;;;; "Advanced Choreography" -- this is the final video for this project.

 

 (ns com.aurellem.run.adv-choreo

   (:use (com.aurellem.gb saves gb-driver util constants

                          items vbm characters money

                          rlm-assembly))

   (:use (com.aurellem.run util music title save-corruption

                           bootstrap-0 bootstrap-1 image

                           ram-display final-cut basic-choreo))

   (:require clojure.string)

   (:import java.awt.image.BufferedImage)

   (:import (javax.imageio ImageWriteParam IIOImage ImageIO))

   (:import [com.aurellem.gb.gb_driver SaveState])

   (:import java.io.File))

 

 

 

 ;; Use the gameboy's screen to display the new programming

 ;; instead of a side window. This will make it look much

 ;; cooler and create a terminal-like effect as the game is

 ;; being reprogramed. To do this, use a fixed data entry

 ;; region in ram, and run a program that translates this

 ;; region into the screen. Every time this data entry region

 ;; is full, run a program that copies the data to the

 ;; appropriate region in memory. This will cost ~15 seconds

 ;; at the beginning to set up, and then should have minimal

 ;; overhead (~5%) for the rest of the data transfer, but

 ;; will have a good psychological effect for the viewer

 ;; since he can see that something is actually happening in

 ;; the game.

 

 

 ;; Symbol size and type.

 

 ;; use fonts from zophar's domain:

 ;; http://www.zophar.net/utilities/fonts/8x8-font-archive.html

 

 ;; Green font on black background for matrix look.

 

 

 (defn program-data [base-address]

   (let [image-program

         (display-image-kernel

          base-address

 

          ;;pinkie-pie-mark

          test-image-color

 

          )

          

 

         music-base-address (+ (count image-program) base-address)

 

         initial-music-data

         (midi-bytes pony-csv 0 0 0 0)

         

         data-lengths

         (map (comp count :data)

                    [(:kernel  initial-music-data)

                     (:voice-1 initial-music-data)

                     (:voice-2 initial-music-data)]);; noise not needed

         addresses

         (map (partial + music-base-address) (reductions + 0 data-lengths))

 

         final-music-data

         (apply (partial midi-bytes pony-csv) addresses)

 

         music-program

         (concat

          (:data (:kernel  final-music-data))

          (:data (:voice-1 final-music-data))

          (:data (:voice-2 final-music-data))

          (:data (:noise   final-music-data)))]

 

     (concat

      image-program ;; image program falls through to music program

 

      (infinite-loop) 

      ;;music-program

 

      )))

 

 

 

 

 (def glyphs

   "The sixteen 8x8 glyphs which make up the \"terminal\" font."

   (mapv #(ImageIO/read

           (File. user-home (str "proj/vba-clojure/font/" % ".png")))

           ["0" "1" "2" "3" "4" "5" "6" "7" "8" "9" "A" "B" "C" "D" "E" "F"]))

 

 (defn glyph-init-program

   [start-address]

   (let [zero-glyph (image->gb-image (glyphs 0))

         

         ;; write same pallet information to all pallettes

         A (flatten

            [(write-byte LCD-control-register 0x00);; disable LCD protection

             (set-palettes bg-palette-select bg-palette-data

                           (repeat 8 (first (:palettes zero-glyph))))

             (select-LCD-bank 0)

             (write-byte SCX-register 0)

             (write-byte SCY-register 0)])

         B (flatten

            [(write-data 

              (+ start-address (count A))

              character-data-address

              (flatten

               (map (comp gb-tile->bytes first :tiles image->gb-image)

                    glyphs)))

 

             

             (write-byte

              LCD-control-register

              (Integer/parseInt

               (str

                "1"  ;; LCDC on/off

                "0"  ;; Window code area

                "0"  ;; Windowing on?

                "1"  ;; BG tile base (1 = 0x8000)

                "0"  ;; BG-1 or BG-2 ?

                "0"  ;; OBJ-block composition

                "0"  ;; OBJ-on flag 

                "1") ;; no-effect 

               2))])]

     (concat A B )))

 

 

  

 (defn glyph-display-program

   [start-address

    monitor-address

    delay-count

    total-glyph-count]

   (let [data-start (+ 2 start-address)

         load-data

         (flatten

          [;; data region

           

           0x18

           5

           (disect-bytes-2 monitor-address)

           (disect-bytes-2 total-glyph-count)

           delay-count

 

           ;; save all registers

           0xC5 0xD5 0xE5 0xF5

 

           ;; load data from data region into registers

           0x21

           (reverse (disect-bytes-2 data-start))

 

           0x2A 0x47 ;; monitor-address-high -> B

           0x2A 0x4F ;; monitor-address-low  -> C

 

           0x2A 0x57 ;; glyph-count-high -> D

           0x2A 0x5F ;; glyph-count-low  -> E

 

           0x7E ;; delay -> A

           ])

 

         handle-delay*

         (flatten

          [0xA7 ;; test if delay is zero

           ;; if delay is not 0, decrement and skip to cleanup

           0x28 ;; JR Z, skip this section if A==0

           4

           0x3D ;; dec A

           0x77 ;; (dec delay) -> delay

           0x18

           :to-cleanup])

 

         handle-glyph-count*

         (flatten

          [;; if glyph-count is 0, go directly to stack-cleanup

           0x79 0xB0 ;; check if BC == 0

           0x20 ;; JR NZ, skip if BC !=0

           2

           0x18

           :to-stack-cleanup

           ])

 

         display-glyph [0 0 0]               

         cleanup

         ;; restore all registers

 

         (flatten

          [0x03 ;; (inc monitor-address) -> monitor-address

           0x1B ;; (dec glyph-count) -> glyph-count

                     

           ;; Reset HL to initial value

           0x21

           (reverse (disect-bytes-2 data-start))

 

           0x78 0x22 ;; B -> monitor-address-high

           0x79 0x22 ;; C -> monitor-address-low

 

           0x7A 0x22 ;; D -> glyph-count-high

           0x7B 0x22 ;; E -> glyph-count-low

           ])

          

         stack-cleanup

         [0xF1 0xE1 0xD1 0xC1]

         

         handle-delay

         (replace {:to-cleanup

                   (+ (count display-glyph) (count handle-glyph-count*))}

                  handle-delay*)

 

         handle-glyph-count

         (replace {:to-stack-cleanup

                   (+ (count display-glyph) (count cleanup))}

                  handle-glyph-count*)]

     (concat load-data

             handle-delay handle-glyph-count

             display-glyph

             cleanup stack-cleanup)))

 

 (def main-program-base-address 0xC000)

 

 (defn glyph-bootstrap-program

   [start-address delay-count total-glyph-count]

   (let [init [0xAF 0x4F 0x47] ;; 0->A; 0->C; 0->B

         header (concat  (frame-metronome) (read-user-input))

 

         glyph-display (glyph-display-program

                        (+ (count init)

                           ;;(count header)

                           start-address)

                        main-program-base-address 100

                        200)

                        ;;(- (count (program-data 0)) 100))

 

         state-machine-start-address

         (+ start-address (count init) (count header) (count glyph-display))

         state-machine

         (bootstrap-state-machine state-machine-start-address)

         

         return-to-header

         (flatten 

          [0x18

           (->signed-8-bit

            (- (count init)

               2 ;; this command length

               3 ;; I have no idea why we need a 3 here

               ;; need to investigate.

               (count glyph-display)

               (count header)

               (count state-machine)))])]

     

     (concat init glyph-display header state-machine return-to-header)))

 

 

 

 (defn-memo begin-glyph-bootstrap

   ([] (begin-glyph-bootstrap (launch-main-bootstrap-program)))

   ([script]

      (let [glyph-init (glyph-init-program relocated-bootstrap-start)

            main-glyph-start (+ relocated-bootstrap-start

                                    (count glyph-init))

            glyph-program (glyph-bootstrap-program

                           main-glyph-start 0 0)]

        (->> script

             (do-nothing 2)

             ;; begin glyph program

             (write-RAM 0xFF1A [0 0 0]) ;; silence remnant music

            

             (write-RAM

              relocated-bootstrap-start

              (concat glyph-init glyph-program))

             (transfer-control relocated-bootstrap-start)

             (do-nothing 1)

 

             ))))

 

 (defn write-all-program-data

   ([] (write-all-program-data (begin-glyph-bootstrap)))

   ([script]

      (let [base-address main-program-base-address]

        (->> script

             (write-RAM base-address (program-data base-address))))))

 

 (defn activate-program

   ([] (activate-program (write-all-program-data)))

   ([script]

      (->> script

           (transfer-control main-program-base-address)

           ;;(do-nothing 1800)

           (do-nothing 50)

           )))

 

 

 ;; possible screen writing programs

 

 ;; (program needs to stop executing at some point)

 ;; maybe have total length counter or something?

 

 ;; automatic counter that reads from program-start and clears the

 ;; screen every 360 (* 18 20) gliphs

 

 ;; advantages -- very simple and low bandwidth

 ;; disadvantages -- hard to align counter

 

 ;; implementation -- refactor main-bootstrap-program to provide a

 ;; state-machine code-section which can be recombined into another

 ;; program.