rlm@488: (ns com.aurellem.run.image rlm@486: (:use (com.aurellem.gb saves gb-driver util constants rlm@486: items vbm characters money rlm@486: rlm-assembly)) rlm@492: (:use (com.aurellem.run util music title save-corruption rlm@486: bootstrap-0 bootstrap-1)) rlm@486: (:require clojure.string) rlm@486: (:import [com.aurellem.gb.gb_driver SaveState]) rlm@486: (:import java.io.File)) rlm@486: rlm@486: ;; want to display an image onto the screen. rlm@486: ;; probably will be the six ponies, possibly with scrolling. rlm@486: rlm@486: ;; probably don't need hi-color mode since the images shuld be rlm@486: ;; simple. rlm@486: rlm@486: ;; use background tiles? they provide greater color depth than rlm@486: ;; sprites, and can still be scrolled, so why not? rlm@486: rlm@490: ;; could also use sprites to get 3 more colors per tile for a total of rlm@490: ;; 7 colors per tile, although not for all tiles... rlm@486: rlm@486: rlm@486: rlm@490: ;; want a function to rlm@486: rlm@490: ;; 1. read an image rlm@490: ;; 2. split into a grid of 8x8 pixels rlm@490: ;; 3. convert all RGB colors to gb-RGB colors rlm@490: ;; 4. determine efficient color palletes for the image rlm@490: ;; 5. output efficient assembly code to draw the image to the gb rlm@490: ;; screen. rlm@486: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@488: rlm@491: (def image-program-target 0xB000) rlm@486: rlm@491: (def display-width 160) rlm@491: (def display-height 144) rlm@491: rlm@491: rlm@491: rlm@491: ;{:r :g :b } rlm@491: rlm@491: (def character-data 0x8000) rlm@491: (def character-data-end 0x97FF) rlm@491: rlm@491: rlm@491: rlm@491: rlm@491: (def BG-data-1 0x9800) rlm@491: rlm@491: (def BG-data-2 0x9C00) rlm@491: rlm@491: (def OAM 0xFE00) rlm@491: rlm@491: rlm@491: rlm@491: (def video-bank-select-register 0xFF4F) rlm@491: rlm@492: (defn gb-rgb->bits [[r g b]] rlm@492: (assert (<= 0 r 31)) rlm@492: (assert (<= 0 g 31)) rlm@492: (assert (<= 0 b 31)) rlm@491: [(bit-and rlm@491: 0xFF rlm@491: (+ rlm@491: r rlm@491: (bit-shift-left g 5))) rlm@491: (+ rlm@491: (bit-shift-right g 3) rlm@491: (bit-shift-left b 2))]) rlm@491: rlm@492: rlm@492: (def bg-palette-select 0xFF68) rlm@492: (def bg-palette-data 0xFF69) rlm@492: rlm@492: (def obj-palette-select 0xFF6A) rlm@492: (def obj-palette-data 0xFF6B) rlm@492: rlm@492: (def max-palettes 8) rlm@492: rlm@492: (defn write-data [target data] rlm@492: (flatten rlm@492: [0x3E ;; load literal to A rlm@492: data rlm@492: 0xEA ;; load A into target rlm@493: (reverse (disect-bytes-2 target))])) rlm@492: rlm@492: (defn begin-sequential-palette-write rlm@492: [palette-num palette-select-address] rlm@492: (assert (<= 0 palette-num max-palettes)) rlm@492: (assert rlm@492: (or (= palette-select-address bg-palette-select) rlm@492: (= palette-select-address obj-palette-select))) rlm@492: (let [palette-write-data rlm@492: (Integer/parseInt rlm@492: (str "1" ;; auto increment rlm@492: "0" ;; not used rlm@492: (format rlm@492: "%03d" rlm@492: (Integer/parseInt rlm@492: (Integer/toBinaryString palette-num) 10)) rlm@492: "00" ;; color num rlm@492: "0" ;; H/L rlm@492: ) 2)] rlm@492: (write-data palette-select-address palette-write-data))) rlm@492: rlm@492: (defn set-palettes [palette-select palette-data palettes] rlm@492: (assert (<= (count palettes)) max-palettes) rlm@492: (flatten rlm@492: [(begin-sequential-palette-write 0 palette-select) rlm@492: (map (partial write-data palette-data) rlm@492: (flatten (map gb-rgb->bits palettes)))])) rlm@492: rlm@491: (defn display-one-color rlm@491: "Displayes a single color onto the gameboy screen. input rgb in rlm@491: gameboy rgb." rlm@498: ([state [r g b]] rlm@498: ;; construct a kernel that displays a single color rlm@498: (let rlm@498: [palettes (repeat 8 [r g b]) rlm@498: kernel-address 0xC000 rlm@498: kernel rlm@498: [0xF3 ;; disable interrupts rlm@498: (clear-music-registers) rlm@498: (frame-metronome) rlm@498: (set-palettes obj-palette-select obj-palette-data palettes) rlm@498: (set-palettes bg-palette-select bg-palette-data palettes) rlm@498: (infinite-loop)]] rlm@498: (-> (set-memory-range state rlm@498: kernel-address (flatten kernel)) rlm@498: (PC! kernel-address)))) rlm@498: ([[r g b]] rlm@498: (display-one-color @current-state [r g b]))) rlm@492: rlm@505: ;;(require 'cortex.sense) rlm@496: (import java.awt.image.BufferedImage) rlm@492: rlm@505: ;; (defn show-screenshot [] rlm@505: ;; (let [im (BufferedImage. 160 144 BufferedImage/TYPE_INT_RGB) rlm@505: ;; pix (vec (pixels)) rlm@505: ;; view (cortex.sense/view-image)] rlm@505: ;; (dorun (for [x (range 160) y (range 144)] rlm@505: ;; (.setRGB im x y (pix (+ x (* 160 y)))))) rlm@505: ;; (view im))) rlm@496: rlm@500: (defn gb-rgb->vga-rgb [[r g b]] rlm@498: (let [vga-rgb rlm@498: (first (pixels rlm@498: (run-moves rlm@498: (display-one-color rlm@498: (tick @current-state) rlm@498: [r g b]) rlm@498: [[][]])))] rlm@498: [(bit-shift-right (bit-and vga-rgb 0xFF0000) 16) rlm@498: (bit-shift-right (bit-and vga-rgb 0xFF00) 8) rlm@498: (bit-and vga-rgb 0xFF)])) rlm@491: rlm@498: (defn generate-gb-color-map [] rlm@498: (set-state! (mid-game)) rlm@498: (let [gb-colors rlm@498: (for [r (range 32) rlm@498: g (range 32) rlm@498: b (range 32)] rlm@498: [r g b])] rlm@498: (zipmap gb-colors rlm@498: (map gb-rgb->vga-rgb rlm@498: gb-colors)))) rlm@491: rlm@498: (import java.io.FileWriter) rlm@491: rlm@498: (def gb-color-map-file rlm@498: (File. user-home "proj/vba-clojure/gb-color-map")) rlm@495: rlm@498: (defn write-gb-color-map! [] rlm@498: (binding [*out*(FileWriter. gb-color-map-file)] rlm@498: (let [out-str rlm@498: (.replace rlm@498: (str rlm@498: (into (sorted-map) (generate-gb-color-map))) rlm@498: "," ",\n")] rlm@498: (println out-str)))) rlm@498: rlm@499: (def gb-color-map rlm@499: (read-string (slurp gb-color-map-file))) rlm@499: rlm@499: (import javax.imageio.stream.FileImageOutputStream) rlm@499: (import '(javax.imageio ImageWriteParam IIOImage ImageIO)) rlm@499: rlm@499: rlm@499: (defn gen-gb-color-image! [] rlm@500: (let [im (BufferedImage. 68 69 BufferedImage/TYPE_INT_RGB) rlm@499: pix (vec rlm@499: rlm@499: (reduce rlm@499: concat rlm@499: (map (partial rlm@499: sort-by rlm@499: (fn [[r g b]] rlm@499: (let [s (max r g b) rlm@499: det rlm@499: (cond rlm@499: (= s r) rlm@499: (+ -1000 (- g) b) rlm@499: (= s b) rlm@499: (+ (- r) g) rlm@499: (= s g) rlm@499: (+ 1000 (- b) r))] rlm@499: det))) rlm@499: (partition rlm@500: 68 68 [] rlm@499: (sort-by rlm@499: (fn euclidean-distance [[r g b]] rlm@499: (Math/sqrt (+ (* r r) (* g g) (* b b)))) rlm@501: (filter rlm@501: (fn [[r g b]] rlm@501: (= (max r g b) b )) rlm@501: rlm@501: (seq (set (vals gb-color-map))))))))) rlm@505: ;;view (cortex.sense/view-image) rlm@500: target (File. user-home "proj/vba-clojure/gb-color-map-unique.png")] rlm@500: (dorun (for [x (range 68) y (range 69)] rlm@500: (let [[r g b] (get pix (+ x (* 68 y)) [0 0 0]) rlm@499: rgb (+ (bit-shift-left r 16) rlm@499: (bit-shift-left g 8) rlm@499: b)] rlm@505: (.setRGB im x y rgb)))) rlm@505: ;;(view im) rlm@499: (doto rlm@499: (.next (ImageIO/getImageWritersByFormatName "png")) rlm@499: (.setOutput (FileImageOutputStream. target)) rlm@499: (.write (IIOImage. im nil nil)) rlm@499: (.dispose)) rlm@499: im)) rlm@499: rlm@499: (defn gen-gb-color-image*! [] rlm@499: (let [im (BufferedImage. 213 213 BufferedImage/TYPE_INT_RGB) rlm@499: squares rlm@499: (vec rlm@499: (for [r (range 32)] rlm@499: (vec rlm@499: (for [b (range 32) g (range 32)] rlm@499: (gb-color-map [r g b]))))) rlm@505: ;;view (cortex.sense/view-image) rlm@499: target (File. user-home "proj/vba-clojure/gb-color-map.png")] rlm@499: rlm@499: (dorun rlm@499: (for [s-index (range 32)] rlm@499: (dorun rlm@499: (for [x (range 32) y (range 32)] rlm@499: rlm@499: (let [[r g b] ((squares s-index) (+ x (* 32 y))) rlm@499: rgb (+ (bit-shift-left r 16) rlm@499: (bit-shift-left g 8) rlm@499: b)] rlm@499: (.setRGB im rlm@499: (+ 3 (* 35 (rem s-index 6)) x) rlm@499: (+ 3 (* 35 (int (/ s-index 6))) y) rlm@499: rgb)))))) rlm@505: ;;(view im) rlm@499: (doto rlm@499: (.next (ImageIO/getImageWritersByFormatName "png")) rlm@499: (.setOutput (FileImageOutputStream. target)) rlm@499: (.write (IIOImage. im nil nil)) rlm@499: (.dispose)) rlm@499: im)) rlm@501: rlm@501: rlm@501: (count rlm@501: (filter rlm@501: (fn [[r g b]] rlm@501: (= (max r g b) r ))(set (vals gb-color-map)))) rlm@502: rlm@502: (def test-image rlm@502: (ImageIO/read rlm@502: (File. user-home "/proj/vba-clojure/images/test-gb-image.png"))) rlm@502: rlm@502: (defn rgb->triplet [rgb] rlm@502: (let [r (bit-shift-right (bit-and rgb 0xFF0000) 16) rlm@502: g (bit-shift-right (bit-and rgb 0xFF00) 8) rlm@502: b (bit-and rgb 0xFF)] rlm@502: [r g b])) rlm@502: rlm@502: (def reverse-gb-color-map rlm@502: (zipmap (vals gb-color-map) rlm@502: (keys gb-color-map))) rlm@502: rlm@502: (defn vga-rgb->gb-rgb [[r g b]] rlm@502: (reverse-gb-color-map [r g b])) rlm@502: rlm@502: (defn gb-tiles [^BufferedImage image] rlm@502: (for [tile (range 360)] rlm@502: (for [x (range 8) y (range 8)] rlm@502: (vga-rgb->gb-rgb rlm@502: (rgb->triplet rlm@503: (.getRGB image (+ x (* 8 (rem tile 20))) rlm@503: (+ y (* 8 (int (/ tile 20)))))))))) rlm@503: rlm@503: (defn tile->palette [tile] rlm@503: (sort (set tile))) rlm@503: rlm@503: (require 'clojure.set) rlm@503: rlm@503: (defn absorb-contract [objs] rlm@503: (reduce rlm@503: (fn [accepted new-element] rlm@503: (if (some rlm@503: (fn [obj] rlm@503: (clojure.set/subset? (set new-element) (set obj))) rlm@503: accepted) rlm@503: accepted rlm@503: (conj accepted new-element))) rlm@503: [] rlm@503: (sort-by (comp - count) objs))) rlm@503: rlm@503: (defn absorb-combine-4 [objs] rlm@504: rlm@503: ) rlm@503: rlm@503: (defn palettes [^BufferedImage image] rlm@503: (let [palettes (map tile->palette (gb-tiles image)) rlm@503: unique-palettes (absorb-contract (set palettes))] rlm@503: unique-palettes)) rlm@505: rlm@505: (defn wait-until-v-blank rlm@505: "Modified version of frame-metronome. waits untill LY == 144, rlm@505: indicating start of v-blank period." rlm@505: [] rlm@505: (let [timing-loop rlm@505: [0x01 ; \ rlm@505: 0x44 ; | load 0xFF44 into BC rlm@505: 0xFF ; / rlm@505: 0x0A] ;; (BC) -> A, now A = LY (vertical line coord) rlm@505: continue-if-144 rlm@505: [0xFE rlm@505: 144 ;; compare LY (in A) with 144 rlm@505: 0x20 ;; jump back to beginning if LY != 144 (not-v-blank) rlm@505: (->signed-8-bit rlm@505: (+ -4 (- (count timing-loop))))]] rlm@505: (concat timing-loop continue-if-144))) rlm@503: rlm@503: rlm@502: (defn display-image-kernel [^BufferedImage image] rlm@505: ;; assume image tile data is stored at 0xA000 rlm@505: ;; " " palette date is at 0xB000 rlm@505: rlm@502: rlm@502: rlm@505: ) rlm@505: rlm@505: rlm@505: