#include <TVout.h>  // Include TVout library
// well this may be kinda lame plz dont judge this.
TVout TV;

int angle = 0;  // Initial angle for rotation
int propellerLength = 40;  // Length of the propeller blades
int propellerWidth = 10;   // Width of the propeller blades

void setup() {
  TV.begin(PAL, 120, 96);  // Set TV resolution
  TV.clear_screen();  // Clear the screen
}

void loop() {
  TV.clear_screen();  // Clear the screen on each frame

  // Calculate the start and end points of the first propeller blade (blade 1)
  int x1_1 = 60 + cos(radians(angle - 90)) * propellerLength;
  int y1_1 = 48 + sin(radians(angle - 90)) * propellerLength;

  int x2_1 = 60 + cos(radians(angle - 90 + propellerWidth)) * (propellerLength / 2);
  int y2_1 = 48 + sin(radians(angle - 90 + propellerWidth)) * (propellerLength / 2);

  // Draw the first propeller blade
  TV.draw_line(60, 48, x1_1, y1_1, WHITE);
  TV.draw_line(60, 48, x2_1, y2_1, WHITE);

  // Calculate the start and end points of the second propeller blade (blade 2)
  int x1_2 = 60 + cos(radians(angle + 90)) * propellerLength;
  int y1_2 = 48 + sin(radians(angle + 90)) * propellerLength;

  int x2_2 = 60 + cos(radians(angle + 90 + propellerWidth)) * (propellerLength / 2);  // Slight offset for blade width
  int y2_2 = 48 + sin(radians(angle + 90 + propellerWidth)) * (propellerLength / 2);

  // Draw the second propeller blade
  TV.draw_line(60, 48, x1_2, y1_2, WHITE);
  TV.draw_line(60, 48, x2_2, y2_2, WHITE);

  // Increase the angle to simulate rotation
  angle += 5;  // Adjust this for speed
  if (angle >= 360) angle = 0;  // Reset the angle after one full rotation

  delay(10);  // Adjust the delay to control rotation speed
}