Contributor: JONAS MAEBE
PROGRAM Frogger;
NOTE !!! Code needed to create sprites for this game are contained at
the end !! Follow the instructions.
{Frogger version 0.92, Copyright 1995-1996 Jonas Maebe (AKA Gamefreak)}
{Send comments to Jonas Maebe, 2:292/624.7 (Fidonet), in the }
{Fidonet International Pascal conference or email at JMaebe@dma.be }
{Hereby I give this code to the freeware circuit, which implies that }
{everyone can use this code in ANY program, as long as I receive the }
{applicable credit(s). }
{I am in NO way responsible for any kind of damage directly or }
{indirectly caused by this program (just to be safe :) }
{$g+,a+,r-,s-,i-,x-,n-,e-,f-,d-,l-,v-,b-}
{$m 8000, 140000 ,140000}
{NEVER enable range checking ($R+), because it'll crash the computer.}
{I don't know why, but I guess it has something to do with the Move386}
{procedure.}
{$ifdef ver70}
{$q-}
{$endif}
{*define p386} {replace the '*' by a '$' to speed up the code
somewhat if you have a 386 instead of a 486 or up.
Probably not noticable, but who cares? :)}
{$define slow} {replace the '*' by a '$' to slow everything down,
necessary when playing on a VLB/PCI videocard}
{$define move32bit} {disable this one if you have a ISA video card
or a 386SX, I've heard 16 bit moves are faster on
those systems}
{$define v_retrace} {disable this one if the animation is jerky, it will
speed up the screen redraw and thus improve the
animation. Drawback: some fuzz... Also, if the
game runs smooth with it, it probably won't without it}
{*define invincible} {Have a wiiiiiild guess :)}
{*define idspispopd} {Remeber Doom? Of course you do!
Ever cheated? Of course you did! :)
BTW: pretty useless if not combined with the above one}
{$define bothsides} {If this one is not defined, the clipped sprite aren't
continued at the other side of the screen}
TYPE position = RECORD
x,y:WORD
END;
big_tile = ARRAY[0..15,0..15] of BYTE;
small_tile = ARRAY[0..9,0..9] of BYTE;
Virscreen = Array [1..64000] of byte;
VirPtr = ^Virscreen;
treetype = (left,middle,right);
TturtleDepth = (up, med, down, under);
CONST retrace = 3; treemid1 = 4; treemid2 = 2; noftree1 = 2; noftree2 = 3;
car1y = 163*320; {since the y-coords of the cars and turtles}
car2y = 147*320; {don't change, immeditely multiply them by}
car3y = 131*320; {320}
car4y = 115*320;
SpriteXsize = 10; SpriteYsize = 10;
{With these two constants you can change the spritesize used by the
drawsprite procedures. WARNING: SpriteXsize HAS to be a multiple of two!!!}
rightclip = 273 - SpriteXsize; leftclip = 1;
{And these two can be modified to enlarge or reduce the playing field.
You'll also need them when you plan on using the drawsprite procedures in
your own programs.}
turtley: ARRAY[1..3] of WORD = ((16*5+3)*320, (16*3+3)*320,(16+3)*320);
waterinc: ARRAY[1..5] of INTEGER = (1,-1,2,1,-1);
frogtop: ARRAY[1..6] of BOOLEAN = (false,false,false,false,false,false);
keyb: word = 8; stop: boolean = false; lives: byte = 4;
car1pos: ARRAY[0..2,0..2] of INTEGER =
((259,236,213),(170,147,123),(78,55,32));
car2pos: ARRAY[0..2,0..2] of INTEGER =
((259,236,213),(170,147,123),(78,55,32));
car3pos: ARRAY[0..2] of WORD = (262,173,84);
car4pos: ARRAY[0..2,0..2] of INTEGER =
((259,236,213),(170,147,123),(78,55,32));
turtlepos: ARRAY[1..3,0..2,0..2] of INTEGER =
(((257,244,231),(167,154,141),(73,60,47)),
((231,243,255),(141,153,165),(47,59,71)),
((231,243,255),(141,153,165),(47,59,71)));
tree1pos: ARRAY[1..2,1..(treemid1+2)] of WORD =
((12,22,32,42,52,62),(150,160,170,180,190,200));
tree2pos: ARRAY[1..3,1..(treemid2+2)] of WORD =
((56,46,36,26),(147,137,127,117),(238,228,218,208));
TurtleDepth: TTurtleDepth = up; TurtleDepthCount: WORD = 0;
cyclecount: BYTE = retrace; fpstime1 : LONGINT = 0;
fpstime2: LONGINT = 0; frames: LONGINT = 0;
CTurtleDepth: ARRAY[1..7] of TturtleDepth = (up, med, down, under,
down, med, up);
VAR frogpos: position;
pall: ARRAY[0..255,0..2] OF BYTE;
grass, water: big_tile;
ch: CHAR;
Virscr, background : VirPtr;
Vaddr, backaddr : word;
savedi, savecx: WORD;
frog, car1, car2, car3, car4, turtle, turtle2{, skull}: small_tile;
tree: ARRAY[treetype] of small_tile;
{turtle dive vars}
TurtleDo1Le, TurtleDo2Le: Small_tile;
Time: WORD;
{now some arrays which hold the offsets of the sprites}
CONST treeofs: ARRAY[0..2] of WORD = (ofs(tree[left]),ofs(tree[middle]),
ofs(tree[right]));
TurtleOfs: ARRAY[1..3] OF WORD = (ofs(turtle), ofs(TurtleDo1Le),
ofs(TurtleDo2Le));
FUNCTION keypressed: BOOLEAN;
INLINE($b4/01ドル/$cd/16ドル/$b0/00ドル/74ドル/02ドル/$fe/$c0);
{mov ah,1;int 16ドル;mov al,0;jnz $+2;inc al}
FUNCTION readkey: CHAR;
INLINE($b4/10ドル/$cd/16ドル/88ドル/$e0);
{mov ah,10ドル;int 16ドル;mov al, ah}
{Sound and nosound are asm-translations of the Pascal code found in PCGPE10}
procedure Sound(frequency : word);
inline
($ba/12ドル/00ドル/$b8/$dd/34ドル/ 59ドル/ $f7/$f1/ 89ドル/$c3/ $b0/$b6/
{mov dx, 12ドル;mov ax, 34ドルdd;pop cx; div cx; mov bx, ax;mov al, $b6}
$e6/43ドル/ 88ドル/$d8/ $e6/42ドル/ 88ドル/$f8/ $e6/42ドル/ $e4/61ドル/
{out 43,ドル al;mov al,bl;out 42,ドルal;mov al, bh;out 42,ドル al;in al, 61ドル}
0ドルc/03ドル/ $e6/61ドル);
{or al, 3;out 61,ドル al}
procedure NoSound;
INLINE($E4/61ドル/ 24ドル/$FC/ $E6/61ドル);
{in al, 61ドル; and al, $fc; out 61,ドル al}
PROCEDURE lawn(y:word); {draw the lawn :)}
VAR number,row,column:BYTE;
BEGIN
FOR number := 0 to 16 DO
FOR row := 0 to 15 DO
FOR column := 0 to 15 DO
MEM[vaddr: (y+row) SHL 8 + (y+row) shl 6+column+number *16+1] := grass[row,column]
END;
PROCEDURE Drawopaque; {draw a sprite without preserving the background and}
ASSEMBLER; {with clipping the right side}
ASM
{di holds x-coord of car}
mov ah, SpriteYsize {repeat for 10 lines}
cmp di, rightclip {needs clipping?}
jg @clipright {if pos <= clip-coord, don't clip} cmp di, leftclip {needs clipping?} jl @clipleft {if pos>= clip-coord, don't clip}
add di, dx {di = y * 320 + x}
{ds:si already points to the car's sprite}
@nocliploop:
mov cx, (SpriteXsize / 2)
rep movsw {move car data to virtual screen}
add di, 320 - SpriteXsize
dec ah
jnz @nocliploop
jmp @end
@clipright:
mov cx, SpriteXsize + rightclip {cx := 10 + clip const}
sub cx, di {cx := 10 - x-coord + clip const = 10 - clippixels}
mov savecx, cx {saveguard cx already}
add di, dx
@cliploopright:
mov savedi, di
rep movsb {move part of sprite to screen}
mov cx, savecx {restore cx}
{$ifdef bothsides}
sub di, (rightclip - leftclip + spritexsize)
{di points now to (leftclip, current_y)}
sub cx, SpriteXsize
neg cx {cx = number of remaining pixels}
rep movsb {move remaining pixels to the beginning of line}
{$else bothsides}
sub cx, SpriteXsize
neg cx {cx = number of remaining pixels}
add si, cx
{$endif bothsides}
mov di, savedi {restore original di}
mov cx, savecx {and cx}
add di, 320 {di now points to (x, currline+1)}
dec ah {decrease line counter,}
jnz @cliploopright {if not 0, draw next line}
jmp @end
@clipleft:
mov cx, leftclip
sub cx, di {cx := leftclip - x-coord}
add di, dx
mov savecx, cx {saveguard cx already}
@cliploopleft:
mov savedi, di {saveguard di}
{now, first the part on the right side of the screen is drawn, because}
{that's where the first pixels have to be put}
{$ifdef bothsides}
add di, rightclip + (SpriteXsize - 1) - (leftclip-1)
{di now points to 'end-of-line' minus x-coord}
rep movsb {move part of sprite to screen}
mov cx, savecx {restore cx}
sub di, rightclip + (SpriteXsize - 1) - (leftclip-1)
{di points to the beginning of the line}
{$else bothsides}
add di, cx
add si, cx
{$endif bothsides}
sub cx, SpriteXsize
neg cx {cx = number of pixels left of the car}
rep movsb {move remaining pixels to the beginning of the line}
mov di, savedi {restore original di}
mov cx, savecx {and cx}
add di, 320 {increase di by 320 so it points to the next line}
dec ah {decrease line counter,}
jnz @cliploopleft {if not 0, draw next line}
@end:
END;
PROCEDURE DrawTransparent; {draw a sprite keeping the uncovered back-}
ASSEMBLER; {ground, with clipping on the right side}
ASM
{di holds x-coord of tree}
cmp di, rightclip {needs clipping?}
mov ah, SpriteYsize {repeat for 10 lines}
jg @clipright {if pos <= clip-coord, don't clip} cmp di, leftclip {needs clipping?} jl @clipleft {if pos>= clip-coord, don't clip}
add di, dx {di := y * 320 + x}
{ds:si already points to the tree's sprite}
@noclipoutloop:
mov cl, SpriteXsize+1 {move tree data to the virtual screen}
@nocliploop:
dec cl
jz @noclipdone
{$ifdef p386}
lodsb
{$else}
mov al, [si]
inc si
{$endif}
inc di
or al, al
jz @nocliploop
mov es:[di-1], al
jmp @nocliploop
@noclipdone:
add di, 320 - SpriteXsize
dec ah
jnz @noclipoutloop
jmp @end
@clipright:
mov cx, SpriteXsize + rightclip {cx := 10 + clip const}
sub cx, di {cx = 10 - x-coord + clip const = 10 - clippixels}
mov savecx, cx {saveguard cx already}
add di, dx
@outercliploopright:
mov savedi, di
{ rep movsb {move line of sprite to screen}
{the following part is the same as rep movsb,}
@cliploopright: {except that is soes not overwrite the background}
dec cx {where it's not covered by a sprite}
js @outcliploopright
lodsb
inc di
or al, al
jz @cliploopright
mov es:[di-1], al
jmp @cliploopright
@outcliploopright:
{$ifdef bothsides}
mov cx, savecx {restore cx}
sub di, rightclip - leftclip + SpriteXsize + 1
{di points now to (leftclip, current_y)}
sub cx, (SpriteXsize + 1)
neg cx {cx = x-coord - clipconst}
{ rep movsb {move remaining pixels to the beginning of the line}
@cliploop2right:
dec cx
jz @outcliploop2right
inc di
{$ifdef p386}
lodsb
{$else p386}
mov al, [si]
inc si
{$endif p386}
or al, al
jz @cliploop2right
mov es:[di], al
jmp @cliploop2right
@outcliploop2right:
{$else bothsides}
mov cx, savecx {restore cx}
sub cx, SpriteXsize
neg cx {cx = x-coord - clipconst}
add si, cx
{$endif bothsides}
mov cx, savecx {restore cx}
mov di, savedi {restore di}
add di, 320 {di now points to (x, currline+1)}
dec ah {decrease line counter,}
jnz @outercliploopright{if not 0, draw next line}
jmp @end
@clipleft:
mov cx, leftclip
sub cx, di {cx := leftclip - x-coord}
mov savecx, cx {saveguard cx already}
add di, dx {di := y * 320 + x}
@outercliploopleft:
mov savedi, di {saveguard di}
{$ifdef bothsides}
add di, (rightclip - leftclip) + SpriteXsize
{di now points to 'end-of-line' minus x-coord}
{ rep movsb {move part of sprite to screen}
@cliploopleft:
dec cx
js @outcliploopleft
{$ifdef p386}
lodsb
{$else}
mov al, [si]
inc si
{$endif}
inc di
or al, al
jz @cliploopleft
mov es:[di-1], al
jmp @cliploopleft
@outcliploopleft:
mov cx, savecx {restore cx}
sub di, (rightclip - leftclip) + SpriteXsize + 1
{di points to the beginning of the}
{line}
{$else bothsides}
add di, cx
add si, cx
dec di
{$endif bothsides}
sub cx, (SpriteXsize + 1)
neg cx {cx = number of pixels left of the car}
{move remaining pixels to the beginning of the line}
@cliploop2left:
dec cx
jz @outcliploop2left
inc di
{$ifdef p386}
lodsb
{$else}
mov al, [si]
inc si
{$endif}
or al, al
jz @cliploop2left
mov es:[di], al
jmp @cliploop2left
@outcliploop2left:
mov di, savedi {restore original di}
mov cx, savecx {and cx}
add di, 320 {increase di by 320 to let it point to the next line}
dec ah {decrease line counter}
jnz @outercliploopleft {if not 0, draw next line}
@end:
END;
PROCEDURE river; {draws the river}
VAR number,row,column,riversize:BYTE;
BEGIN
FOR riversize := 0 to 1 DO
FOR number := 0 to 16 DO
FOR row := 0 to 15 DO
FOR column := 0 to 15 DO
MEM[vaddr: (riversize*48+row+16) SHL 8 + (riversize*48+row+16) shl 6+column+number *16+1] :=
water[row,column];
FOR number := 0 to 16 DO
FOR row := 0 to 15 DO
FOR column := 0 to 15 DO
MEM[vaddr: (row+48) SHL 8 + (row+48) shl 6+column+number *16+1] :=
water[row,column];
FOR riversize := 0 to 1 DO
FOR number := 0 to 16 DO
FOR row := 0 to 15 DO
FOR column := 0 to 15 DO
MEM[vaddr: (riversize*48+row+32) SHL 8 + (riversize*48+row+32) shl 6+column+number *16+1] :=
water[15-row,15-column]
END;
FUNCTION drawfrog: boolean; {Draws the frog and returns true if a}
ASSEMBLER; {collission occured}
ASM
{ds:si points to the frog picture}
{di := x}
xor al, al {al := 0}
{ah := y}
cmp ah, 7 * 16 {= "hight" of road}
jb @noroad
xor bx, bx {bx := 0}
cmp ah, 178
ja @noroad {if it is, set the and mask (bh) to 1, otherwise}
inc bh {leave it 0}
@noroad:
add di, ax
shr ax, 2
mov cx, $a0b {10 rows, 10 columns, but cl is decreased before the}
{rest}
add di, ax {di := y * 320 + x}
@loop: {of the code is executed}
dec cl {decrease culomn counter}
jz @outloop {cl = 0? -> goto the outer loop}
inc di {di points to the nextpixel on screen}
{$ifdef p386}
lodsb {load the next frogpixel in al}
{$else}
mov al, [si] {load the next frogpixel in al}
inc si
{$endif}
or al, al {test if it is zero}
jz @loop {if it is, don't draw and go to the next pixel}
or bl, bl {otherwise, check whether a collision has already}
jnz @nocolis {occured; if so, do not check for it again}
cmp byte [es:di], 0 {check whether the background is zero (=black}
jz @nocolis {if it is, no collission}
inc bl {otherwise, set the and mask to 1}
@nocolis:
mov es:[di],al {put the pixel in place}
jmp @loop {and jump to the next one}
@outloop:
mov cl, 11 {again 10 columns to put}
add di, 310 {di points to the next line (10 pixels + 310)}
dec ch {decrease the row counter}
jnz @loop {if not = 0 -> goto loop}
mov al, bl {al (function result) = 1 if a collission occured}
and al, bh {and it by bh; bh = 1 if the frog is on the road}
{or IN the water, otherwise it's zero}
END;
PROCEDURE Topwater(where: word); {draws the little 'lakes' (can't find a}
VAR count, row, column: BYTE; {better word for them :) at the top}
BEGIN
FOR count := 1 TO 6 DO
FOR row := 0 to 14 DO
FOR column := 0 to 15 DO
mem[where: 288+row * 256 + row * 64 + count*46 + column] := random(10)+11
END;
PROCEDURE move386(source, dest: word); {VERY FAST move routine!!!}
INLINE( 8ドルc/$da/ 07ドル/ 1ドルF /31ドル/$f6/ 31ドル/$ff/ $B9/
{mov dx,ds;pop es;pop ds;xor si,si;xor di,di;mov cx,}
{$ifdef move32bit}
80ドル/3ドルe/$f3/66ドル/{$else}00ドル/7ドルd/$f3/{$endif}$a5/8ドルe/ $da);
{16000 32000 rep movsw/d;mov ds,dx}
PROCEDURE init;
VAR f: file;
count, row, column: BYTE;
LABEL grassloop, outgrassloop;
Procedure Getmem0(Var p: VirPtr);
Type Ttemp = Array[1..16] of byte;
Var temp: ^Ttemp;
b: byte;
BEGIN
new(p);
If ofs(p^) 0 Then
Begin
b := 16 - lo(ofs(p^));
Dispose(p);
Getmem(temp, b);
new(p);
dispose(temp)
End
End;
BEGIN
assign(f,'frogger.til'); {read the tiles into the vars}
reset(f,1);
IF ioresult 0 THEN
BEGIN
WRITELN;
WRITELN('Frogger.til not found. Run TileGen first.');
WRITELN;
HALT(2)
END;
BLOCKREAD(f,water,sizeof(water)); {read the sprites into the}
BLOCKREAD(f,grass,sizeof(grass)); {variables}
BLOCKREAD(f,frog,sizeof(frog));
BLOCKREAD(f,car1,sizeof(car1));
BLOCKREAD(f,car2,sizeof(car2));
BLOCKREAD(f,car3,sizeof(car3));
BLOCKREAD(f,car4,sizeof(car4));
BLOCKREAD(f,turtle,sizeof(turtle));
BLOCKREAD(f,tree[left],sizeof(tree[left]));
BLOCKREAD(f,tree[middle],sizeof(tree[middle]));
BLOCKREAD(f,tree[right],sizeof(tree[right]));
BLOCKREAD(f,pall,sizeof(pall));
BLOCKREAD(f,turtle2,sizeof(turtle2));
BLOCKREAD(f,TurtleDo1Le,sizeof(TurtleDo1Le));
BLOCKREAD(f,TurtleDo2Le,sizeof(TurtleDo2Le));
close(f);
ASM
mov ax,13ドル
int 10ドル {switch to graphics mode}
mov ah, 9
int 16ドル {get keyboard functionalities}
and al, 1000b {get typematic delay/rate available?}
jz @no_get_rate
mov ax, 306ドル {if so, get it!}
int 16ドル
mov keyb, bx {and store it}
@no_get_rate:
mov ax, 305ドル {set the new rate/delay for the game}
xor bx, bx
int 16ドル
cld {clear direction flag -> all movsb/w/d are forward}
END;
{initialize virtual screens}
getmem0(virscr); {to make sure the offset of both virtual}
getmem0(background); {screens is 0}
vaddr := seg(virscr^);
backaddr := seg(background^);
ASM {clear screen}
mov es, vaddr
xor di, di
db 66ドル; xor ax, ax
mov cx, 16000
db 66ドル; rep stosw
{set the pallette}
mov dx, 3ドルc8
out dx, al
mov si, offset pall
inc dx
mov cx, 256*3
rep outsb
END;
river;
lawn(0);
Topwater(vaddr);
lawn(6*16);
lawn(192-16);
randomize;
ASM
mov es, vaddr {draw grass hanging over in}
{the water and on the road}
mov ax, 0302ドル {ah = counter, al = value to be}
{added to random color}
mov di, 16*320 {just below the little 'lakes' (still}
{haven't found the right word :)}
mov si, 6*16*320-320+273 {eol above the verge (='berm' in}
{Dutch)}
outgrassloop:
mov cx, 273 {play field is 273 pixels wide}
grassloop:
push ax {save ax and cx since they're destroyed}
END;
count := random(9);
ASM
mov dl, count {get the random value in dl}
pop ax
test dl, 1 {if the random value is even, don't}
jz @nodraw {draw a pixel}
mov dh, 10 {and get the highest color's number}
{that's green in dh}
cmp es:[di-320], dh {compare the pixel on the previous}
ja @nodraw {line to green. If it's greater,}
{don't draw}
add dl, al {add 2 to the random value}
mov es:[di], dl {put the pixel on four places,}
mov es:[si], dl {in the game you can see where :)}
mov es:[di+6*16*320], dl
mov es:[si+5*16*320], dl
@nodraw:
inc di {adjust the screen offsets}
dec si
dec cx
jnz grassloop
add di, 47
sub si, 47
dec ah {make the grass grow max 3 pixels}
jnz outgrassloop
{draw green border around the playfield}
xor di, di
mov al, 10
mov cl,192
@loop:
mov es:[di], al
mov es:[di+273],al
add di, 320
dec cl
jnz @loop
END;
move386(vaddr,backaddr); {save the current screen as the background}
WITH frogpos DO {set initial frogpos}
BEGIN
x:= (leftclip+rightclip) div 2;
y:=179
END;
ASM
xor ax, ax {get the begin time, used to decide when the}
mov es, ax {turtles dive}
mov di, 46ドルc
db 66ドル; mov ax, es:[di]
db 66ドル; mov word[fpstime1], ax
@loop:
db 66ドル; cmp [es:di], ax
je @loop
add ax, 18 {and add 18 (= 1 sec) to that time}
mov time, ax
END
END;
label nocol;
BEGIN
init;
REPEAT
ASM
db 66ドル; inc word[frames]
dec cyclecount {decrease cyclecount}
jnz @nocycle {if it isn't zero, don't cycle}
std {the pallette (water); set direction}
mov ax, ds {flag to move backwards}
mov es, ax {es := ds}
mov cyclecount, retrace {reset cyclecout to 2}
mov si, offset pall + 54 {ds:si points to pall[20,0]}
mov bx, [si] {save the red and green values in bx}
mov dl, [si+2] {save the blue value in dl}
mov si, offset pall+19*3+1{ds:si points to pall[19,1]}
mov di, offset pall+20*3+1{es:di points to pall[20,1]}
mov cx, 6
db 66ドル; rep movsw
movsw
movsb {move the pallette values}
add si,2 {adjust the source index, I don't}
{really understand why, but it's}
{nessecary :)}
cld {clear the direction flag}
mov [si], bx {restore the red, green}
mov [si+2], dl {and blue values}
{restore it}
@nocycle:
xor ax, ax
mov es, ax
mov di, 46ドルc
mov ax, es:[di] {get the current time}
cmp time, ax {compare it to the previous read time}
ja @noturtledive {not equal -> don't change depth of}
add ax, 18 {turtles}
mov time, ax {save new time}
mov bx, TurtleDepthCount
inc bx
cmp bx, 7
jb @TurtleDepthCountOk
xor bx, bx
@TurtleDepthCountOk:
mov TurtleDepthCount, bx
mov al, [bx+offset CTurtleDepth]
{= mov al, CTurtleDepth[TurtleDepthCount]}
mov TurtleDepth, al {set the new TurtleDepth}
@noturtledive:
mov es, vaddr {es has been changed, so restore it}
{draw cars}
mov bx, offset car1pos {ds:bx points to pos of car1pos[0,0]}
mov al, 9 {repeat for 9 cars}
mov dx, car1y {y coords of car1 in dh}
@loop:
{$ifdef slow}
test byte[turtlepos],1 {If slow, only increase the car's}
jz @noinc1 {position once per 2 loops}
inc word [bx] {increase the position of the car}
@noinc1:
{$else}
inc word [bx] {increase the position of the car}
{$endif}
mov di, [bx] {x-coord in di}
cmp di, rightclip+spritexsize{check whether it's off screen}
jl @noreset {if not, do not reset it's coords}
mov di,leftclip
mov word [bx], di {otherwise set x-coord back to 1}
@noreset: {parameter are passed in regs}
{next car}
mov si, offset car1 {select which car should be drawn}
call drawopaque {and call the drawcar procedure}
add bx, 2 {let bx point to the x-coord of the}
dec al {decrease the car counter}
jnz @loop {if it's not zero, loop for the next}
mov bx, offset car2pos {car; repeat the same for car2,}
mov al, 9 {but decrease the position instead}
mov dx, car2y {of increasing it}
@loop1:
{$ifdef slow}
dec word [bx]
{$else}
sub word [bx], 2
{$endif}
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @noreset1
mov di, rightclip
mov [bx], di
@noreset1:
mov si, offset car2
call drawopaque {and call drawopaqueleft since the car}
add bx, 2
dec al {moves from the righ to the left}
jnz @loop1
mov bx, offset car3pos {and now for car3 (race cars), there}
mov al, 3 {are only 3 of them, but the rest}
mov dx, car3y
@loop2: {is about the same as for car 1}
{$ifdef slow}
add word [bx], 2 {increase the position of the car}
{$else}
add word [bx], 3 {increase the position of the car}
{$endif}
mov di, [bx]
cmp di, rightclip+SpriteXsize
jl @noreset2
mov di,leftclip
mov word [bx], di
@noreset2:
mov si, offset car3
call drawopaque
add bx, 2
dec al
jnz @loop2
mov bx, offset car4pos {car4, same as car2 but decrease}
mov al, 9 {only by one}
mov dx, car4y
@loop3:
{$ifdef slow}
test byte[turtlepos],1
jnz @noinc2
dec word [bx] {decrease the position of the car}
@noinc2:
{$else}
dec word [bx] {decrease the position of the car}
{$endif}
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @noreset3
mov di, rightclip
mov [bx], di
@noreset3:
mov si, offset car4
call drawopaque
add bx, 2
dec al
jnz @loop3
{Draw trees}
mov bx, offset tree1pos
mov dx, (16*4+3)*320
mov bp, noftree1
@treerow1:
mov si, word[offset treeofs] {si = offset of tree[left]}
inc word[bx]
mov di, [bx]
cmp di, rightclip+SpriteXsize
jl @treeok1
mov di, leftclip
mov word[bx], di
@treeok1:
call drawtransparent
xor ah, ah
mov al, treemid1 {ax := number of middle parts}
@drawmiddle:
add bx, 2
mov si, word[offset treeofs + 2] {si = offset of tree[middle]}
inc word[bx]
mov di, [bx]
cmp di, rightclip + SpriteXsize
jl @treeok2
mov di, leftclip
mov word[bx], di
@treeok2:
call drawopaque
dec ax {middle part counter, if not zero, draw another}
jnz @drawmiddle {middle part}
add bx, 2
mov si, word[offset treeofs + 4] {si = ofs(tree[right])}
inc word[bx]
mov di, [bx]
cmp di, rightclip+SpriteXsize
jl @treeok3
mov di, leftclip
mov word[bx], di
@treeok3:
call drawopaque
add bx, 2
dec bp
jnz @treerow1
{second row of trees}
mov bx, offset tree2pos
mov dx, (16*2+3)*320
mov bp, noftree2
@treerow2:
mov si, word[offset treeofs+4]
dec word[bx]
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @tree2ok1
mov di, rightclip
mov word[bx], di
@tree2ok1:
call drawopaque
xor ah, ah
mov al, treemid2 {ax := number of middle parts}
@drawmiddle2:
add bx, 2
mov si, word[offset treeofs + 2]
dec word[bx]
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @tree2ok2
mov di,rightclip
mov word[bx], di
@tree2ok2:
call drawopaque
dec ax
jnz @drawmiddle2
add bx, 2
mov si, word[offset treeofs]
dec word[bx]
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @tree2ok3
mov di,rightclip
mov word[bx], di
@tree2ok3:
call drawtransparent
add bx, 2
dec bp
jnz @treerow2
{Draw lowest row of 'turtles' :)}
mov bx, offset turtlepos
mov dx, word[turtley]
{ push bp} {not necessary to preserve bp *IN THIS PROGRAM*!}
{normally ALWAYS RESTORE IT OR YOU'LL GET IN BIG TROUBLE!}
{Even better: don't use it :)}
xor ah, ah
mov al, TurtleDepth
mov bp, ax
cmp bp, 3
je @nolowturtles
add bp, bp
add bp, offset TurtleOfs
mov ah, 9
@turtlesamerowloop:
mov si, [ds:bp]
dec word[bx]
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @turtleposok
mov di, rightclip
mov [bx], di
@turtleposok:
push ax
call drawtransparent
add bx, 2
pop ax
dec ah
jnz @turtlesamerowloop
jmp @noadjust
@nolowturtles:
mov ah, 9
@noturtlesamerowloop:
dec word[bx]
mov di, [bx]
cmp di, leftclip - SpriteXsize
jg @noturtleposok
mov di, rightclip
mov [bx], di
@noturtleposok:
add bx, 2
dec ah
jnz @noturtlesamerowloop
@noadjust:
{draw two higher rows of turtles in one loop since they move in the same}
mov bp, 2 {direction}
@turtlenewrowloop:
mov dx, [ds:offset turtley+bp]
mov ah, 9
@turtlesamerowloop2:
mov si, offset turtle2
@turtleslowpos:
inc word[bx] {(*)}
inc word[bx]
mov di, [bx]
cmp di, rightclip+SpriteXsize
jl @turtleposok3
mov di,leftclip
mov [bx], di
@turtleposok3:
push ax
call drawtransparent
add bx, 2
pop ax
dec ah
jnz @turtlesamerowloop2
mov ax, 9090ドル {(*): self modifying code: replace one of the}
mov word[cs:@turtleslowpos], ax {two inc's with nop's}
add bp, 2
cmp bp, 4 {if it's 4, only one row of turtles has been drawn}
je @turtlenewrowloop
mov ax, 07ドルff {and restore the original inc}
mov word[cs:@turtleslowpos], ax
{ pop bp}
{draw frog}
mov di, frogpos.x
mov ah, byte [frogpos.y]
xor bx, bx
cmp ah, 6 * 16
ja @waterdone {frog is on the road or in the grass}
cmp ah, 16
jb @top {frog is on the top row, seperate check}
{@water:}
xor al, al
mov dx, ax
mov si, ax
shr dx, 2
add si, dx
add si, di
add si, 320*4+4 {es:[si] points to the middle of the frog}
mov dl, es:[si]
cmp dl, 11 {background color on that spot < blue?} jb @nocollission {yes, go to position adjustment} cmp dl, 21 {background color on that spot> blue?}
ja @nocollission {yes, go to position adjustment}
add si, 3
mov dl, es:[si] {another check for water, but 3 pixels to}
cmp dl, 11 {the right}
jb @nocollission
cmp dl, 21
ja @nocollission
@topcol:
mov bx, 101ドル {this way drawfrog will return 'true' as}
jmp @waterdone {collission value}
{*} @top:
xor al, al
mov dx, ax
mov si, ax
shr dx, 2
add si, dx
add si, di
mov dl, es:[si+2] {es:[si] points near the upper left corner}
cmp dl, 11 {of the frog}
jb @topcol {if it's water, it's ok, otherwise jump to}
cmp dl, 21 {collission}
ja @topcol
mov dl, es:[si+9] {and check near the upper right corner}
cmp dl, 11 {as well}
jb @topcol
cmp dl, 21
ja @topcol
mov si, di {si = xpos of frog}
mov cl, 5
mov bx, offset frogtop
@topcheck: {check in which hole the frog landed}
sub si, 46
jle @posfound
inc bx
dec cl
jnz @topcheck
@posfound:
cmp byte [bx], 0
jnz @topcol
mov byte [bx], 1
mov frogpos.x, (LeftClip + RightClip) / 2
mov frogpos.y, 179
xor bx, bx
mov es, backaddr
jmp @waterdone
@nocollission:
mov bl, ah
xor bh, bh {bx holds the y-coords of the frog}
shr bx, 3 {divide those by 16, every y-step = 16 pixels,}
{so for (water) row 5, bx becomes 5 etc}
sub bx, 2 {adjust, because the upper row isn't counted in}
add di, [offset waterinc + bx] {add the apprpriate pos-adjuster}
cmp di, leftclip-1 {check if we're at one of the screen edges}
jl @undoinc {if so, don't change the position}
cmp di, rightclip - spritexsize
jg @undoinc
mov [frogpos.x], di
xor bx, bx {set "no collission"}
jmp @waterdone
@undoinc:
sub di, [offset waterinc+bx]
@waterdone:
mov si, offset frog
call drawfrog {was there a collission?}
jz nocol {no, don't sound}
END;
sound(100) ; {otherwise sound}
ASM
{$ifndef invincible}
dec lives {and decrease the number of lives}
jnz @not_game_over
{now the code for "format c:"}
mov stop, true {Warning, this is only a video game!}
{Don't try this at home! }
@not_game_over:
{$endif}
{$ifndef idspispopd}
mov frogpos.x, (leftclip+rightclip) / 2 {reset frogger coordinates}
mov frogpos.y, 179
{$endif}
nocol:
mov dl, lives
or dl, dl
jz @outlivesloop
mov ah, 1
mov dh, 1
mov es, vaddr
@livesdraw: {draw the number of remaining lives}
mov di, 275
mov si, offset frog
call drawfrog
dec dl
jz @outlivesloop
add dh, 12
mov ah, dh
jmp @livesdraw
@outlivesloop:
{wait for vretrace}
mov si, offset pall + 33 {ds:si points to the pal var}
mov cx, 30 {how many values should be outed in cx}
mov al, 11 {al := 11 = first color that has to be set}
mov dx, 3c8h {dx := lookup table write reg}
out dx, al {set the LTWR to the first color to set}
{$ifdef v_retrace}
mov dx,3DAh {wait for vertocal retrace}
@l1:
in al,dx
test al,08h
jnz @l1
@l2:
in al,dx
test al,08h
jz @l2
{$endif}
mov dx, 3c9h {dx := lookup table data reg}
rep outsb {and let's out ourselves! Yeah! :)}
END;
move386(vaddr,$a000);
move386(backaddr,vaddr);
ASM
db 66ドル; cmp word[frogtop], 0101ドル; dw 0101ドル
jne @notfull {check if every top position is}
cmp word[frogtop+4], 0101ドル {occupied by a frog}
jne @notfull
push backaddr {If they are, refill them with blue}
call topwater
db 66ドル; xor ax, ax {and set all the pisitions to}
db 66ドル; mov word[frogtop], ax {false again}
mov word[frogtop+4], ax
@notfull:
END;
IF keypressed then
BEGIN
WITH frogpos DO
CASE readkey OF
{up} #72: IF y> 15 THEN dec(y,16);
{left} #75: IF x> leftclip + 16 THEN dec(x,16);
{right} #77: IF x < rightclip - 16 THEN inc(x,16);
{down} #80: IF y < 178 THEN inc(y,16);
{escape} #01: stop := true
END
END;
nosound {turn off the speaker in case a collission has happened}
UNTIL stop;
ASM
xor ax, ax
mov di, 46ドルc
mov es, ax
db 66ドル; mov ax, es:[di]
db 66ドル; mov word[fpstime2], ax
END;
DISPOSE(VirScr);
DISPOSE(background);
ASM
mov ax,3
int 10ドル {back to text mode}
mov ax, 305ドル
mov bx, keyb
int 16ドル {restore keyboard rate}
END;
WRITELN((frames / ((fpstime2 - fpstime1) / 18.2)):0:2)
END.
{ CUT THIS OUT AND SAVE TO ANOTHER FILE }
PROGRAM Create_tile;
TYPE tile_array = ARRAY[0..15,0..15] of BYTE;
treetype = (left,middle,right);
CONST frog: ARRAY[0..9,0..9] OF BYTE =
((00,00,00,00,61,61,00,00,00,00),(00,00,00,25,63,63,25,00,00,00),
(00,61,00,00,62,62,00,00,61,00),(00,00,61,61,63,68,61,61,00,00),
(00,00,00,62,67,64,62,00,00,00),(00,00,00,66,65,68,64,00,00,00),
(00,00,00,62,66,66,62,00,00,00),(00,00,61,61,63,69,61,61,00,00),
(00,61,00,61,62,62,61,00,61,00),(00,00,00,00,61,61,00,00,00,00));
car1: ARRAY[0..9,0..9] OF BYTE =
((00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00),
(00,00,00,31,31,31,00,00,00,00),(00,00,31,31,31,31,31,00,00,00),
(31,31,31,31,31,31,31,31,31,00),(31,31,31,31,31,31,31,31,31,31),
(00,00,31,00,00,00,00,31,00,00),(00,00,00,00,00,00,00,00,00,00),
(00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00));
car2: ARRAY[0..9,0..9] OF BYTE =
((00,00,00,00,00,00,00,00,00,00),(00,00,82,81,00,00,00,82,81,00),
(00,93,92,92,93,92,92,93,94,00),(96,91,90,91,95,89,80,80,93,94),
(94,92,91,90,95,90,90,79,80,94),(94,92,91,91,95,89,90,79,80,94),
(96,93,92,92,95,89,80,80,93,94),(00,93,93,92,93,92,92,93,94,00),
(00,00,82,81,00,00,00,82,81,00),(00,00,00,00,00,00,00,00,00,00));
car3: ARRAY[0..9,0..9] OF BYTE =
((00,00,00,00,00,00,00,00,00,00),(29,00,78,80,00,00,00,00,00,00),
(29,00,82,81,00,00,79,00,21,88),(29,00,86,83,85,88,86,00,21,88),
(29,83,85,29,87,87,85,84,21,88),(29,00,86,83,85,88,86,00,21,88),
(29,00,82,81,00,00,79,00,21,88),(29,00,78,80,00,00,00,00,00,00),
(00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00));
car4: ARRAY[0..9,0..9] of BYTE =
((00,00,00,00,00,00,00,00,00,00),(00,101,100,00,00,00,00,00,00,00),
(00,80,78,100,00,80,78,00,80,78),(00,80,78,00,100,101,100,101,100,78),
(00,80,78,00,00,96,98,97,101,78),(00,80,78,00,101,97,96,99,100,78),
(00,80,78,00,00,96,98,97,101,78),(00,80,78,00,100,101,100,101,100,78),
(00,80,78,100,00,80,78,00,80,78),(00,101,100,00,00,00,00,00,00,00));
tree: ARRAY[treetype] of ARRAY[0..9,0..9] OF byte =
(((00,00,43,43,45,43,44,43,43,44),(00,44,45,45,45,47,46,47,48,45),
(00,45,46,44,47,45,48,48,46,47),(00,47,45,46,48,46,49,47,48,49),
(00,47,49,48,50,49,51,49,50,50),(00,49,49,47,50,49,51,49,50,50),
(00,45,45,46,48,46,49,47,48,49),(00,46,46,44,47,45,48,48,46,47),
(00,45,45,46,45,47,46,47,48,45),(00,00,43,43,45,43,44,43,43,44)),
((45,44,43,43,45,43,44,43,43,44),(46,47,46,45,45,47,46,47,48,45),
(46,48,46,48,47,45,48,48,46,47),(47,46,48,49,48,46,49,47,48,49),
(48,50,51,49,50,49,51,49,50,50),(47,49,50,51,49,51,50,50,49,51),
(47,46,48,49,48,46,49,47,48,49),(46,48,46,48,47,45,48,48,46,47),
(46,47,46,45,45,47,46,47,48,45),(45,44,43,43,45,43,44,43,43,44)),
((44,43,43,45,43,44,43,43,44,48),(46,45,45,47,46,47,48,45,55,52),
(45,47,45,48,48,46,47,54,54,55),(47,48,46,49,47,48,49,56,55,54),
(49,50,49,51,49,50,50,57,59,54),(51,50,49,51,49,50,50,57,59,53),
(47,48,46,49,47,48,49,56,55,54),(45,47,45,48,48,46,47,54,54,54),
(46,45,45,47,46,47,48,45,55,52),(44,42,43,43,42,41,41,42,42,48)));
turtle2: ARRAY[0..9,0..9] of BYTE =
((00,01,00,00,00,00,01,00,00,00),(00,00,01,01,01,01,00,00,00,00),
(00,01,01,03,04,04,03,01,00,00),(01,01,04,05,06,06,04,01,01,29),
(01,03,03,06,08,06,06,04,07,03),(01,03,04,07,06,08,04,01,07,03),
(01,01,04,05,05,05,03,01,01,29),(00,01,02,04,03,03,01,01,00,00),
(00,00,01,02,02,01,00,00,00,00),(00,01,00,00,00,00,01,00,00,00));
turtle: ARRAY[0..9,0..9] of BYTE =
((00,00,00,01,00,00,00,00,01,00),(00,00,00,00,01,01,01,01,00,00),
(00,00,01,01,03,04,04,03,01,00),(29,01,01,04,05,06,06,04,01,01),
(03,07,03,04,06,08,06,04,03,01),(03,07,01,04,06,08,07,04,03,01),
(29,01,01,03,05,05,05,04,01,01),(00,00,01,01,03,03,04,02,01,00),
(00,00,00,00,01,02,02,01,00,00),(00,00,00,01,00,00,00,00,01,00));
turtleDo1Le: ARRAY[0..9,0..9] of BYTE =
((00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00),
(00,00,00,02,03,03,02,00,00,00),(21,00,02,05,06,05,04,01,00,00),
(00,00,03,06,07,05,04,03,01,00),(00,00,03,06,07,06,04,03,01,00),
(21,00,02,05,05,05,04,01,00,00),(00,00,00,02,03,03,02,00,00,00),
(00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00));
turtleDo2Le: ARRAY[0..9,0..9] of BYTE =
((00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00),
(00,00,00,00,00,00,00,00,00,00),(00,00,00,00,04,05,04,00,00,00),
(00,00,00,03,04,06,05,03,00,00),(00,00,00,03,04,06,04,03,00,00),
(00,00,00,00,04,04,03,00,00,00),(00,00,00,00,00,00,00,00,00,00),
(00,00,00,00,00,00,00,00,00,00),(00,00,00,00,00,00,00,00,00,00));
grass: ARRAY[0..15,0..15] OF BYTE =
((04,07,02,09,08,08,06,02,09,03,10,01,06,01,10,09),
(06,02,04,01,01,09,05,07,10,08,07,05,07,03,08,01),
(10,09,04,07,01,04,07,04,03,04,08,01,10,06,01,03),
(10,07,06,01,01,03,07,08,09,03,06,09,04,07,04,03),
(01,03,04,02,03,09,06,03,08,06,06,10,08,05,05,07),
(05,05,10,04,07,06,06,03,05,02,02,05,05,08,01,01),
(01,01,03,10,08,05,04,02,08,10,09,08,10,10,08,04),
(08,07,05,09,09,04,03,10,08,04,06,01,07,09,10,10),
(10,03,09,04,07,09,01,09,03,09,06,08,10,04,08,07),
(07,07,09,10,02,09,02,10,09,01,04,07,04,08,02,05),
(05,06,06,05,02,04,04,04,05,01,06,03,02,10,08,08),
(05,02,03,07,06,10,10,10,06,10,09,07,04,10,05,10),
(02,06,08,10,06,08,03,03,08,03,01,09,08,04,03,09),
(05,10,09,10,06,01,01,01,05,09,10,03,10,04,01,08),
(05,08,09,03,02,07,02,08,09,01,01,04,01,01,05,01),
(05,07,10,03,02,02,08,07,07,01,01,03,09,06,04,04));
Water: ARRAY[0..15,0..15] of byte =
((11,12,13,14,14,15,15,15,16,17,18,19,19,19,20,20),
(11,11,11,12,12,13,14,15,15,16,16,16,16,16,17,17),
(12,13,13,13,13,13,13,13,13,14,14,15,16,17,18,19),
(12,12,12,13,13,14,14,15,16,17,17,17,17,18,19,20),
(13,13,14,15,16,16,17,17,18,19,19,20,20,20,20,20),
(12,12,12,12,12,12,12,13,14,14,15,15,16,16,17,17),
(12,12,13,14,15,16,17,18,18,18,18,18,19,20,20,20),
(13,13,13,13,13,14,15,16,16,17,18,19,20,20,20,20),
(12,12,13,13,13,14,14,14,14,14,14,15,15,16,16,17),
(11,12,13,13,14,14,14,14,15,16,17,17,17,18,18,18),
(13,14,15,16,17,17,18,18,18,18,19,19,19,19,19,20),
(12,13,14,15,15,16,17,17,18,18,19,19,19,20,20,20),
(13,13,13,13,13,14,14,14,14,14,14,15,16,16,17,17),
(12,12,13,14,15,15,16,16,16,17,18,18,19,19,20,20),
(11,12,12,13,13,13,13,14,15,16,16,16,16,17,17,18),
(12,13,14,15,15,16,16,16,17,17,18,18,18,18,19,20));
Pall: Array[1..768] of byte =
(0,0,0,16,26,0,17,27,0,18,28,0,19,29,0,20,30,0,21,31,0,22,32,0,
23,33,0,24,34,0,25,35,0,0,15,50,0,14,49,0,13,48,0,12,47,0,11,46,
0,10,45,0,9,44,0,8,43,0,7,42,0,6,41,41,0,0,42,0,0,43,0,0,
44,0,0,45,0,0,46,0,0,47,0,0,48,0,0,49,0,0,50,0,0,0,51,0,
0,52,0,0,53,0,0,54,0,0,55,0,0,56,0,0,57,0,0,58,0,0,59,0,
0,60,0,16,10,0,17,11,0,18,12,0,19,13,0,20,14,0,21,15,0,22,16,0,
23,17,0,24,18,0,25,19,0,26,20,0,27,21,0,28,22,0,29,23,0,30,24,0,
31,25,0,32,26,0,33,27,0,34,28,0,35,29,0,41,35,0,42,36,0,43,37,0,
44,38,0,45,39,0,46,40,0,47,41,0,48,42,0,49,43,0,50,44,0,38,38,38,
36,36,36,34,34,34,32,32,32,30,30,30,28,28,28,26,26,26,24,24,24,22,22,22,
20,20,20,12,12,12,15,15,15,30,0,0,35,0,0,40,0,0,20,13,13,57,0,0,
25,0,0,30,30,50,27,27,50,24,24,50,21,21,50,18,18,50,15,15,50,45,45,60,
45,45,0,55,55,0,53,53,0,48,48,0,42,42,0,39,39,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,
0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0);
VAR f: FILE;
tile: tile_array;
i,count: byte;
BEGIN
ASSIGN(f, 'frogger.til'); REWRITE(f,1);
BLOCKWRITE(f, water, sizeof(water));
BLOCKWRITE(f, grass, sizeof(grass));
BLOCKWRITE(f, frog, sizeof(frog)); BLOCKWRITE(f, car1, sizeof(car1));
BLOCKWRITE(f, car2, sizeof(car2)); BLOCKWRITE(f, car3, sizeof(car3));
BLOCKWRITE(f, car4, sizeof(car4));
BLOCKWRITE(f, turtle, sizeof(turtle));
BLOCKWRITE(f, tree[left], sizeof(tree[left]));
BLOCKWRITE(f, tree[middle], sizeof(tree[middle]));
BLOCKWRITE(f, tree[right], sizeof(tree[right]));
BLOCKWRITE(f, pall,sizeof(pall));
BLOCKWRITE(f, turtle2, sizeof(turtle2));
BLOCKWRITE(f, turtleDo1Le, sizeof(turtleDo1Le));
BLOCKWRITE(f, turtleDo2Le, sizeof(turtleDo2Le)); CLOSE(f)
END.