Arduino Libraries

It seems that the timerone.h library from the arduino site does not work with the sanguino. I'm heading to New York for the week and will take the datasheets with me to see if I can figure out why. It may be something simple like the Library references the wrong pins, or the wrong control registers. Here is the current non-functioning attempt at code using an interupt to time the Pulse width instead of a delay function.

//this will be an attempt to change how the pwm is done, and use interupts with a higher speed



#include "TimerOne.h"

int freq = 0; //this is the counter that is counting up the bins
int freqmax = 1000; //this will be the amount the counter counts up before going to the next part of the array, by changing this we can alter the frequency
int sinarray [] = {0,0,87,0,0,87,3,0,85,0,0,88,7,0,83,0,0,90,10,0,81,0,0,91,14,0,79,0,0,93,17,0,77,0,0,94,21,0,74,0,0,95,24,0,72,0,0,96,28,0,69,0,0,97,31,0,67,0,0,98,34,0,64,0,0,98,37,0,62,0,0,99,41,0,59,0,0,99,44,0,56,0,0,100,47,0,53,0,0,100,50,0,50,0,0,100,53,0,47,0,0,100,56,0,44,0,0,100,59,0,41,0,0,99,62,0,37,0,0,99,64,0,34,0,0,98,67,0,31,0,0,98,69,0,28,0,0,97,72,0,24,0,0,96,74,0,21,0,0,95,77,0,17,0,0,94,79,0,14,0,0,93,81,0,10,0,0,91,83,0,7,0,0,90,85,0,3,0,0,88,87,0,0,0,0,87,88,0,0,3,0,85,90,0,0,7,0,83,91,0,0,10,0,81,93,0,0,14,0,79,94,0,0,17,0,77,95,0,0,21,0,74,96,0,0,24,0,72,97,0,0,28,0,69,98,0,0,31,0,67,98,0,0,34,0,64,99,0,0,37,0,62,99,0,0,41,0,59,100,0,0,44,0,56,100,0,0,47,0,53,100,0,0,50,0,50,100,0,0,53,0,47,100,0,0,56,0,44,99,0,0,59,0,41,99,0,0,62,0,37,98,0,0,64,0,34,98,0,0,67,0,31,97,0,0,69,0,28,96,0,0,72,0,24,95,0,0,74,0,21,94,0,0,77,0,17,93,0,0,79,0,14,91,0,0,81,0,10,90,0,0,83,0,7,88,0,0,85,0,3,87,0,0,87,0,0,85,0,0,88,3,0,83,0,0,90,7,0,81,0,0,91,10,0,79,0,0,93,14,0,77,0,0,94,17,0,74,0,0,95,21,0,72,0,0,96,24,0,69,0,0,97,28,0,67,0,0,98,31,0,64,0,0,98,34,0,62,0,0,99,37,0,59,0,0,99,41,0,56,0,0,100,44,0,53,0,0,100,47,0,50,0,0,100,50,0,47,0,0,100,53,0,44,0,0,100,56,0,41,0,0,99,59,0,37,0,0,99,62,0,34,0,0,98,64,0,31,0,0,98,67,0,28,0,0,97,69,0,24,0,0,96,72,0,21,0,0,95,74,0,17,0,0,94,77,0,14,0,0,93,79,0,10,0,0,91,81,0,7,0,0,90,83,0,3,0,0,88,85,0,0,0,0,87,87,0,0,3,0,85,88,0,0,7,0,83,90,0,0,10,0,81,91,0,0,14,0,79,93,0,0,17,0,77,94,0,0,21,0,74,95,0,0,24,0,72,96,0,0,28,0,69,97,0,0,31,0,67,98,0,0,34,0,64,98,0,0,37,0,62,99,0,0,41,0,59,99,0,0,44,0,56,100,0,0,47,0,53,100,0,0,50,0,50,100,0,0,53,0,47,100,0,0,56,0,44,100,0,0,59,0,41,99,0,0,62,0,37,99,0,0,64,0,34,98,0,0,67,0,31,98,0,0,69,0,28,97,0,0,72,0,24,96,0,0,74,0,21,95,0,0,77,0,17,94,0,0,79,0,14,93,0,0,81,0,10,91,0,0,83,0,7,90,0,0,85,0,3,88,0,0,87,0,0,87,0,0,88,3,0,85,0,0,90,7,0,83,0,0,91,10,0,81,0,0,93,14,0,79,0,0,94,17,0,77,0,0,95,21,0,74,0,0,96,24,0,72,0,0,97,28,0,69,0,0,98,31,0,67,0,0,98,34,0,64,0,0,99,37,0,62,0,0,99,41,0,59,0,0,100,44,0,56,0,0,100,47,0,53,0,0,100,50,0,50,0,0,100,53,0,47,0,0,100,56,0,44,0,0,99,59,0,41,0,0,99,62,0,37,0,0,98,64,0,34,0,0,98,67,0,31,0,0,97,69,0,28,0,0,96,72,0,24,0,0,95,74,0,21,0,0,94,77,0,17,0,0,93,79,0,14,0,0,91,81,0,10,0,0,90,83,0,7,0,0,88,85,0,3,0,0,87,87,0,0,0,0,85,88,0,0,3,0,83,90,0,0,7,0,81,91,0,0,10,0,79,93,0,0,14,0,77,94,0,0,17,0,74,95,0,0,21,0,72,96,0,0,24,0,69,97,0,0,28,0,67,98,0,0,31,0,64,98,0,0,34,0,62,99,0,0,37,0,59,99,0,0,41,0,56,100,0,0,44,0,53,100,0,0,47,0,50,100,0,0,50,0,47,100,0,0,53,0,44,100,0,0,56,0,41,99,0,0,59,0,37,99,0,0,62,0,34,98,0,0,64,0,31,98,0,0,67,0,28,97,0,0,69,0,24,96,0,0,72,0,21,95,0,0,74,0,17,94,0,0,77,0,14,93,0,0,79,0,10,91,0,0,81,0,7,90,0,0,83,0,3,88,0,0,85};
int pot_value = 0; // input for the potentiometer used to control frequency
int analog_pin = 0; // input pin for pot

int max_volts = 0; // controls amplitude of the sin wave
int analog_volt = 1;

int value_pwm_1 = 0; // variable to keep the actual value_pwm_1
int ledpin_1 = 3; // light connected to digital pin 3
int array_tag_1 = 0; // where to get first value for phase 1 positive from array, first value in array is tagged at 0
int on_pulses_pin1 = 0;

int value_pwm_2 = 0; // variable to keep the actual value_pwm_2
int ledpin_2 = 4; // light connected to digital pin 4
int array_tag_2 = 1; // where to get first value for phase 1 negative from array
int on_pulses_pin2 = 0;

int value_pwm_3 = 0; // variable to keep the actual value_pwm_2
int ledpin_3 = 12; // light connected to digital pin 12
int array_tag_3 = 4; // where to get first value for phase 2 positive from array
int on_pulses_pin3 = 0;

int value_pwm_4 = 0; // variable to keep the actual value_pwm_2
int ledpin_4 = 13; // light connected to digital pin 13
int array_tag_4 = 5; // where to get first value for phase 2 negative from array
int on_pulses_pin4 = 0;

int value_pwm_5 = 0; // variable to keep the actual value_pwm_2
int ledpin_5 = 14; // light connected to digital pin 14
int array_tag_5 = 2; // where to get first value for phase 3 positive from array
int on_pulses_pin5 = 0;

int value_pwm_6 = 0; // variable to keep the actual value_pwm_2
int ledpin_6 = 15; // light connected to digital pin 15
int array_tag_6 = 3; // where to get first value for phase 3 negative from array
int on_pulses_pin6 = 0;

void setup()
{
pinMode(7, OUTPUT); // using an LED on pin 7 to indicate the completion of one complete cycle on phase 1
pinMode(3, OUTPUT);
pinMode(4, OUTPUT);
pinMode(12, OUTPUT);
pinMode(13, OUTPUT);
pinMode(14, OUTPUT);
pinMode(15, OUTPUT);
Timer1.initialize(100); // initialize timer1, and set a 1/1000 second period, can this be changed dynamically in the program?
Timer1.attachInterrupt(callback); // attaches callback() as a timer overflow interrupt
}

void callback()
{


if (freq >= freqmax)
{
freq = 0;

if (array_tag_1 < 1074)

{ // 1074 is the last the last array tag for phase 1 postive, so below that we add 6 to each tag to get to the next spot for each phase in the array

array_tag_1 = array_tag_1 + 6;
array_tag_2 = array_tag_2 + 6;
array_tag_3 = array_tag_3 + 6;
array_tag_4 = array_tag_4 + 6;
array_tag_5 = array_tag_5 + 6;
array_tag_6 = array_tag_6 + 6;
}

else
{ // after 1074 we reset all the array tags to their original value
array_tag_1 = 0; // this resets the array counters back to zero
array_tag_2 = 1;
array_tag_3 = 4;
array_tag_4 = 5;
array_tag_5 = 2;
array_tag_6 = 3;

}

}
else
{
freq = freq + 1;
on_pulses_pin1 = (sinarray[array_tag_1] * freqmax / 100);
on_pulses_pin2 = (sinarray[array_tag_2] * freqmax / 100);
on_pulses_pin3 = (sinarray[array_tag_3] * freqmax / 100);
on_pulses_pin4 = (sinarray[array_tag_4] * freqmax / 100);
on_pulses_pin5 = (sinarray[array_tag_5] * freqmax / 100);
on_pulses_pin6 = (sinarray[array_tag_6] * freqmax / 100);

if (on_pulses_pin1>freq) //these if's check to see if each pins counter has reached its max and then turns the pins on or off as needed
{
digitalWrite(ledpin_1, HIGH);
}

else
{
digitalWrite(ledpin_1, LOW);
}

if (on_pulses_pin2>freq) //
{
digitalWrite(ledpin_2, HIGH);
}

else
{
digitalWrite(ledpin_2, LOW);
}

if (on_pulses_pin3>freq) //
{
digitalWrite(ledpin_3, HIGH);
}

else
{
digitalWrite(ledpin_3, LOW);
}

if (on_pulses_pin4>freq) //
{
digitalWrite(ledpin_4, HIGH);
}

else
{
digitalWrite(ledpin_4, LOW);
}

if (on_pulses_pin5>freq) //
{
digitalWrite(ledpin_5, HIGH);
}

else
{
digitalWrite(ledpin_5, LOW);
}

if (on_pulses_pin6>freq) //
{
digitalWrite(ledpin_6, HIGH);
}

else
{
digitalWrite(ledpin_6, LOW);
}




}

}


void loop()
{
pot_value = analogRead(analog_pin) / 100; // using a pot to control the frequency
max_volts = analogRead(analog_volt) / 4; // changes the max voltage based on the second pot


}