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+It is fun to find an interesting use for old technology. Being someone who has
+tons of old floppy drives and loves music, I decided to turn my old floppy
+drives into an orchestra. I’m not sure where I first learned about musical
+floppy drives, however, there are thousands of videos on YouTube.
+
+This project first started over a year ago when I connected two floppy drives to
+a Raspberry Pi to play the Star Wars theme.
+
+<iframe width="560" height="315"
+src="https://www.youtube.com/embed/wcnUvPMpqjA" frameborder="0" allow="autoplay;
+encrypted-media" allowfullscreen\></iframe\>
+
+Although this was fun, there was hardly any software for playing different music
+on the Raspberry Pi. I managed to hack the software to also play Jingle Bells,
+however, that took hours to input just a single song.
+
+A half a year ago I got an Arduino board and built a new and improved floppy
+drive orchestra.
+
+<iframe width="560" height="315"
+src="https://www.youtube.com/embed/qwbcrR-6dTU" frameborder="0" allow="autoplay;
+encrypted-media" allowfullscreen\></iframe\>
+
+What is nice about using an Arduino, is that the software used is more
+developed. Unlike the program I used with the Raspberry Pi, the software used
+with the Arduino allows the songs to be loaded via a MIDI file.
+
+That brings us up to the present. My previous 8 floppy drive orchestra was not
+transportable and took up a ton of space. When I decided to present this project
+at Imagine RIT with RITLUG, I knew I had to rebuild my orchestra to be portable
+and compact.
+
+There are plenty of tutorials online demonstrating how to build floppy
+orchestras, but, many of them are incomplete. Since this was my third time
+building a floppy orchestra, I decided to log my process and make a complete
+tutorial for my blog.
+
+Hardware
+========
+
+-   10 Floppy Drives
+
+-   Arduino Uno
+
+-   LOTS of Ribbon Cables
+
+-   1 Old Power Supply
+
+-   Hot Glue
+
+-   Solder
+
+In in addition to these materials, you will also want something to mount your
+floppy drives to. I decided to use 2x2’s and half inch screws because they are
+cheep and I had some laying around my house.
+
+Assembly
+========
+
+The first thing you should do is secure your floppy drives.
+
+![](media/f8802f1f71cb433274d265fc81e36fc6.jpg)
+
+Now, it is time to power the floppy drives and turn them on. To make the floppy
+drives turn on, you need to connect pins 11 and 12 on your floppy drives
+together. You can easily do this with a single ribbon cable.
+
+![](media/5b7a15fd7b5da2939f4e27eae4ceada3.jpg)
+
+![](media/09bce0ed13f28db38a141bd10bb096c8.jpg)
+
+You can use an old power supply for this project. Since we are only using the
+stepper motor in the floppy drives, you only need to supply 5v. Each floppy
+drive has four power connectors, the middle two pins are ground, and the right
+pin is 5v and the left pin 12v. Since I had ten floppy drives to power, I used a
+bread board to avoid excessive soldering.
+
+To turn on a power supply you simply connect the green wire to any ground wire.
+If you want to get fancy, you can solder on a switch, however, must people just
+jam a paper clip into the motherboard connector.
+
+FWI: The red wires in your power supply are 5v and the black wires are ground.
+
+**Warning**: Do not draw all your power from the power supply via a single
+ribbon cable, it will melt. Ribbon cables have low gauge and are not meant for
+high wattages. It is good idea to use multiple 5v lines from your power supply
+and make sure that nowhere in your wiring is all the voltage going through a
+single ribbon cable.
+
+![](media/5ebac37ad45784c31219451d6e4c4504.jpg)
+
+If you have done everything correct up to this point, you will see the green
+lights on the floppy drives turn on when the power supply is running.
+
+Now we need to connect the pins of the floppy drive to the Arduino.
+
+Personally, I started by connecting pin 19 on the floppy drive to the ground pin
+on the Arduino. Again, I used a bread board to make the connections easier.
+
+![](media/d0888a3222fa328c291629fac491e268.jpg)
+
+![](media/463f2aa188466da8f47309235039250c.jpg)
+
+Next, we need to wire the step and direction pins of the floppy drives to the
+Arduino.
+
+![](media/81ffef0249da3c1fc077d114fb6beecb.jpg)
+
+Connect direction pin 18 on the floppy drive to pin 3 of the Arduino and step
+pin 20 to pin 2 of the Arduino. For additional floppy drives you follow the same
+pattern. For example, the next drive would be floppy pin 18 to Arduino pin 5 and
+floppy pin 20 to Arduino pin 4. If you are using something other than an Arduino
+Uno board this will potentially be different. We are using these specific pins
+on the Arduino because they correspond to this specific program.
+
+![](media/50dc96254f26b730e842134db98c9966.jpg)
+
+While making this, I had 4 sets of pins (8 total) connected to the Arduino,
+however, I have 10 floppy drives in total. I wired two sets of three drives and
+two sets of two drives together on the same Arduino “channel”. This makes the
+wiring easier and makes the sound better. Not all floppy drives sound the same,
+by pairing drives together you get a richer sound. Since I want to present this
+live, it also makes it louder for the audience.
+
+This is a ton of wiring! After you verify that the drives are working properly,
+I would strongly recommend using hot glue to secure ribbon cables to the drives.
+
+That’s it. Now your floppy drives should be good to go.
+
+Software
+========
+
+This is the section where most other tutorials fall short. Please follow along
+carefully. First, have the following installed on your computer.
+
+-   Arduino Software
+
+-   NetBeans
+
+-   JDK 1.8 – or higher
+
+Next download
+[timer1](https://code.google.com/archive/p/arduino-timerone/downloads) and
+[Moppy](https://github.com/SammyIAm/Moppy). Install timer one by extracting the
+files and copying the folder timer1 into the libraries folder under your root
+Arduino directory.
+
+Open up your Arduino software and paste the following code in the editor:
+
+```
+
+#include <TimerOne.h>
+
+boolean firstRun = true; // Used for one-run-only stuffs;
+
+//First pin being used for floppies, and the last pin. Used for looping over all pins.
+const byte FIRST_PIN = 2;
+const byte PIN_MAX = 17;
+
+/*NOTE: Many of the arrays below contain unused indexes. This is
+to prevent the Arduino from having to convert a pin input to an alternate
+array index and save as many cycles as possible. In other words information
+for pin 2 will be stored in index 2, and information for pin 4 will be
+stored in index 4.*/
+
+
+/*An array of maximum track positions for each step-control pin. Even pins
+are used for control, so only even numbers need a value here. 3.5" Floppies have
+80 tracks, 5.25" have 50. These should be doubled, because each tick is now
+half a position (use 158 and 98).
+*/
+byte MAX_POSITION[] = {
+  0,0,158,0,158,0,158,0,158,0,158,0,158,0,158,0,158,0};
+  
+//Array to track the current position of each floppy head. (Only even indexes (i.e. 2,4,6...) are used)
+byte currentPosition[] = {
+  0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
+
+/*Array to keep track of state of each pin. Even indexes track the control-pins for toggle purposes. Odd indexes
+track direction-pins. LOW = forward, HIGH=reverse
+*/
+int currentState[] = {
+  0,0,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW,LOW
+};
+  
+//Current period assigned to each pin. 0 = off. Each period is of the length specified by the RESOLUTION
+//variable above. i.e. A period of 10 is (RESOLUTION x 10) microseconds long.
+unsigned int currentPeriod[] = {
+  0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0
+};
+
+//Current tick
+unsigned int currentTick[] = {
+  0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0
+};
+
+
+
+//Setup pins (Even-odd pairs for step control and direction
+void setup(){
+  pinMode(13, OUTPUT);// Pin 13 has an LED connected on most Arduino boards
+  pinMode(2, OUTPUT); // Step control 1
+  pinMode(3, OUTPUT); // Direction 1
+  pinMode(4, OUTPUT); // Step control 2
+  pinMode(5, OUTPUT); // Direction 2
+  pinMode(6, OUTPUT); // Step control 3
+  pinMode(7, OUTPUT); // Direction 3
+  pinMode(8, OUTPUT); // Step control 4
+  pinMode(9, OUTPUT); // Direction 4
+  pinMode(10, OUTPUT); // Step control 5
+  pinMode(11, OUTPUT); // Direction 5
+  pinMode(12, OUTPUT); // Step control 6
+  pinMode(13, OUTPUT); // Direction 6
+  pinMode(14, OUTPUT); // Step control 7
+  pinMode(15, OUTPUT); // Direction 7
+  pinMode(16, OUTPUT); // Step control 8
+  pinMode(17, OUTPUT); // Direction 8
+
+  Timer1.initialize(RESOLUTION); // Set up a timer at the defined resolution
+  Timer1.attachInterrupt(tick); // Attach the tick function
+
+  Serial.begin(9600);
+}
+
+
+void loop(){
+  
+  //The first loop, reset all the drives, and wait 2 seconds...
+  if (firstRun)
+  {
+    firstRun = false;
+    resetAll();
+    delay(2000);
+  }
+
+  //Only read if we have
+  if (Serial.available() > 2){
+    //Watch for special 100-message to reset the drives
+    if (Serial.peek() == 100) {
+      resetAll();
+      //Flush any remaining messages.
+      while(Serial.available() > 0){
+        Serial.read();
+      }
+    }
+    else{
+      currentPeriod[Serial.read()] = (Serial.read() << 8) | Serial.read();
+    }
+  }
+}
+
+
+/*
+Called by the timer inturrupt at the specified resolution.
+*/
+void tick()
+{
+  /*
+If there is a period set for control pin 2, count the number of
+ticks that pass, and toggle the pin if the current period is reached.
+*/
+  if (currentPeriod[2]>0){
+    currentTick[2]++;
+    if (currentTick[2] >= currentPeriod[2]){
+      togglePin(2,3);
+      currentTick[2]=0;
+    }
+  }
+  if (currentPeriod[4]>0){
+    currentTick[4]++;
+    if (currentTick[4] >= currentPeriod[4]){
+      togglePin(4,5);
+      currentTick[4]=0;
+    }
+  }
+  if (currentPeriod[6]>0){
+    currentTick[6]++;
+    if (currentTick[6] >= currentPeriod[6]){
+      togglePin(6,7);
+      currentTick[6]=0;
+    }
+  }
+  if (currentPeriod[8]>0){
+    currentTick[8]++;
+    if (currentTick[8] >= currentPeriod[8]){
+      togglePin(8,9);
+      currentTick[8]=0;
+    }
+  }
+  if (currentPeriod[10]>0){
+    currentTick[10]++;
+    if (currentTick[10] >= currentPeriod[10]){
+      togglePin(10,11);
+      currentTick[10]=0;
+    }
+  }
+  if (currentPeriod[12]>0){
+    currentTick[12]++;
+    if (currentTick[12] >= currentPeriod[12]){
+      togglePin(12,13);
+      currentTick[12]=0;
+    }
+  }
+  if (currentPeriod[14]>0){
+    currentTick[14]++;
+    if (currentTick[14] >= currentPeriod[14]){
+      togglePin(14,15);
+      currentTick[14]=0;
+    }
+  }
+  if (currentPeriod[16]>0){
+    currentTick[16]++;
+    if (currentTick[16] >= currentPeriod[16]){
+      togglePin(16,17);
+      currentTick[16]=0;
+    }
+  }
+  
+}
+
+void togglePin(byte pin, byte direction_pin) {
+  
+  //Switch directions if end has been reached
+  if (currentPosition[pin] >= MAX_POSITION[pin]) {
+    currentState[direction_pin] = HIGH;
+    digitalWrite(direction_pin,HIGH);
+  }
+  else if (currentPosition[pin] <= 0) {
+    currentState[direction_pin] = LOW;
+    digitalWrite(direction_pin,LOW);
+  }
+  
+    //Update currentPosition
+  if (currentState[direction_pin] == HIGH){
+    currentPosition[pin]--;
+  }
+  else {
+    currentPosition[pin]++;
+  }
+  
+  //Pulse the control pin
+  digitalWrite(pin,currentState[pin]);
+  currentState[pin] = ~currentState[pin];
+}
+
+
+//
+//// UTILITY FUNCTIONS
+//
+
+//Not used now, but good for debugging...
+void blinkLED(){
+  digitalWrite(13, HIGH); // set the LED on
+  delay(250); // wait for a second
+  digitalWrite(13, LOW);
+}
+
+//For a given controller pin, runs the read-head all the way back to 0
+void reset(byte pin)
+{
+  digitalWrite(pin+1,HIGH); // Go in reverse
+  for (byte s=0;s<MAX_POSITION[pin];s+=2){ //Half max because we're stepping directly (no toggle)
+    digitalWrite(pin,HIGH);
+    digitalWrite(pin,LOW);
+    delay(5);
+  }
+  currentPosition[pin] = 0; // We're reset.
+  digitalWrite(pin+1,LOW);
+  currentPosition[pin+1] = 0; // Ready to go forward.
+}
+
+//Resets all the pins
+void resetAll(){
+  
+  // Old one-at-a-time reset
+  //for (byte p=FIRST_PIN;p<=PIN_MAX;p+=2){
+  // reset(p);
+  //}
+  
+  // New all-at-once reset
+  for (byte s=0;s<80;s++){ // For max drive's position
+    for (byte p=FIRST_PIN;p<=PIN_MAX;p+=2){
+      digitalWrite(p+1,HIGH); // Go in reverse
+      digitalWrite(p,HIGH);
+      digitalWrite(p,LOW);
+    }
+    delay(5);
+  }
+  
+  for (byte p=FIRST_PIN;p<=PIN_MAX;p+=2){
+    currentPosition[p] = 0; // We're reset.
+    digitalWrite(p+1,LOW);
+    currentState[p+1] = 0; // Ready to go forward.
+  }
+  
+}
+
+```
+
+![](media/23c6ad380e3224fbcd0c8d28cbecac23.png)
+
+Now you can upload this script to your Arduino.
+
+![](media/0b9d25d56269d39f60177b6b29a882da.png)
+
+If you get any errors about your COM port, make sure that your Arduino is set to
+listen on COM1 under the Device manager –Windows only.
+
+If that works, you can now open Moppy through Netbeans and start playing with
+your musical floppy drives.
+
+![](media/161edc628257e8a2f92086c5987dcf0f.png)
+
+For a great package of MIDI music to use check out
+[MrSolidSnake](https://github.com/coon42/Floppy-Music--midis-). Not all MIDI
+songs work well with floppy drives. Songs with too many tracks obviously won’t
+work well. Songs with high notes will sound terrible on floppy drives since they
+will grind their motors. Also, long notes don’t sound good because the floppy
+drives just spin back and forth. MrSolidSnake did a wonderful job at compiling a
+bunch of MIDI files that work’s well with floppy drives.
+
+I hope that this tutorial was helpful.