Turing Machine V1 - Printable Version

Code:
| 00 | GLOB | CLKO | ---- |>| ---- | ---- | ---- |  Use clock output as a 'clock source'

| 01 | CALC | CNT  | 00=0 |>| ---- | ---- | ---- |  Count on raising row 00 

| 02 | ---- | ---- | ---- |>| ---- | ---- | ---- |  

| 03 | CALC | IF > | 01=1 |>| SETV | RW01 | RST  |  If row 01 is bigger than 1 then reset row 01

| 04 | SKIP | 03 > | 01=0 |>| ---- | ---- | ---- |  Skip the next 3 rows if row 01 is bigger than constant 0

| 05 | SKIP | 02 = | 09=0 |>| ---- | ---- | ---- |  Skip the next 2 rows if row 09 is 0

| 06 | CALC | SHTL | VFVC |>| SETV | V  F | SRC  |  Leftshift Var F, Use Var C for the amount of shifts. Store back in Var F

| 07 | VAR  | V  E | #001 |>| ---- | ---- | ---- |  Set Var E to constant 1

| 08 | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 09 | GLOB | SRUN | ---- |>| ---- | ---- | ---- |  Use the state 'Sequencer started'

| 0A | CALC | DINV | 09=0 |>| SETV | RW01 | RST  |  (digital) Invert row 09 and reset row 01 if the invert result is true

| 0B | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 0C | CV   | IN 1 | ---- |>| ---- | ---- | ---- |  Use CV Input 1

| 0D | SKIP | 01 < | 0CVA |>| ---- | ---- | ---- |  Skip the next row if row 0C is smaller than Var A (VA is a threshold)

| 0E | CALC | B OR | VF=1 |>| SETV | V  F | SRC  |  Bitwise OR of Var F and the constant 1 (which means always set LSB)  Store back in Var F 

| 0F | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 10 | CV   | IN 2 | ---- |>| ---- | ---- | ---- |  Use CV Input 2

| 11 | SKIP | 01 < | 10VA |>| ---- | ---- | ---- |  Skip the next row if row 10 is smaller than Var A (VA is a threshold) 

| 12 | CALC | BAND | VFVD |>| SETV | V  F | SRC  |  Bitwise AND of Var F with Var D (which is initialized to FFE)-> always clear LSB, Store in VF 

| 13 | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 14 | CV   | IN 3 | ---- |>| ---- | ---- | ---- |  Use CV Input 3

| 15 | SKIP | 02 < | 14VA |>| ---- | ---- | ---- |  Skip the next 2 rows if row 14 is smaller than Var A (VA is a threshold) 

| 16 | SKIP | 01 = | VE=0 |>| ---- | ---- | ---- |  Skip the next row if Var E is 0

| 17 | CALC | BXOR | VF=1 |>| SETV | V  F | SRC  |  Bitwise XOR of Var F with 1 (flip LSB of Var F) Store back in Var F

| 18 | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 19 | SKIP | 04 = | VE=0 |>| ---- | ---- | ---- |  Skip the next 4 rows if Var E is 0

| 1A | CALC | MUL  | VFVG |>| ---- | ---- | ---- |  Multiply Var F with Var G  (widen the range of the turing bits so the notes are more spread)

| 1B | CALC | ADD  | 1AVH |>| ---- | ---- | ---- |  ADD row 1A with Var H (add note offset so the pitches are a bit higher)

| 1C | CALC | P2NT | 1B=0 |>| CV   | NOTE | CV 1 |  Convert Pitchvalues (in row 1B) to Notenumbers and output notes on CV1

| 1D | VAR  | V  B | SRC  |>| TRIG | VAL* | TR 1 |  Use the value of Var B as the trigger type (E1) and output on Trigger 1

| 1E | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 1F | SKIP | 06 = | VE=0 |>| ---- | ---- | ---- |  Skip the next 6 rows if Var E is 0

| 20 | CV   | IN 4 | ---- |>| ---- | ---- | ---- |  Use CV Input 4

| 21 | SKIP | 04 < | 20VA |>| ---- | ---- | ---- |  Skip the next 4 rows if row 20 is smaller than Var A (threshold)

| 22 | GLOB | RAND | ---- |>| ---- | ---- | ---- |  Generate random value

| 23 | CALC | BAND | 22=1 |>| ---- | ---- | ---- |  Bitwise AND row 22 with 1 (results in only the LSB)

| 24 | CALC | BAND | VFVD |>| SETV | V  F | SRC  |  Bitwise AND Var F with Var D and store in Var F

| 25 | CALC | B OR | VF23 |>| SETV | V  F | SRC  |  Bitwise OR Var F with row 23 and store in Var F

| 26 | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 27 | VAR  | V  E | #000 |>| ---- | ---- | ---- |  Reset Var E to 0

| 28 | ---- | ---- | ---- |>| ---- | ---- | ---- |

| 29 | CALC | BAND | VF=1 |>| TRIG | GATE | 1- 1 |  Bitwise AND of Var F with 1 (bit 0)and output on Trigger16 #1

| 2A | CALC | BAND | VF=2 |>| TRIG | GATE | 1- 2 |  Bitwise AND of Var F with 2(bit 1) and output on Trigger16 #2

| 2B | CALC | BAND | VF=4 |>| TRIG | GATE | 1- 3 |  Bitwise AND of Var F with 4(bit 2) and output on Trigger16 #3 

| 2C | CALC | BAND | VF=8 |>| TRIG | GATE | 1- 4 |  Bitwise AND of Var F with 8(bit 3) and output on Trigger16 #4 

| 2D | CALC | RSFT | VF=4 |>| ---- | ---- | ---- |  Rightshift Var F with 4 bits (do not store in Var F)

| 2E | CALC | BAND | 2D=1 |>| TRIG | GATE | 1- 5 |  Bitwise AND of row 2D with 1(2nd bit) and output on Trigger16 #5 

| 2F | CALC | BAND | 2D=2 |>| TRIG | GATE | 1- 6 |  Bitwise AND of row 2D with 2(2nd bit) and output on Trigger16 #6

| 30 | CALC | BAND | 2D=4 |>| TRIG | GATE | 1- 7 |  Bitwise AND of row 2D with 4(2nd bit) and output on Trigger16 #7 

| 31 | CALC | BAND | 2D=8 |>| TRIG | GATE | 1- 8 |  Bitwise AND of row 2D with 8(2nd bit) and output on Trigger16 #8 

| 32 | CALC | RSFT | 2D=4 |>| ---- | ---- | ---- |  Rightshift row 2D with 4 bits  

| 33 | CALC | BAND | 32=1 |>| TRIG | GATE | 1- 9 |  Bitwise AND of row 32 with 1(2nd bit) and output on Trigger16 #9 

| 34 | CALC | BAND | 32=2 |>| TRIG | GATE | 1-10 |  Bitwise AND of row 32 with 2(2nd bit) and output on Trigger16 #10 

| 35 | CALC | BAND | 32=4 |>| TRIG | GATE | 1-11 |  Bitwise AND of row 32 with 4(2nd bit) and output on Trigger16 #11 

| 36 | CALC | BAND | 32=8 |>| TRIG | GATE | 1-12 |  Bitwise AND of row 32 with 8(2nd bit) and output on Trigger16 #12