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This is a mini project of where I draw an Analog Clock on 1Sheeld's Graphical LCD using its new GLCD shield. This clock also updates time and moves the "hours, minutes, and seconds" hands according to the actual time on your smartphone using 1Sheeld's Clock shield.
#define CUSTOM_SETTINGS
#define INCLUDE_GLCD_SHIELD
#define INCLUDE_TERMINAL_SHIELD
#define INCLUDE_CLOCK_SHIELD
#define PI 3.14159
#include <OneSheeld.h>
GLCDTextBox number12(95,25,"12");
GLCDTextBox number3(140,64,"3");
GLCDTextBox number6(98,110,"6");
GLCDTextBox number9(55,64,"9");
class MyPoint
{
public:
int x;
int y;
MyPoint(int New_x=0,int New_y=0)
{
x=New_x;
y=New_y;
}
};
class AnalogClock
{
public:
//Main Parameters of the Clock
////Location Parametes
MyPoint Centre;
int Radius;
////Time Parameters
int Hours;
int Minutes;
int Seconds;
//Hand Location Arrays
////Hours Array
////Save points of Hours Hand
MyPoint Hours_Array[12];
////Minutes Array
////Save points of Minutes Hand
MyPoint Minutes_Array[60];
////Minutes Array
////Save points of Minutes Hand
MyPoint Seconds_Array[60];
//Hand Shape Objects
////Hours Hand
GLCDLine *Hours_Hand;
////Minutes Hand
GLCDLine *Minutes_Hand;
////Seconds Hand
GLCDLine *Seconds_Hand;
////Clock Frame
GLCDEllipse *Clock_Frame;
//Utility Functions
////Points Arrays Generation
void Generate_Points_Arrays()
{
//Hands Lengths
int Hours_Hand_Length = 0.3*Radius;
int Minutes_Hand_Length = 0.5*Radius;
int Seconds_Hand_Length = 0.7*Radius;
//Hours
//Top Left Quadrant - Points 0->3
for (int i = 0,Theta = 0; i < 4; i++)
{
MyPoint Temp;
Temp.x = Centre.x + Hours_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Hours_Hand_Length*cos(Theta/180.0*PI);
Hours_Array[i] = Temp;
Theta += 90 / 3;
}
//Bottom Left Quadrant - Points 4->6
for (int i = 6, Theta = 0; i >= 4; i--)
{
MyPoint Temp;
Temp.x = Centre.x + Hours_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Hours_Hand_Length*cos(Theta/180.0*PI);
Hours_Array[i] = Temp;
Theta += 90 / 3;
}
//Bottom Right Quadrant - Points 7->9
for (int i = 7, Theta = 30; i < 10; i++)
{
MyPoint Temp;
Temp.x = Centre.x - Hours_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Hours_Hand_Length*cos(Theta/180.0*PI);
Hours_Array[i] = Temp;
Theta += 90 / 3;
}
//Top Right Quadrant - Points 10->11
for (int i = 11, Theta = 30; i >= 10; i--)
{
MyPoint Temp;
Temp.x = Centre.x - Hours_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Hours_Hand_Length*cos(Theta/180.0*PI);
Hours_Array[i] = Temp;
Theta += 90 / 3;
}
//Minutes
//Top Left Quadrant - Points 0->15
for (int i = 0,Theta = 0; i < 16; i++)
{
MyPoint Temp;
Temp.x = Centre.x + Minutes_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Minutes_Hand_Length*cos(Theta/180.0*PI);
Minutes_Array[i] = Temp;
Temp.x = Centre.x + Seconds_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Seconds_Hand_Length*cos(Theta/180.0*PI);
Seconds_Array[i] = Temp;
Theta += 90 / 15;
}
//Bottom Left Quadrant - Points 16->30
for (int i = 30, Theta = 0; i >= 16; i--)
{
MyPoint Temp;
Temp.x = Centre.x + Minutes_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Minutes_Hand_Length*cos(Theta/180.0*PI);
Minutes_Array[i] = Temp;
Temp.x = Centre.x + Seconds_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Seconds_Hand_Length*cos(Theta/180.0*PI);
Seconds_Array[i] = Temp;
Theta += 90 / 15;
}
//Bottom Right Quadrant - Points 31->45
for (int i = 31, Theta = 90/15; i < 46; i++)
{
MyPoint Temp;
Temp.x = Centre.x - Minutes_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Minutes_Hand_Length*cos(Theta/180.0*PI);
Minutes_Array[i] = Temp;
Temp.x = Centre.x - Seconds_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y + Seconds_Hand_Length*cos(Theta/180.0*PI);
Seconds_Array[i] = Temp;
Theta += 90 / 15;
}
//Top Right Quadrant - Points 46->59
for (int i = 59, Theta = 90/15; i >= 46; i--)
{
MyPoint Temp;
Temp.x = Centre.x - Minutes_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Minutes_Hand_Length*cos(Theta/180.0*PI);
Minutes_Array[i] = Temp;
Temp.x = Centre.x - Seconds_Hand_Length*sin(Theta/180.0*PI);
Temp.y = Centre.y - Seconds_Hand_Length*cos(Theta/180.0*PI);
Seconds_Array[i] = Temp;
Theta += 90 / 15;
}
}
public:
void SetTime(int New_Hours, int New_Minutes, int New_Seconds)
{
Hours = New_Hours%12;
Minutes = New_Minutes;
Seconds = New_Seconds;
Seconds_Hand->setCoordinates(Centre.x, Centre.y, Seconds_Array[Seconds].x, Seconds_Array[Seconds].y);
Minutes_Hand->setCoordinates(Centre.x, Centre.y, Minutes_Array[Minutes].x, Minutes_Array[Minutes].y);
Hours_Hand->setCoordinates(Centre.x, Centre.y, Hours_Array[Hours].x, Hours_Array[Hours].y);
}
AnalogClock(MyPoint New_Centre, int New_Radius, int New_Hours, int New_Minutes, int New_Seconds)
{
//Update Main Location Paramaters
Centre = New_Centre;
Radius = New_Radius;
//Update Time Parameters
Hours = New_Hours%12;
Minutes = New_Minutes;
Seconds = New_Seconds;
//Generare Hands Points
Generate_Points_Arrays();
//Create Shapes
////Clock Frame
Clock_Frame = new GLCDEllipse(Centre.x, Centre.y, Radius, Radius);
////Hours Hand
Hours_Hand = new GLCDLine(Centre.x, Centre.y, Hours_Array[Hours].x, Hours_Array[Hours].y);
Minutes_Hand = new GLCDLine(Centre.x, Centre.y, Minutes_Array[Minutes].x, Minutes_Array[Minutes].y);
Seconds_Hand = new GLCDLine(Centre.x, Centre.y, Seconds_Array[Seconds].x, Seconds_Array[Seconds].y);
}
void Begin()
{
GLCD.draw(*Clock_Frame);
GLCD.draw(*Hours_Hand);
GLCD.draw(*Minutes_Hand);
GLCD.draw(*Seconds_Hand);
GLCD.draw(number12);
GLCD.draw(number3);
GLCD.draw(number6);
GLCD.draw(number9);
}
};
MyPoint ClockCentre(100,70);
AnalogClock Clock1(ClockCentre,50,0,0,0);
void setup() {
// put your setup code here, to run once:
OneSheeld.begin();
GLCD.clear();
Clock.queryDateAndTime();
Clock1.Begin();
}
void loop() {
// put your main code here, to run repeatedly:
Clock1.SetTime(Clock.getHours(),Clock.getMinutes(),Clock.getSeconds());
}
Ahmed El-Hinidy
2 projects • 31 followers
Computer Engineer. Embedded Systems and Web Development enthusiast !
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