodule_rows - (row+1))*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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}
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break;
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case (CHAIN_TOP_LEFT_DOWN): // OK -> modulus opposite of CHAIN_TOP_RIGHT_DOWN
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{
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if ( (row % 2) == 0 )
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{ // refersed panel
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//Serial.printf("Condition 1, row %d ", row);
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coords.x = dmaResX - virt_x - (row*virtualResX);
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// y co-ord inverted within the panel
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coords.y = panelResY - 1 - (virt_y % panelResY);
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}
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else
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{
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//Serial.printf("Condition 2, row %d ", row);
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coords.x = ((vmodule_rows - (row+1))*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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}
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break;
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case (CHAIN_BOTTOM_LEFT_UP): //
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{
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row = vmodule_rows - row - 1;
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if ( (row % 2) == 1 )
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{
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// Serial.printf("Condition 1, row %d ", row);
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coords.x = ((vmodule_rows - (row+1))*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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else
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{ // inverted panel
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// Serial.printf("Condition 2, row %d ", row);
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coords.x = dmaResX - (row*virtualResX) - virt_x;
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coords.y = panelResY - 1 - (virt_y % panelResY);
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}
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}
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break;
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case (CHAIN_BOTTOM_RIGHT_UP): // OK -> modulus opposite of CHAIN_BOTTOM_LEFT_UP
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{
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row = vmodule_rows - row - 1;
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if ( (row % 2) == 0 )
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{ // right side up
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// Serial.printf("Condition 1, row %d ", row);
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// refersed for the row
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coords.x = ((vmodule_rows - (row+1))*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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else
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{ // inverted panel
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// Serial.printf("Condition 2, row %d ", row);
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coords.x = dmaResX - (row*virtualResX) - virt_x;
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coords.y = panelResY - 1 - (virt_y % panelResY);
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}
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}
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break;
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case CHAIN_TOP_RIGHT_DOWN_ZZ:
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{
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// Right side up. Starting from top left all the way down.
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// Connected in a Zig Zag manner = some long ass cables being used potentially
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//Serial.printf("Condition 2, row %d ", row);
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coords.x = ((vmodule_rows - (row+1))*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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case CHAIN_BOTTOM_RIGHT_UP_ZZ:
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{
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// Right side up. Starting from top left all the way down.
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// Connected in a Zig Zag manner = some long ass cables being used potentially
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//Serial.printf("Condition 2, row %d ", row);
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coords.x = (row*virtualResX)+virt_x;
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coords.y = virt_y % panelResY;
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}
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default:
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return coords;
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break;
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} // end switch
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/* START: Pixel remapping AGAIN to convert TWO parallel scanline output that the
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* the underlying hardware library is designed for (because
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* there's only 2 x RGB pins... and convert this to 1/4 or something
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*/
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if (panel_scan_rate == FOUR_SCAN_32PX_HIGH)
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{
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/* Convert Real World 'VirtualMatrixPanel' co-ordinates (i.e. Real World pixel you're looking at
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on the panel or chain of panels, per the chaining configuration) to a 1/8 panels
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double 'stretched' and 'squished' coordinates which is what needs to be sent from the
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DMA buffer.
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Note: Look at the FourScanPanel example code and you'll see that the DMA buffer is setup
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as if the panel is 2 * W and 0.5 * H !
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*/
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if ((virt_y & 8) == 0)
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{
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coords.x += ((coords.x / panelResX) + 1) * panelResX; // 1st, 3rd 'block' of 8 rows of pixels, offset by panel width in DMA buffer
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}
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else
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{
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coords.x += (coords.x / panelResX) * panelResX; // 2nd, 4th 'block' of 8 rows of pixels, offset by panel width in DMA buffer
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}
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// http://cpp.sh/4ak5u
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// Real number of DMA y rows is half reality
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// coords.y = (y / 16)*8 + (y & 0b00000111);
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coords.y = (virt_y >> 4) * 8 + (virt_y & 0b00000111);
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}
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else if (panel_scan_rate == FOUR_SCAN_16PX_HIGH)
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{
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if ((virt_y & 8) == 0)
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{
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coords.x += (panelResX >> 2) * (((coords.x & 0xFFF0) >> 4) + 1); // 1st, 3rd 'block' of 8 rows of pixels, offset by panel width in DMA buffer
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}
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else
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{
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coords.x += (panelResX >> 2) * (((coords.x & 0xFFF0) >> 4)); // 2nd, 4th 'block' of 8 rows of pixels, offset by panel width in DMA buffer
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}
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if (virt_y < 32)
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coords.y = (virt_y >> 4) * 8 + (virt_y & 0b00000111);
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else
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{
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coords.y = ((virt_y - 32) >> 4) * 8 + (virt_y & 0b00000111);
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coords.x += 256;
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}
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}
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return coords;
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}
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bool check(VirtualCoords expected, VirtualCoords result, int x = -1, int y = -1)
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{
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if ( result.x != expected.x || result.y != expected.y )
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{
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std::printf("Requested (%d, %d) -> expecting physical (%d, %d) got (%d, %d).", x, y, expected.x, expected.y, result.x, result.y);
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std::cout << "\t *** FAIL ***\n ";
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std::cout << "\n";
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return false;
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}
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else
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{
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return true;
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}
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}
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main(int argc, char* argv[])
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{
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std::cout << "Starting Testing...\n";
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std::list <PANEL_CHAIN_TYPE> chain_t_test_list { CHAIN_TOP_LEFT_DOWN, CHAIN_TOP_RIGHT_DOWN, CHAIN_BOTTOM_LEFT_UP, CHAIN_BOTTOM_RIGHT_UP };
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// Draw pixel at virtual position 70x, 70y =
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// x, y x, y
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// x == horizontal
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// y = vert :-)
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// 192 x 192 pixel virtual display
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int rows = 3;
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int cols = 3;
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int panel_width_x = 64;
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int panel_height_y = 64;
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std::string panel_scan_type = "NORMAL_TWO_SCAN";
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for (auto chain_t : chain_t_test_list) {
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VirtualMatrixPanelTest test = VirtualMatrixPanelTest(rows,cols,panel_width_x,panel_height_y, chain_t);
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int pass_counter = 0;
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int fail_counter = 0;
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for (int16_t x = 0; x < panel_width_x*cols; x++)
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{
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for (int16_t y = 0; y < panel_height_y*rows; y++)
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{
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VirtualCoords expected = test.getCoords_WorkingBaslineMarch2023(x,y);
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VirtualCoords result = test.getCoords_Dev(x,y);
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bool chk_result = check(expected, result, x, y);
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if ( chk_result )
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{
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fail_counter++;
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}
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else
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{
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pass_counter++;
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}
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}
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}
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if ( fail_counter > 0) {
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std::printf("ERROR: %d tests failed.\n", fail_counter);
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} else{
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std::printf("SUCCESS: %d coord tests passed.\n", pass_counter);
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}
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} // end chain type test list
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std::cout << "Performing NON-SERPENTINE (ZIG ZAG) TEST";
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rows = 3;
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cols = 1;
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panel_width_x = 64;
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panel_height_y = 64;
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VirtualMatrixPanelTest test = VirtualMatrixPanelTest(rows,cols,panel_width_x,panel_height_y, CHAIN_TOP_RIGHT_DOWN_ZZ);
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// CHAIN_TOP_RIGHT_DOWN_ZZ test 1
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// (x,y)
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VirtualCoords result = test.getCoords_Dev(0,0);
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VirtualCoords expected; expected.x = 64*2; expected.y = 0;
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std::printf("Expected physical (%d, %d) got (%d, %d).\n", expected.x, expected.y, result.x, result.y);
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// CHAIN_TOP_RIGHT_DOWN_ZZ test 2
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result = test.getCoords_Dev(10,64*3-1);
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expected.x = 10; expected.y = 63;
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std::printf("Expected physical (%d, %d) got (%d, %d).\n", expected.x, expected.y, result.x, result.y);
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// CHAIN_TOP_RIGHT_DOWN_ZZ test 3
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result = test.getCoords_Dev(16,64*2-1);
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expected.x = 80; expected.y = 63;
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std::printf("Expected physical (%d, %d) got (%d, %d).\n", expected.x, expected.y, result.x, result.y);
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// CHAIN_BOTTOM_RIGHT_UP_ZZ test 4
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result = test.getCoords_Dev(0,0);
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expected.x = 0; expected.y = 0;
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std::printf("Expected physical (%d, %d) got (%d, %d).\n", expected.x, expected.y, result.x, result.y);
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// CHAIN_BOTTOM_RIGHT_UP_ZZ test 4
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result = test.getCoords_Dev(63,64);
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expected.x = 64*2-1; expected.y = 0;
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std::printf("Expected physical (%d, %d) got (%d, %d).\n", expected.x, expected.y, result.x, result.y);
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std::cout << "\n\n";
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return 0;
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} |