Fix line endings.

This commit is contained in:
David Brown 2016-06-16 16:14:30 +01:00
parent c64a75bd78
commit a9b273e30a
15 changed files with 5328 additions and 5328 deletions

View file

@ -1,52 +1,52 @@
MODULE LSB; (*Lola System Compiler Base LSBX, 26.9.2015*) MODULE LSB; (*Lola System Compiler Base LSBX, 26.9.2015*)
IMPORT Texts, Oberon; IMPORT Texts, Oberon;
CONST CONST
bit* = 0; array* = 1; unit* = 2; (*type forms*) bit* = 0; array* = 1; unit* = 2; (*type forms*)
(*tags in output*) const* = 1; typ* = 2; var* = 3; lit* = 4; sel* = 7; range* = 8; cons* = 9; (*tags in output*) const* = 1; typ* = 2; var* = 3; lit* = 4; sel* = 7; range* = 8; cons* = 9;
repl* = 10; not* = 11; and* = 12; mul* = 13; div* = 14; or* = 15; xor* = 16; add* = 17; sub* = 18; repl* = 10; not* = 11; and* = 12; mul* = 13; div* = 14; or* = 15; xor* = 16; add* = 17; sub* = 18;
eql* = 20; neq* = 21; lss* = 22; geq* = 23; leq* = 24; gtr* = 25; eql* = 20; neq* = 21; lss* = 22; geq* = 23; leq* = 24; gtr* = 25;
then* = 30; else* = 31; ts* = 32; next* = 33; then* = 30; else* = 31; ts* = 32; next* = 33;
TYPE TYPE
Item* = POINTER TO ItemDesc; Item* = POINTER TO ItemDesc;
Object* = POINTER TO ObjDesc; Object* = POINTER TO ObjDesc;
Type* = POINTER TO TypeDesc; Type* = POINTER TO TypeDesc;
ArrayType* = POINTER TO ArrayTypeDesc; ArrayType* = POINTER TO ArrayTypeDesc;
UnitType* = POINTER TO UnitTypeDesc; UnitType* = POINTER TO UnitTypeDesc;
ItemDesc* = RECORD ItemDesc* = RECORD
tag*: INTEGER; tag*: INTEGER;
type*: Type; type*: Type;
val*, size*: LONGINT; val*, size*: LONGINT;
a*, b*: Item a*, b*: Item
END ; END ;
ObjDesc* = RECORD (ItemDesc) ObjDesc* = RECORD (ItemDesc)
next*: Object; next*: Object;
name*: ARRAY 32 OF CHAR; name*: ARRAY 32 OF CHAR;
marked*: BOOLEAN marked*: BOOLEAN
END ; END ;
TypeDesc* = RECORD len*, size*: LONGINT; typobj*: Object END ; TypeDesc* = RECORD len*, size*: LONGINT; typobj*: Object END ;
ArrayTypeDesc* = RECORD (TypeDesc) eltyp*: Type END ; ArrayTypeDesc* = RECORD (TypeDesc) eltyp*: Type END ;
UnitTypeDesc* = RECORD (TypeDesc) firstobj*: Object END ; UnitTypeDesc* = RECORD (TypeDesc) firstobj*: Object END ;
VAR root*, top*: Object; VAR root*, top*: Object;
bitType*, integer*, string*: Type; bitType*, integer*, string*: Type;
byteType*, wordType*: ArrayType; byteType*, wordType*: ArrayType;
modname*: ARRAY 32 OF CHAR; modname*: ARRAY 32 OF CHAR;
PROCEDURE Register*(name: ARRAY OF CHAR; list: Object); PROCEDURE Register*(name: ARRAY OF CHAR; list: Object);
BEGIN (*modname := name*) COPY(name, modname); top := list BEGIN (*modname := name*) COPY(name, modname); top := list
END Register; END Register;
BEGIN NEW(bitType); bitType.len := 0; bitType.size := 1; NEW(integer); NEW(string); BEGIN NEW(bitType); bitType.len := 0; bitType.size := 1; NEW(integer); NEW(string);
NEW(byteType); byteType.len := 8; byteType.size := 8; byteType.eltyp := bitType; NEW(byteType); byteType.len := 8; byteType.size := 8; byteType.eltyp := bitType;
NEW(wordType); wordType.len := 32; wordType.size := 32; wordType.eltyp := bitType; NEW(wordType); wordType.len := 32; wordType.size := 32; wordType.eltyp := bitType;
NEW(root); root.tag := typ; root.name := "WORD"; root.type := wordType; root.next := NIL; NEW(root); root.tag := typ; root.name := "WORD"; root.type := wordType; root.next := NIL;
NEW(top); top.tag := typ; top.name := "BYTE"; top.type := byteType; top.next := root; root := top; NEW(top); top.tag := typ; top.name := "BYTE"; top.type := byteType; top.next := root; root := top;
NEW(top); top.tag := typ; top.name := "BIT"; top.type := bitType; top.next := root; root := top NEW(top); top.tag := typ; top.name := "BIT"; top.type := bitType; top.next := root; root := top
END LSB. END LSB.

File diff suppressed because it is too large Load diff

View file

@ -1,165 +1,165 @@
MODULE LSS; (* NW 16.10.93 / 1.9.2015*) MODULE LSS; (* NW 16.10.93 / 1.9.2015*)
IMPORT Texts, Oberon; IMPORT Texts, Oberon;
CONST IdLen* = 32; NofKeys = 11; CONST IdLen* = 32; NofKeys = 11;
(*symbols*) null = 0; (*symbols*) null = 0;
arrow* = 1; times* = 2; div* = 3; and* = 4; plus* = 5; minus* = 6; or* = 7; xor* = 8; not* = 9; arrow* = 1; times* = 2; div* = 3; and* = 4; plus* = 5; minus* = 6; or* = 7; xor* = 8; not* = 9;
eql* = 10; neq* = 11; lss* = 12; leq* = 13; gtr* = 14; geq* = 15; eql* = 10; neq* = 11; lss* = 12; leq* = 13; gtr* = 14; geq* = 15;
at* = 16; apo* = 17; period* = 18; comma* = 19; colon* = 20; rparen* = 21; rbrak* = 22; rbrace* = 23; at* = 16; apo* = 17; period* = 18; comma* = 19; colon* = 20; rparen* = 21; rbrak* = 22; rbrace* = 23;
then* = 24; lparen* = 26; lbrak* = 27; lbrace* = 28; repl* = 29; becomes* = 30; then* = 24; lparen* = 26; lbrak* = 27; lbrace* = 28; repl* = 29; becomes* = 30;
ident* = 31; integer* = 32; ts* = 33; semicolon* = 40; end* = 41; ident* = 31; integer* = 32; ts* = 33; semicolon* = 40; end* = 41;
const* = 51; type* = 52; reg* = 53; var* = 54; out* = 55; inout* = 56; in* = 57; const* = 51; type* = 52; reg* = 53; var* = 54; out* = 55; inout* = 56; in* = 57;
begin* = 58; module* = 59; eof = 60; begin* = 58; module* = 59; eof = 60;
TYPE Ident* = ARRAY IdLen OF CHAR; TYPE Ident* = ARRAY IdLen OF CHAR;
VAR val*: LONGINT; VAR val*: LONGINT;
id*: Ident; id*: Ident;
error*: BOOLEAN; error*: BOOLEAN;
ch: CHAR; ch: CHAR;
errpos: LONGINT; errpos: LONGINT;
R: Texts.Reader; R: Texts.Reader;
W: Texts.Writer; W: Texts.Writer;
key: ARRAY NofKeys OF Ident; key: ARRAY NofKeys OF Ident;
symno: ARRAY NofKeys OF INTEGER; symno: ARRAY NofKeys OF INTEGER;
PROCEDURE Mark*(msg: ARRAY OF CHAR); PROCEDURE Mark*(msg: ARRAY OF CHAR);
VAR p: LONGINT; VAR p: LONGINT;
BEGIN p := Texts.Pos(R); BEGIN p := Texts.Pos(R);
IF p > errpos+2 THEN IF p > errpos+2 THEN
Texts.WriteString(W, " pos "); Texts.WriteInt(W, p, 1); Texts.WriteString(W, " pos "); Texts.WriteInt(W, p, 1);
Texts.WriteString(W, " err: "); Texts.WriteString(W, msg); Texts.WriteString(W, " err: "); Texts.WriteString(W, msg);
Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf) Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf)
END ; END ;
errpos := p; error := TRUE errpos := p; error := TRUE
END Mark; END Mark;
PROCEDURE identifier(VAR sym: INTEGER); PROCEDURE identifier(VAR sym: INTEGER);
VAR i: INTEGER; VAR i: INTEGER;
BEGIN i := 0; BEGIN i := 0;
REPEAT REPEAT
IF i < IdLen THEN id[i] := ch; INC(i) END ; IF i < IdLen THEN id[i] := ch; INC(i) END ;
Texts.Read(R, ch) Texts.Read(R, ch)
UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "Z") & (ch < "a") OR (ch > "z"); UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "Z") & (ch < "a") OR (ch > "z");
IF ch = "'" THEN IF ch = "'" THEN
IF i < IdLen THEN id[i] := ch; INC(i) END ; IF i < IdLen THEN id[i] := ch; INC(i) END ;
Texts.Read(R, ch) Texts.Read(R, ch)
END ; END ;
IF i = IdLen THEN Mark("ident too long"); id[IdLen-1] := 0X IF i = IdLen THEN Mark("ident too long"); id[IdLen-1] := 0X
ELSE id[i] := 0X ELSE id[i] := 0X
END ; END ;
i := 0; i := 0;
WHILE (i < NofKeys) & (id # key[i]) DO INC(i) END ; WHILE (i < NofKeys) & (id # key[i]) DO INC(i) END ;
IF i < NofKeys THEN sym := symno[i] ELSE sym := ident END IF i < NofKeys THEN sym := symno[i] ELSE sym := ident END
END identifier; END identifier;
PROCEDURE Number(VAR sym: INTEGER); PROCEDURE Number(VAR sym: INTEGER);
VAR i, k, h, n, d: LONGINT; VAR i, k, h, n, d: LONGINT;
hex: BOOLEAN; hex: BOOLEAN;
dig: ARRAY 16 OF LONGINT; dig: ARRAY 16 OF LONGINT;
BEGIN sym := integer; i := 0; k := 0; n := 0; hex := FALSE; BEGIN sym := integer; i := 0; k := 0; n := 0; hex := FALSE;
REPEAT REPEAT
IF n < 16 THEN d := ORD(ch)-30H; IF n < 16 THEN d := ORD(ch)-30H;
IF d >= 10 THEN hex := TRUE ; d := d - 7 END ; IF d >= 10 THEN hex := TRUE ; d := d - 7 END ;
dig[n] := d; INC(n) dig[n] := d; INC(n)
ELSE Mark("too many digits"); n := 0 ELSE Mark("too many digits"); n := 0
END ; END ;
Texts.Read(R, ch) Texts.Read(R, ch)
UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "F"); UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "F");
IF ch = "H" THEN (*hex*) IF ch = "H" THEN (*hex*)
REPEAT h := dig[i]; k := k*10H + h; INC(i) (*no overflow check*) REPEAT h := dig[i]; k := k*10H + h; INC(i) (*no overflow check*)
UNTIL i = n; UNTIL i = n;
Texts.Read(R, ch) Texts.Read(R, ch)
ELSE ELSE
IF hex THEN Mark("illegal hex digit") END ; IF hex THEN Mark("illegal hex digit") END ;
REPEAT k := k*10 + dig[i]; INC(i) UNTIL i = n REPEAT k := k*10 + dig[i]; INC(i) UNTIL i = n
END ; END ;
val := k val := k
END Number; END Number;
PROCEDURE comment; PROCEDURE comment;
BEGIN Texts.Read(R, ch); BEGIN Texts.Read(R, ch);
REPEAT REPEAT
WHILE ~R.eot & (ch # "*") DO WHILE ~R.eot & (ch # "*") DO
IF ch = "(" THEN Texts.Read(R, ch); IF ch = "(" THEN Texts.Read(R, ch);
IF ch = "*" THEN comment END IF ch = "*" THEN comment END
ELSE Texts.Read(R, ch) ELSE Texts.Read(R, ch)
END END
END ; END ;
WHILE ch = "*" DO Texts.Read(R, ch) END WHILE ch = "*" DO Texts.Read(R, ch) END
UNTIL (ch = ")") OR R.eot; UNTIL (ch = ")") OR R.eot;
IF ~R.eot THEN Texts.Read(R, ch) ELSE Mark("comment not terminated") END IF ~R.eot THEN Texts.Read(R, ch) ELSE Mark("comment not terminated") END
END comment; END comment;
PROCEDURE Get*(VAR sym: INTEGER); PROCEDURE Get*(VAR sym: INTEGER);
BEGIN BEGIN
REPEAT REPEAT
WHILE ~R.eot & (ch <= " ") DO Texts.Read(R, ch) END; WHILE ~R.eot & (ch <= " ") DO Texts.Read(R, ch) END;
IF R.eot THEN sym := eof IF R.eot THEN sym := eof
ELSIF ch < "A" THEN ELSIF ch < "A" THEN
IF ch < "0" THEN IF ch < "0" THEN
IF ch = "!" THEN Texts.Read(R, ch); sym := repl IF ch = "!" THEN Texts.Read(R, ch); sym := repl
ELSIF ch = "#" THEN Texts.Read(R, ch); sym := neq ELSIF ch = "#" THEN Texts.Read(R, ch); sym := neq
ELSIF ch = "$" THEN Texts.Read(R, ch); sym := null ELSIF ch = "$" THEN Texts.Read(R, ch); sym := null
ELSIF ch = "&" THEN Texts.Read(R, ch); sym := and ELSIF ch = "&" THEN Texts.Read(R, ch); sym := and
ELSIF ch = "'" THEN Texts.Read(R, ch); sym := apo ELSIF ch = "'" THEN Texts.Read(R, ch); sym := apo
ELSIF ch = "(" THEN Texts.Read(R, ch); ELSIF ch = "(" THEN Texts.Read(R, ch);
IF ch = "*" THEN sym := null; comment ELSE sym := lparen END IF ch = "*" THEN sym := null; comment ELSE sym := lparen END
ELSIF ch = ")" THEN Texts.Read(R, ch); sym := rparen ELSIF ch = ")" THEN Texts.Read(R, ch); sym := rparen
ELSIF ch = "*" THEN Texts.Read(R, ch); sym := times ELSIF ch = "*" THEN Texts.Read(R, ch); sym := times
ELSIF ch = "+" THEN Texts.Read(R, ch); sym := plus ELSIF ch = "+" THEN Texts.Read(R, ch); sym := plus
ELSIF ch = "," THEN Texts.Read(R, ch); sym := comma ELSIF ch = "," THEN Texts.Read(R, ch); sym := comma
ELSIF ch = "-" THEN Texts.Read(R, ch); ELSIF ch = "-" THEN Texts.Read(R, ch);
IF ch = ">" THEN Texts.Read(R, ch); sym := then ELSE sym := minus END IF ch = ">" THEN Texts.Read(R, ch); sym := then ELSE sym := minus END
ELSIF ch = "." THEN Texts.Read(R, ch); sym := period ELSIF ch = "." THEN Texts.Read(R, ch); sym := period
ELSIF ch = "/" THEN Texts.Read(R, ch); sym := div ELSIF ch = "/" THEN Texts.Read(R, ch); sym := div
ELSE sym := null ELSE sym := null
END END
ELSIF ch <= "9" THEN Number(sym) ELSIF ch <= "9" THEN Number(sym)
ELSIF ch = ":" THEN Texts.Read(R, ch); ELSIF ch = ":" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := becomes ELSE sym := colon END IF ch = "=" THEN Texts.Read(R, ch); sym := becomes ELSE sym := colon END
ELSIF ch = ";" THEN Texts.Read(R, ch); sym := semicolon ELSIF ch = ";" THEN Texts.Read(R, ch); sym := semicolon
ELSIF ch = "<" THEN Texts.Read(R, ch); ELSIF ch = "<" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := leq ELSE sym := lss END IF ch = "=" THEN Texts.Read(R, ch); sym := leq ELSE sym := lss END
ELSIF ch = "=" THEN Texts.Read(R, ch); sym := eql ELSIF ch = "=" THEN Texts.Read(R, ch); sym := eql
ELSIF ch = ">" THEN Texts.Read(R, ch); ELSIF ch = ">" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := geq ELSE sym := gtr END IF ch = "=" THEN Texts.Read(R, ch); sym := geq ELSE sym := gtr END
ELSIF ch = "?" THEN Texts.Read(R, ch); sym := then ELSIF ch = "?" THEN Texts.Read(R, ch); sym := then
ELSIF ch = "@" THEN Texts.Read(R, ch); sym := at ELSIF ch = "@" THEN Texts.Read(R, ch); sym := at
ELSE sym := null ELSE sym := null
END END
ELSIF ch <= "Z" THEN identifier(sym) ELSIF ch <= "Z" THEN identifier(sym)
ELSIF ch < "a" THEN ELSIF ch < "a" THEN
IF ch = "[" THEN Texts.Read(R, ch); sym := lbrak IF ch = "[" THEN Texts.Read(R, ch); sym := lbrak
ELSIF ch = "]" THEN Texts.Read(R, ch); sym := rbrak ELSIF ch = "]" THEN Texts.Read(R, ch); sym := rbrak
ELSIF ch = "^" THEN Texts.Read(R, ch); sym := xor ELSIF ch = "^" THEN Texts.Read(R, ch); sym := xor
ELSE sym := null ELSE sym := null
END END
ELSIF ch <= "z" THEN identifier(sym) ELSIF ch <= "z" THEN identifier(sym)
ELSIF ch <= "{" THEN Texts.Read(R, ch); sym := lbrace ELSIF ch <= "{" THEN Texts.Read(R, ch); sym := lbrace
ELSIF ch <= "|" THEN Texts.Read(R, ch); sym := or ELSIF ch <= "|" THEN Texts.Read(R, ch); sym := or
ELSIF ch <= "}" THEN Texts.Read(R, ch); sym := rbrace ELSIF ch <= "}" THEN Texts.Read(R, ch); sym := rbrace
ELSIF ch <= "~" THEN Texts.Read(R, ch); sym := not ELSIF ch <= "~" THEN Texts.Read(R, ch); sym := not
ELSE sym := null ELSE sym := null
END END
UNTIL sym # null UNTIL sym # null
END Get; END Get;
PROCEDURE Init*(T: Texts.Text; pos: LONGINT); PROCEDURE Init*(T: Texts.Text; pos: LONGINT);
BEGIN error := FALSE; errpos := pos; Texts.OpenReader(R, T, pos); Texts.Read(R, ch) BEGIN error := FALSE; errpos := pos; Texts.OpenReader(R, T, pos); Texts.Read(R, ch)
END Init; END Init;
BEGIN Texts.OpenWriter(W); BEGIN Texts.OpenWriter(W);
key[ 0] := "BEGIN"; symno[0] := begin; key[ 0] := "BEGIN"; symno[0] := begin;
key[ 1] := "CONST"; symno[1] := const; key[ 1] := "CONST"; symno[1] := const;
key[ 2] := "END"; symno[2] := end; key[ 2] := "END"; symno[2] := end;
key[3] := "IN"; symno[3] := in; key[3] := "IN"; symno[3] := in;
key[4] := "INOUT"; symno[4] := inout; key[4] := "INOUT"; symno[4] := inout;
key[5] := "MODULE"; symno[5] := module; key[5] := "MODULE"; symno[5] := module;
key[6] := "OUT"; symno[6] := out; key[6] := "OUT"; symno[6] := out;
key[7] := "REG"; symno[7] := reg; key[7] := "REG"; symno[7] := reg;
key[8] := "TYPE"; symno[8] := type; key[8] := "TYPE"; symno[8] := type;
key[9] := "VAR"; symno[9] := var; key[9] := "VAR"; symno[9] := var;
key[10] := "TS"; symno[10] := ts key[10] := "TS"; symno[10] := ts
END LSS. END LSS.

View file

@ -1,238 +1,238 @@
MODULE LSV; (*Lola System: display Verilog; generate txt-File; NW 31.8.2015*) MODULE LSV; (*Lola System: display Verilog; generate txt-File; NW 31.8.2015*)
IMPORT Files, Texts, Oberon, LSB; IMPORT Files, Texts, Oberon, LSB;
VAR W: Texts.Writer; VAR W: Texts.Writer;
nofgen: INTEGER; nofgen: INTEGER;
Constructor: PROCEDURE (VAR x: LSB.Item); (*to avoid forward reference*) Constructor: PROCEDURE (VAR x: LSB.Item); (*to avoid forward reference*)
F: Files.File; R: Files.Rider; F: Files.File; R: Files.Rider;
C: ARRAY 64, 6 OF CHAR; C: ARRAY 64, 6 OF CHAR;
PROCEDURE Write(ch: CHAR); PROCEDURE Write(ch: CHAR);
BEGIN Files.Write(R, ch) BEGIN Files.Write(R, ch)
END Write; END Write;
PROCEDURE WriteLn; PROCEDURE WriteLn;
BEGIN Files.Write(R, 0DX); Files.Write(R, 0AX) BEGIN Files.Write(R, 0DX); Files.Write(R, 0AX)
END WriteLn; END WriteLn;
PROCEDURE WriteInt(x: LONGINT); (* x >= 0 *) PROCEDURE WriteInt(x: LONGINT); (* x >= 0 *)
VAR i: INTEGER; d: ARRAY 14 OF LONGINT; VAR i: INTEGER; d: ARRAY 14 OF LONGINT;
BEGIN i := 0; BEGIN i := 0;
IF x < 0 THEN Files.Write(R, "-"); x := -x END ; IF x < 0 THEN Files.Write(R, "-"); x := -x END ;
REPEAT d[i] := x MOD 10; x := x DIV 10; INC(i) UNTIL x = 0; REPEAT d[i] := x MOD 10; x := x DIV 10; INC(i) UNTIL x = 0;
REPEAT DEC(i); Files.Write(R, CHR(d[i] + 30H)) UNTIL i = 0 REPEAT DEC(i); Files.Write(R, CHR(d[i] + 30H)) UNTIL i = 0
END WriteInt; END WriteInt;
PROCEDURE WriteHex(x: LONGINT); (*x >= 0*) PROCEDURE WriteHex(x: LONGINT); (*x >= 0*)
VAR i: INTEGER; d: ARRAY 8 OF LONGINT; VAR i: INTEGER; d: ARRAY 8 OF LONGINT;
BEGIN i := 0; BEGIN i := 0;
REPEAT d[i] := x MOD 10H; x := x DIV 10H; INC(i) UNTIL (x = 0) OR (i = 8); REPEAT d[i] := x MOD 10H; x := x DIV 10H; INC(i) UNTIL (x = 0) OR (i = 8);
REPEAT DEC(i); REPEAT DEC(i);
IF d[i] >= 10 THEN Files.Write(R, CHR(d[i] + 37H)) ELSE Files.Write(R, CHR(d[i] + 30H)) END IF d[i] >= 10 THEN Files.Write(R, CHR(d[i] + 37H)) ELSE Files.Write(R, CHR(d[i] + 30H)) END
UNTIL i = 0 UNTIL i = 0
END WriteHex; END WriteHex;
PROCEDURE WriteString(s: ARRAY OF CHAR); PROCEDURE WriteString(s: ARRAY OF CHAR);
VAR i: INTEGER; VAR i: INTEGER;
BEGIN i := 0; BEGIN i := 0;
WHILE s[i] # 0X DO Files.Write(R, s[i]); INC(i) END WHILE s[i] # 0X DO Files.Write(R, s[i]); INC(i) END
END WriteString; END WriteString;
(* ------------------------------- *) (* ------------------------------- *)
PROCEDURE Type(typ: LSB.Type); PROCEDURE Type(typ: LSB.Type);
VAR obj: LSB.Object; VAR obj: LSB.Object;
BEGIN BEGIN
IF typ IS LSB.ArrayType THEN IF typ IS LSB.ArrayType THEN
IF typ(LSB.ArrayType).eltyp # LSB.bitType THEN IF typ(LSB.ArrayType).eltyp # LSB.bitType THEN
Write("["); WriteInt(typ.len - 1); WriteString(":0]"); Type(typ(LSB.ArrayType).eltyp) Write("["); WriteInt(typ.len - 1); WriteString(":0]"); Type(typ(LSB.ArrayType).eltyp)
END END
ELSIF typ IS LSB.UnitType THEN (* obj := typ(LSB.UnitType).firstobj; *) ELSIF typ IS LSB.UnitType THEN (* obj := typ(LSB.UnitType).firstobj; *)
END END
END Type; END Type;
PROCEDURE BitArrLen(typ: LSB.Type); PROCEDURE BitArrLen(typ: LSB.Type);
VAR eltyp: LSB.Type; VAR eltyp: LSB.Type;
BEGIN BEGIN
IF typ IS LSB.ArrayType THEN IF typ IS LSB.ArrayType THEN
eltyp := typ(LSB.ArrayType).eltyp; eltyp := typ(LSB.ArrayType).eltyp;
WHILE eltyp IS LSB.ArrayType DO typ := eltyp; eltyp := typ(LSB.ArrayType).eltyp END ; WHILE eltyp IS LSB.ArrayType DO typ := eltyp; eltyp := typ(LSB.ArrayType).eltyp END ;
IF eltyp = LSB.bitType THEN IF eltyp = LSB.bitType THEN
Write("["); WriteInt(typ.len - 1);WriteString(":0] ") Write("["); WriteInt(typ.len - 1);WriteString(":0] ")
END END
END END
END BitArrLen; END BitArrLen;
PROCEDURE Expression(x: LSB.Item); PROCEDURE Expression(x: LSB.Item);
VAR z: LSB.Item; VAR z: LSB.Item;
BEGIN BEGIN
IF x # NIL THEN IF x # NIL THEN
IF x IS LSB.Object THEN WriteString(x(LSB.Object).name) IF x IS LSB.Object THEN WriteString(x(LSB.Object).name)
ELSIF x.tag = LSB.cons THEN ELSIF x.tag = LSB.cons THEN
Write("{"); Constructor(x); Write("}") Write("{"); Constructor(x); Write("}")
ELSE ELSE
IF x.tag = LSB.repl THEN IF x.tag = LSB.repl THEN
Write("{"); WriteInt(x.b.val); Write("{"); Expression(x.a); Write("{"); WriteInt(x.b.val); Write("{"); Expression(x.a);
Write("}"); Write("}") Write("}"); Write("}")
ELSE ELSE
IF (x.tag >= LSB.and) & (x.tag <= LSB.gtr) THEN Write("(") END ; IF (x.tag >= LSB.and) & (x.tag <= LSB.gtr) THEN Write("(") END ;
Expression(x.a); Expression(x.a);
IF x.tag = LSB.sel THEN Write("["); Expression(x.b); Write("]") IF x.tag = LSB.sel THEN Write("["); Expression(x.b); Write("]")
ELSIF x.tag = LSB.lit THEN ELSIF x.tag = LSB.lit THEN
IF x.size # 0 THEN WriteInt(x.size); Write("'"); Write("h"); WriteHex(x.val) IF x.size # 0 THEN WriteInt(x.size); Write("'"); Write("h"); WriteHex(x.val)
ELSE WriteInt(x.val) ELSE WriteInt(x.val)
END END
ELSE WriteString(C[x.tag]); Expression(x.b) ELSE WriteString(C[x.tag]); Expression(x.b)
END ; END ;
IF (x.tag >= LSB.and) & (x.tag <= LSB.gtr) THEN Write(")") END IF (x.tag >= LSB.and) & (x.tag <= LSB.gtr) THEN Write(")") END
END END
END END
END END
END Expression; END Expression;
PROCEDURE Elem(VAR x: LSB.Item); PROCEDURE Elem(VAR x: LSB.Item);
BEGIN BEGIN
IF x.tag = LSB.repl THEN IF x.tag = LSB.repl THEN
Write("{"); WriteInt(x.b.val); Write("{"); Expression(x.a); WriteString("}}") Write("{"); WriteInt(x.b.val); Write("{"); Expression(x.a); WriteString("}}")
ELSE Expression(x) ELSE Expression(x)
END END
END Elem; END Elem;
PROCEDURE Constructor0(VAR x: LSB.Item); PROCEDURE Constructor0(VAR x: LSB.Item);
BEGIN BEGIN
IF x.tag = LSB.cons THEN Constructor(x.a); WriteString(", "); Elem(x.b) ELSE Elem(x) END IF x.tag = LSB.cons THEN Constructor(x.a); WriteString(", "); Elem(x.b) ELSE Elem(x) END
END Constructor0; END Constructor0;
PROCEDURE Declaration(obj: LSB.Object); PROCEDURE Declaration(obj: LSB.Object);
VAR apar: LSB.Item; typ: LSB.Type; VAR apar: LSB.Item; typ: LSB.Type;
BEGIN typ := obj.type; BEGIN typ := obj.type;
IF obj.type IS LSB.UnitType THEN WriteString("unit ") ELSE Type(obj.type) END ; IF obj.type IS LSB.UnitType THEN WriteString("unit ") ELSE Type(obj.type) END ;
IF obj.tag = LSB.var THEN IF obj.tag = LSB.var THEN
IF obj.type IS LSB.UnitType THEN IF obj.type IS LSB.UnitType THEN
apar := obj.a; WriteLn; Write("["); apar := obj.a; WriteLn; Write("[");
WHILE apar # NIL DO Expression(apar.b); apar := apar.a END ; WHILE apar # NIL DO Expression(apar.b); apar := apar.a END ;
Write("]") Write("]")
END END
ELSIF obj.tag = LSB.const THEN WriteString(" = "); WriteInt(obj.val) ELSIF obj.tag = LSB.const THEN WriteString(" = "); WriteInt(obj.val)
END END
END Declaration; END Declaration;
PROCEDURE ObjList0(obj: LSB.Object); (*declarations*) PROCEDURE ObjList0(obj: LSB.Object); (*declarations*)
VAR obj1: LSB.Object; param: BOOLEAN; VAR obj1: LSB.Object; param: BOOLEAN;
BEGIN param := TRUE; BEGIN param := TRUE;
WHILE obj # LSB.root DO WHILE obj # LSB.root DO
IF (obj.tag = LSB.var) & ~(obj.type IS LSB.UnitType) THEN IF (obj.tag = LSB.var) & ~(obj.type IS LSB.UnitType) THEN
IF obj.val <= 1 THEN WriteString("reg ") IF obj.val <= 1 THEN WriteString("reg ")
ELSIF obj.val = 2 THEN WriteString("wire ") ELSIF obj.val = 2 THEN WriteString("wire ")
ELSIF obj.val = 3 THEN WriteString("output ") ELSIF obj.val = 3 THEN WriteString("output ")
ELSIF obj.val = 4 THEN WriteString("output reg ") ELSIF obj.val = 4 THEN WriteString("output reg ")
ELSIF obj.val = 5 THEN WriteString("inout ") ELSIF obj.val = 5 THEN WriteString("inout ")
ELSIF obj.val = 6 THEN WriteString("input ") ELSIF obj.val = 6 THEN WriteString("input ")
ELSE WriteString("??? ") ELSE WriteString("??? ")
END ; END ;
BitArrLen(obj.type); WriteString(obj.name); BitArrLen(obj.type); WriteString(obj.name);
obj1 := obj.next; obj1 := obj.next;
WHILE (obj1 # LSB.top) & (obj1.type = obj.type) & (obj1.val = obj.val) DO WHILE (obj1 # LSB.top) & (obj1.type = obj.type) & (obj1.val = obj.val) DO
WriteString(", "); obj := obj1; WriteString(obj.name); obj1 := obj.next WriteString(", "); obj := obj1; WriteString(obj.name); obj1 := obj.next
END ; END ;
IF param & (obj.val >= 3) & (obj1.val < 3) THEN (*end param list*) param := FALSE; Write(")") IF param & (obj.val >= 3) & (obj1.val < 3) THEN (*end param list*) param := FALSE; Write(")")
END ; END ;
IF (obj.type # LSB.bitType) & (obj.type(LSB.ArrayType).eltyp # LSB.bitType) THEN Type(obj.type) END ; IF (obj.type # LSB.bitType) & (obj.type(LSB.ArrayType).eltyp # LSB.bitType) THEN Type(obj.type) END ;
IF param THEN Write(",") ELSE Write(";") END ; IF param THEN Write(",") ELSE Write(";") END ;
WriteLn WriteLn
ELSIF obj.tag = LSB.const THEN ELSIF obj.tag = LSB.const THEN
END ; END ;
obj := obj.next obj := obj.next
END END
END ObjList0; END ObjList0;
PROCEDURE ActParam(VAR x: LSB.Item; fpar: LSB.Object); PROCEDURE ActParam(VAR x: LSB.Item; fpar: LSB.Object);
BEGIN Write("."); WriteString(fpar.name); Write("("); Expression(x); Write(")") BEGIN Write("."); WriteString(fpar.name); Write("("); Expression(x); Write(")")
END ActParam; END ActParam;
PROCEDURE ObjList1(obj: LSB.Object); (*assignments to variables*) PROCEDURE ObjList1(obj: LSB.Object); (*assignments to variables*)
VAR apar, x: LSB.Item; fpar: LSB.Object; size: LONGINT; VAR apar, x: LSB.Item; fpar: LSB.Object; size: LONGINT;
BEGIN BEGIN
WHILE obj # LSB.root DO WHILE obj # LSB.root DO
IF (obj.tag = LSB.var) OR (obj.tag = LSB.const) THEN IF (obj.tag = LSB.var) OR (obj.tag = LSB.const) THEN
IF obj.type IS LSB.UnitType THEN IF obj.type IS LSB.UnitType THEN
WriteString(obj.type.typobj.name); Write(" "); WriteString(obj.name); WriteString(obj.type.typobj.name); Write(" "); WriteString(obj.name);
apar := obj.b; fpar := obj.type(LSB.UnitType).firstobj; apar := obj.b; fpar := obj.type(LSB.UnitType).firstobj;
Write("("); ActParam(apar.b, fpar); apar := apar.a; fpar := fpar.next; (*actual param list*) Write("("); ActParam(apar.b, fpar); apar := apar.a; fpar := fpar.next; (*actual param list*)
WHILE apar # NIL DO WriteString(", "); ActParam(apar.b, fpar); apar := apar.a; fpar := fpar.next END ; WHILE apar # NIL DO WriteString(", "); ActParam(apar.b, fpar); apar := apar.a; fpar := fpar.next END ;
Write(")"); Write(";"); WriteLn Write(")"); Write(";"); WriteLn
ELSIF (obj.b # NIL) & (obj.val = 5) THEN (*tri-state*) ELSIF (obj.b # NIL) & (obj.val = 5) THEN (*tri-state*)
size := obj.type.size; x := obj.b; size := obj.type.size; x := obj.b;
IF x.tag = LSB.ts THEN IF x.tag = LSB.ts THEN
IF obj.type = LSB.bitType THEN IF obj.type = LSB.bitType THEN
WriteString("IOBUF block"); INC(nofgen); WriteInt(nofgen); WriteString(" (.IO("); WriteString(obj.name); WriteString("IOBUF block"); INC(nofgen); WriteInt(nofgen); WriteString(" (.IO("); WriteString(obj.name);
WriteString("), .O("); WriteString(x.a(LSB.Object).name); WriteString("), .I("); x := x.b; WriteString("), .O("); WriteString(x.a(LSB.Object).name); WriteString("), .I("); x := x.b;
IF x.a.type = LSB.bitType THEN Expression(x.a) ELSE WriteString(x.a(LSB.Object).name) END ; IF x.a.type = LSB.bitType THEN Expression(x.a) ELSE WriteString(x.a(LSB.Object).name) END ;
WriteString("), .T("); WriteString("), .T(");
IF x.b.type = LSB.bitType THEN Expression(x.b) ELSE WriteString(x.b(LSB.Object).name) END ; IF x.b.type = LSB.bitType THEN Expression(x.b) ELSE WriteString(x.b(LSB.Object).name) END ;
WriteString("));") WriteString("));")
ELSE (*array type*) ELSE (*array type*)
IF nofgen = 0 THEN WriteString("genvar i;"); WriteLn END ; IF nofgen = 0 THEN WriteString("genvar i;"); WriteLn END ;
INC(nofgen); WriteString("generate"); WriteLn; INC(nofgen); WriteString("generate"); WriteLn;
WriteString("for (i = 0; i < "); WriteInt(size); WriteString("; i = i+1) begin : bufblock"); WriteInt(nofgen); WriteLn; WriteString("for (i = 0; i < "); WriteInt(size); WriteString("; i = i+1) begin : bufblock"); WriteInt(nofgen); WriteLn;
WriteString("IOBUF block (.IO("); WriteString(obj.name); WriteString("IOBUF block (.IO("); WriteString(obj.name);
WriteString("[i]), .O("); WriteString(x.a(LSB.Object).name); WriteString("[i]), .I("); x := x.b; WriteString("[i]), .O("); WriteString(x.a(LSB.Object).name); WriteString("[i]), .I("); x := x.b;
WriteString(x.a(LSB.Object).name); WriteString("[i]), .T("); WriteString(x.a(LSB.Object).name); WriteString("[i]), .T(");
IF x.b.type = LSB.bitType THEN Expression(x.b) ELSE WriteString(x.b(LSB.Object).name); WriteString("[i]") END ; IF x.b.type = LSB.bitType THEN Expression(x.b) ELSE WriteString(x.b(LSB.Object).name); WriteString("[i]") END ;
WriteString("));"); WriteLn; WriteString("end"); WriteLn; WriteString("endgenerate") WriteString("));"); WriteLn; WriteString("end"); WriteLn; WriteString("endgenerate")
END ; END ;
WriteLn WriteLn
END END
ELSIF (obj.b # NIL) & (obj.val >= 2) THEN ELSIF (obj.b # NIL) & (obj.val >= 2) THEN
WriteString("assign "); WriteString(obj.name); WriteString("assign "); WriteString(obj.name);
IF (obj.a # NIL) THEN Write("["); Expression(obj.a); Write("]") END ; IF (obj.a # NIL) THEN Write("["); Expression(obj.a); Write("]") END ;
WriteString(" = "); Expression(obj.b); Write(";"); WriteLn WriteString(" = "); Expression(obj.b); Write(";"); WriteLn
END END
ELSIF obj.tag = LSB.typ THEN (*instantiation; actual parameters*) ELSIF obj.tag = LSB.typ THEN (*instantiation; actual parameters*)
END ; END ;
obj := obj.next obj := obj.next
END END
END ObjList1; END ObjList1;
PROCEDURE ObjList2(obj: LSB.Object); (*assignments to registers*) PROCEDURE ObjList2(obj: LSB.Object); (*assignments to registers*)
VAR apar: LSB.Item; kind: LONGINT; clk: LSB.Item; VAR apar: LSB.Item; kind: LONGINT; clk: LSB.Item;
BEGIN BEGIN
WHILE obj # LSB.root DO WHILE obj # LSB.root DO
IF (obj.tag = LSB.var) & ~(obj.type IS LSB.UnitType) & (obj.val < 2) THEN IF (obj.tag = LSB.var) & ~(obj.type IS LSB.UnitType) & (obj.val < 2) THEN
WriteString("always @ (posedge "); kind := obj.val; WriteString("always @ (posedge "); kind := obj.val;
IF kind = 0 THEN Expression(obj.a) IF kind = 0 THEN Expression(obj.a)
ELSE (*kind = 1*) WriteString("clk") ELSE (*kind = 1*) WriteString("clk")
END ; END ;
WriteString(") begin "); WriteString(") begin ");
REPEAT WriteString(obj.name); REPEAT WriteString(obj.name);
IF (kind = 1) & (obj.a # NIL) THEN Write("["); Expression(obj.a); Write("]") END ; IF (kind = 1) & (obj.a # NIL) THEN Write("["); Expression(obj.a); Write("]") END ;
WriteString(" <= "); Expression(obj.b); Write(";"); WriteLn; obj := obj.next WriteString(" <= "); Expression(obj.b); Write(";"); WriteLn; obj := obj.next
UNTIL (obj = LSB.top) OR (obj.val # kind); UNTIL (obj = LSB.top) OR (obj.val # kind);
WriteString("end"); WriteLn WriteString("end"); WriteLn
ELSE obj := obj.next ELSE obj := obj.next
END END
END END
END ObjList2; END ObjList2;
PROCEDURE List*; PROCEDURE List*;
VAR S: Texts.Scanner; VAR S: Texts.Scanner;
BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S); BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S);
IF (S.class = Texts.Name) OR (S.class = Texts.String) THEN IF (S.class = Texts.Name) OR (S.class = Texts.String) THEN
Texts.WriteString(W, LSB.modname); Texts.WriteString(W, " translating to "); Texts.WriteString(W, S.s); Texts.WriteString(W, LSB.modname); Texts.WriteString(W, " translating to "); Texts.WriteString(W, S.s);
F := Files.New(S.s); Files.Set(R, F, 0); F := Files.New(S.s); Files.Set(R, F, 0);
WriteString("`timescale 1ns / 1 ps"); WriteLn; nofgen := 0; WriteString("`timescale 1ns / 1 ps"); WriteLn; nofgen := 0;
WriteString("module "); WriteString(LSB.modname); WriteString("( // translated from Lola"); WriteLn; WriteString("module "); WriteString(LSB.modname); WriteString("( // translated from Lola"); WriteLn;
ObjList0(LSB.top); ObjList1(LSB.top); ObjList2(LSB.top); ObjList0(LSB.top); ObjList1(LSB.top); ObjList2(LSB.top);
WriteString("endmodule"); WriteLn; WriteString("endmodule"); WriteLn;
Files.Register(F); Texts.WriteString(W, " done"); Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf) Files.Register(F); Texts.WriteString(W, " done"); Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf)
END END
END List; END List;
BEGIN Texts.OpenWriter(W); Constructor := Constructor0; BEGIN Texts.OpenWriter(W); Constructor := Constructor0;
C[LSB.const] := "CONST"; C[LSB.typ] := "TYPE"; C[LSB.var] := "VAR"; C[LSB.const] := "CONST"; C[LSB.typ] := "TYPE"; C[LSB.var] := "VAR";
C[LSB.lit] := "LIT"; C[LSB.sel] := "SEL"; C[LSB.range] := ":"; C[LSB.cons] := ","; C[LSB.lit] := "LIT"; C[LSB.sel] := "SEL"; C[LSB.range] := ":"; C[LSB.cons] := ",";
C[LSB.or] := " | "; C[LSB.xor] := " ^ "; C[LSB.and] := " & "; C[LSB.not] := "~"; C[LSB.or] := " | "; C[LSB.xor] := " ^ "; C[LSB.and] := " & "; C[LSB.not] := "~";
C[LSB.add] := " + "; C[LSB.sub] := " - "; C[LSB.mul] := " * "; C[LSB.div] := " / "; C[LSB.add] := " + "; C[LSB.sub] := " - "; C[LSB.mul] := " * "; C[LSB.div] := " / ";
C[LSB.eql] := " == "; C[LSB.neq] := " != "; C[LSB.lss] := " < "; C[LSB.geq] := " >= "; C[LSB.leq] := " <= "; C[LSB.gtr] := " > "; C[LSB.eql] := " == "; C[LSB.neq] := " != "; C[LSB.lss] := " < "; C[LSB.geq] := " >= "; C[LSB.leq] := " <= "; C[LSB.gtr] := " > ";
C[LSB.then] := " ? "; C[LSB.else] := " : "; C[LSB.ts] := "TS"; C[LSB.next] := "--" C[LSB.then] := " ? "; C[LSB.else] := " : "; C[LSB.ts] := "TS"; C[LSB.next] := "--"
END LSV. END LSV.

View file

@ -1,214 +1,214 @@
MODULE RISC5 (IN clk, rst, stallX: BIT; (*NW 26.10.2015*) MODULE RISC5 (IN clk, rst, stallX: BIT; (*NW 26.10.2015*)
IN inbus, codebus: WORD; IN inbus, codebus: WORD;
OUT adr: [24] BIT; OUT adr: [24] BIT;
rd, wr, ben: BIT; rd, wr, ben: BIT;
outbus: WORD); outbus: WORD);
CONST StartAdr = 3FF800H'22; CONST StartAdr = 3FF800H'22;
TYPE PROM := MODULE (IN clk: BIT; TYPE PROM := MODULE (IN clk: BIT;
IN adr: [9] BIT; IN adr: [9] BIT;
OUT data: WORD) ^; OUT data: WORD) ^;
Multiplier := MODULE (IN clk, run, u: BIT; Multiplier := MODULE (IN clk, run, u: BIT;
OUT stall: BIT; OUT stall: BIT;
IN x, y: WORD; IN x, y: WORD;
OUT z: [64] BIT) ^; OUT z: [64] BIT) ^;
Divider := MODULE (IN clk, run, u: BIT; Divider := MODULE (IN clk, run, u: BIT;
OUT stall: BIT; OUT stall: BIT;
IN x, y: WORD; IN x, y: WORD;
OUT quot, rem: WORD) ^; OUT quot, rem: WORD) ^;
FPAdder := MODULE (IN clk, run, u, v: BIT; OUT stall: BIT; FPAdder := MODULE (IN clk, run, u, v: BIT; OUT stall: BIT;
IN x, y: WORD; OUT z: WORD) ^; IN x, y: WORD; OUT z: WORD) ^;
FPMultiplier := MODULE (IN clk, run: BIT; OUT stall: BIT; FPMultiplier := MODULE (IN clk, run: BIT; OUT stall: BIT;
IN x, y: WORD; OUT z: WORD) ^; IN x, y: WORD; OUT z: WORD) ^;
FPDivider := MODULE (IN clk, run: BIT; OUT stall: BIT; FPDivider := MODULE (IN clk, run: BIT; OUT stall: BIT;
IN x, y: WORD; OUT z: WORD) ^; IN x, y: WORD; OUT z: WORD) ^;
REG (clk) PC: [22] BIT; (*program counter*) REG (clk) PC: [22] BIT; (*program counter*)
IR: WORD; (*instruction register*) IR: WORD; (*instruction register*)
N, Z, C, OV: BIT; (*condition flags*) N, Z, C, OV: BIT; (*condition flags*)
stall1, PMsel: BIT; stall1, PMsel: BIT;
R: [16] WORD; (*data registers*) R: [16] WORD; (*data registers*)
H: WORD; (*auxiliary register*) H: WORD; (*auxiliary register*)
VAR PM: PROM; (*mem for boot loader*) VAR PM: PROM; (*mem for boot loader*)
mulUnit: Multiplier; mulUnit: Multiplier;
divUnit: Divider; divUnit: Divider;
faddUnit: FPAdder; faddUnit: FPAdder;
fmulUnit: FPMultiplier; fmulUnit: FPMultiplier;
fdivUnit: FPDivider; fdivUnit: FPDivider;
pcmux, nxpc: [22] BIT; pcmux, nxpc: [22] BIT;
cond, S: BIT; cond, S: BIT;
sa, sb, sc: BIT; sa, sb, sc: BIT;
ins, pmout: WORD; ins, pmout: WORD;
p, q, u, v, w: BIT; (*instruction fields*) p, q, u, v, w: BIT; (*instruction fields*)
op, ira, ira0, irb, irc: [4] BIT; op, ira, ira0, irb, irc: [4] BIT;
cc: [3] BIT; cc: [3] BIT;
imm: [16] BIT; imm: [16] BIT;
off: [20] BIT; off: [20] BIT;
offL: [24] BIT; offL: [24] BIT;
regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD: BIT; regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD: BIT;
sc1, sc0: [2] BIT; (*shift counts*) sc1, sc0: [2] BIT; (*shift counts*)
a0, a1, a2, a3: BIT; a0, a1, a2, a3: BIT;
inbusL, outbusB0, outbusB1, outbusB2, outbusB3: BYTE; inbusL, outbusB0, outbusB1, outbusB2, outbusB3: BYTE;
inbusH: [24] BIT; inbusH: [24] BIT;
A, B, C0, C1, aluRes, regmux: WORD; A, B, C0, C1, aluRes, regmux: WORD;
s1, s2, s3, t1, t2, t3: WORD; (*shifting*) s1, s2, s3, t1, t2, t3: WORD; (*shifting*)
quotient, remainder: WORD; quotient, remainder: WORD;
product: [64] BIT; product: [64] BIT;
fsum, fprod, fquot: WORD; fsum, fprod, fquot: WORD;
Add, Sub, Mul, Div: BIT; Add, Sub, Mul, Div: BIT;
Fadd, Fsub, Fmul, Fdiv: BIT; Fadd, Fsub, Fmul, Fdiv: BIT;
Ldr, Str, Br: BIT; Ldr, Str, Br: BIT;
BEGIN PM(clk, pcmux[8:0], pmout); BEGIN PM(clk, pcmux[8:0], pmout);
mulUnit (clk, Mul, ~u, stallM, B, C1, product); mulUnit (clk, Mul, ~u, stallM, B, C1, product);
divUnit (clk, Div, ~u, stallD, B, C1, quotient, remainder); divUnit (clk, Div, ~u, stallD, B, C1, quotient, remainder);
faddUnit (clk, Fadd|Fsub, u, v, stallFA, B, {Fsub^C0.31, C0[30:0]}, fsum); faddUnit (clk, Fadd|Fsub, u, v, stallFA, B, {Fsub^C0.31, C0[30:0]}, fsum);
fmulUnit (clk, Fmul, stallFM, B, C0, fprod); fmulUnit (clk, Fmul, stallFM, B, C0, fprod);
fdivUnit (clk, Fdiv, stallFD, B, C0, fquot); fdivUnit (clk, Fdiv, stallFD, B, C0, fquot);
ins := PMsel -> pmout : IR; (*current instruction*) ins := PMsel -> pmout : IR; (*current instruction*)
p := ins.31; (*instruction fields*) p := ins.31; (*instruction fields*)
q := ins.30; q := ins.30;
u := ins.29; u := ins.29;
v := ins.28; v := ins.28;
w := ins.16; w := ins.16;
cc:= ins[26:24]; cc:= ins[26:24];
ira := ins[27:24]; ira := ins[27:24];
irb := ins[23:20]; irb := ins[23:20];
op := ins[19:16]; op := ins[19:16];
irc := ins[3:0]; irc := ins[3:0];
imm := ins[15:0]; (*reg instr*) imm := ins[15:0]; (*reg instr*)
off := ins[19:0]; (*mem instr*) off := ins[19:0]; (*mem instr*)
offL := ins[23:0]; (*branch instr*) offL := ins[23:0]; (*branch instr*)
Add := ~p & (op = 8); Add := ~p & (op = 8);
Sub := ~p & (op = 9); Sub := ~p & (op = 9);
Mul := ~p & (op = 10); Mul := ~p & (op = 10);
Div := ~p & (op = 11); Div := ~p & (op = 11);
Fadd := ~p & (op = 12); Fadd := ~p & (op = 12);
Fsub := ~p & (op = 13); Fsub := ~p & (op = 13);
Fmul := ~p & (op = 14); Fmul := ~p & (op = 14);
Fdiv := ~p & (op = 15); Fdiv := ~p & (op = 15);
Ldr := p & ~q & ~u; Ldr := p & ~q & ~u;
Str := p & ~q & u; Str := p & ~q & u;
Br := p & q; Br := p & q;
(*ALU*) (*ALU*)
A := R[ira0]; (*main data path*) A := R[ira0]; (*main data path*)
B := R[irb]; B := R[irb];
C0 := R[irc]; C0 := R[irc];
C1 := q -> {v!16, imm} : C0 ; C1 := q -> {v!16, imm} : C0 ;
ira0 := Br -> 15'4 : ira; ira0 := Br -> 15'4 : ira;
adr := stallL -> B[23:0] + {0'4, off} : {pcmux, 0'2}; adr := stallL -> B[23:0] + {0'4, off} : {pcmux, 0'2};
rd := Ldr & ~stallX & ~stall1; rd := Ldr & ~stallX & ~stall1;
wr := Str & ~stallX & ~stall1; wr := Str & ~stallX & ~stall1;
ben := p & ~q & v & ~stallX & ~stall1; (*byte enable*) ben := p & ~q & v & ~stallX & ~stall1; (*byte enable*)
sc0 := C1[1:0]; sc0 := C1[1:0];
sc1 := C1[3:2]; sc1 := C1[3:2];
(*right shifter*) (*right shifter*)
s1 := (sc0 = 3) -> {(w -> B[2:0] : {B.31 ! 3}), B[31:3]} : s1 := (sc0 = 3) -> {(w -> B[2:0] : {B.31 ! 3}), B[31:3]} :
(sc0 = 2) -> {(w -> B[1:0] : {B.31 ! 2}), B[31:2]} : (sc0 = 2) -> {(w -> B[1:0] : {B.31 ! 2}), B[31:2]} :
(sc0 = 1) -> {(w -> B.0 : B.31), B[31:1]} : B; (sc0 = 1) -> {(w -> B.0 : B.31), B[31:1]} : B;
s2 := (sc1 = 3) -> {(w -> s1[11:0] : {B.31 ! 12}), s1[31:12]} : s2 := (sc1 = 3) -> {(w -> s1[11:0] : {B.31 ! 12}), s1[31:12]} :
(sc1 = 2) -> {(w -> s1[7:0] : {B.31 ! 8}), s1[31:8]} : (sc1 = 2) -> {(w -> s1[7:0] : {B.31 ! 8}), s1[31:8]} :
(sc1 = 1) -> {(w -> s1[3:0] : {B.31 ! 4}), s1[31:4]} : s1; (sc1 = 1) -> {(w -> s1[3:0] : {B.31 ! 4}), s1[31:4]} : s1;
s3 := C1.4 -> {(w -> s2[15:0] : {s2.31 ! 16}), s2[31:16]} : s2; s3 := C1.4 -> {(w -> s2[15:0] : {s2.31 ! 16}), s2[31:16]} : s2;
(*left shifter*) (*left shifter*)
t1 := (sc0 = 3) -> {B[28:0], 0'3} : t1 := (sc0 = 3) -> {B[28:0], 0'3} :
(sc0 = 2) -> {B[29:0], 0'2} : (sc0 = 2) -> {B[29:0], 0'2} :
(sc0 = 1) -> {B[30:0], 0'1} : B; (sc0 = 1) -> {B[30:0], 0'1} : B;
t2 := (sc1 = 3) -> {t1[19:0], 0'12} : t2 := (sc1 = 3) -> {t1[19:0], 0'12} :
(sc1 = 2) -> {t1[23:0], 0'8} : (sc1 = 2) -> {t1[23:0], 0'8} :
(sc1 = 1) -> {t1[27:0], 0'4} : t1; (sc1 = 1) -> {t1[27:0], 0'4} : t1;
t3 := C1.4 -> {t2[15:0], 0'16} : t2; t3 := C1.4 -> {t2[15:0], 0'16} : t2;
aluRes := aluRes :=
~op.3 -> ~op.3 ->
(~op.2 -> (~op.2 ->
(~op.1 -> (~op.1 ->
(~op.0 -> (*Mov*) (~op.0 -> (*Mov*)
(q -> (q ->
(~u -> {v!16 , imm} : {imm, 0'16}) : (~u -> {v!16 , imm} : {imm, 0'16}) :
(~u -> C0 : (~v -> H : {N, Z, C, OV, 0'20, 58H'8}))) : (~u -> C0 : (~v -> H : {N, Z, C, OV, 0'20, 58H'8}))) :
t3 ): (*Lsl*) t3 ): (*Lsl*)
s3) : (*Asr, Ror*) s3) : (*Asr, Ror*)
(~op.1 -> (~op.1 ->
(~op.0 -> B & C1 : B & ~C1) : (*And, Ann*) (~op.0 -> B & C1 : B & ~C1) : (*And, Ann*)
(~op.0 -> B | C1 : B ^ C1)) ): (*Ior, Xor*) (~op.0 -> B | C1 : B ^ C1)) ): (*Ior, Xor*)
(~op.2 -> (~op.2 ->
(~op.1 -> (~op.1 ->
(~op.0 -> B + C + (u&C) : B - C1 - (u&C)) : (*Add, Sub*) (~op.0 -> B + C + (u&C) : B - C1 - (u&C)) : (*Add, Sub*)
(~op.0 -> product[31:0] : quotient)) : (*Mul, Div*) (~op.0 -> product[31:0] : quotient)) : (*Mul, Div*)
(~op.1 -> (~op.1 ->
fsum : (*Fad, Fsb*) fsum : (*Fad, Fsb*)
(~op.0 -> fprod : fquot))) ; (*Fml, Fdv*) (~op.0 -> fprod : fquot))) ; (*Fml, Fdv*)
regwr := ~p & ~stall | (Ldr & ~stallX & ~stall1) | (Br & cond & v & ~stallX); regwr := ~p & ~stall | (Ldr & ~stallX & ~stall1) | (Br & cond & v & ~stallX);
a0 := ~adr.1 & ~adr.0; a0 := ~adr.1 & ~adr.0;
a1 := ~adr.1 & adr.0; a1 := ~adr.1 & adr.0;
a2 := adr.1 & ~adr.0; a2 := adr.1 & ~adr.0;
a3 := adr.1 & adr.0; a3 := adr.1 & adr.0;
inbusL := (~ben | a0) -> inbus[7:0] : a1 -> inbus[15:8] : a2 -> inbus[23:16] : inbus[31:24]; inbusL := (~ben | a0) -> inbus[7:0] : a1 -> inbus[15:8] : a2 -> inbus[23:16] : inbus[31:24];
inbusH := ~ben -> inbus[31:8] : 0'24; inbusH := ~ben -> inbus[31:8] : 0'24;
regmux := Ldr -> {inbusH, inbusL} : (Br & v) -> {0'8, nxpc, 0'2} : aluRes ; regmux := Ldr -> {inbusH, inbusL} : (Br & v) -> {0'8, nxpc, 0'2} : aluRes ;
outbusB0 := A[7:0]; outbusB0 := A[7:0];
outbusB1 := ben & a1 -> A[7:0] : A[15:8]; outbusB1 := ben & a1 -> A[7:0] : A[15:8];
outbusB2 := ben & a2 -> A[7:0] : A[23:16]; outbusB2 := ben & a2 -> A[7:0] : A[23:16];
outbusB3 := ben & a3 -> A[7:0] : A[31:24]; outbusB3 := ben & a3 -> A[7:0] : A[31:24];
outbus := {outbusB3, outbusB2, outbusB1, outbusB0}; outbus := {outbusB3, outbusB2, outbusB1, outbusB0};
(*control unit*) (*control unit*)
S := N ^ OV; S := N ^ OV;
nxpc := PC + 1; nxpc := PC + 1;
cond := ins.27 ^ ( cond := ins.27 ^ (
(cc = 0) & N | (*MI, PL*) (cc = 0) & N | (*MI, PL*)
(cc = 1) & Z | (*EQ, NE*) (cc = 1) & Z | (*EQ, NE*)
(cc = 2) & C | (*CS, CC*) (cc = 2) & C | (*CS, CC*)
(cc = 3) & OV | (*VS, VC*) (cc = 3) & OV | (*VS, VC*)
(cc = 4) & (C|Z) | (*LS, HI*) (cc = 4) & (C|Z) | (*LS, HI*)
(cc = 5) & S | (*LT, GE*) (cc = 5) & S | (*LT, GE*)
(cc = 6) & (S|Z) | (*LE, GT*) (cc = 6) & (S|Z) | (*LE, GT*)
(cc = 7)); (cc = 7));
pcmux := ~rst -> 3FF800H'22 : pcmux := ~rst -> 3FF800H'22 :
stall -> PC : stall -> PC :
(Br & cond & u) -> offL[21:0] + nxpc : (Br & cond & u) -> offL[21:0] + nxpc :
(Br & cond & ~u) -> C0[23:2] : nxpc; (Br & cond & ~u) -> C0[23:2] : nxpc;
sa := aluRes.31; sa := aluRes.31;
sb := B.31; sb := B.31;
sc := C1.31; sc := C1.31;
stall := stallL | stallM | stallD | stallFA | stallFM | stallFD | stallX; stall := stallL | stallM | stallD | stallFA | stallFM | stallFD | stallX;
stallL := (Ldr | Str) & ~stall1; stallL := (Ldr | Str) & ~stall1;
(*assignments to registers*) (*assignments to registers*)
PC := pcmux; PC := pcmux;
PMsel := ~rst | (pcmux[21:12] = 03FFH'10); PMsel := ~rst | (pcmux[21:12] = 03FFH'10);
IR := stall -> IR : codebus; IR := stall -> IR : codebus;
stall1 := stallX -> stall1 : stallL; stall1 := stallX -> stall1 : stallL;
R[ira0] := regwr -> regmux : A; R[ira0] := regwr -> regmux : A;
N := regwr -> regmux.31 : N; N := regwr -> regmux.31 : N;
Z := regwr -> (regmux = 0) : Z; Z := regwr -> (regmux = 0) : Z;
C := Add -> (sb&sc) | (~sa&~sb&sc) | (~sa&sb&~sc&sa) : C := Add -> (sb&sc) | (~sa&~sb&sc) | (~sa&sb&~sc&sa) :
Sub -> (~sb&sc) | (sa&~sb&~sc) | (sa&sb&sc) : C; Sub -> (~sb&sc) | (sa&~sb&~sc) | (sa&sb&sc) : C;
OV := Add -> (sa&~sb&~sc) | (~sa&sb&sc) : OV := Add -> (sa&~sb&~sc) | (~sa&sb&sc) :
Sub -> (sa&~sb&sc) | (~sa&sb&~sc) : OV; Sub -> (sa&~sb&sc) | (~sa&sb&~sc) : OV;
H := Mul -> product[63:32] : Div -> remainder : H H := Mul -> product[63:32] : Div -> remainder : H
END RISC5. END RISC5.

View file

@ -1,113 +1,113 @@
`timescale 1ns / 1 ps `timescale 1ns / 1 ps
module RISC5( // translated from Lola module RISC5( // translated from Lola
input clk, rst, stallX, input clk, rst, stallX,
input [31:0] inbus, codebus, input [31:0] inbus, codebus,
output [23:0] adr, output [23:0] adr,
output rd, wr, ben, output rd, wr, ben,
output [31:0] outbus); output [31:0] outbus);
reg [21:0] PC; reg [21:0] PC;
reg [31:0] IR; reg [31:0] IR;
reg N, Z, C, OV, stall1, PMsel; reg N, Z, C, OV, stall1, PMsel;
reg [31:0] R[15:0]; reg [31:0] R[15:0];
reg [31:0] H; reg [31:0] H;
wire [21:0] pcmux, nxpc; wire [21:0] pcmux, nxpc;
wire cond, S, sa, sb, sc; wire cond, S, sa, sb, sc;
wire [31:0] ins, pmout; wire [31:0] ins, pmout;
wire p, q, u, v, w; wire p, q, u, v, w;
wire [3:0] op, ira, ira0, irb, irc; wire [3:0] op, ira, ira0, irb, irc;
wire [2:0] cc; wire [2:0] cc;
wire [15:0] imm; wire [15:0] imm;
wire [19:0] off; wire [19:0] off;
wire [23:0] offL; wire [23:0] offL;
wire regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD; wire regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD;
wire [1:0] sc1, sc0; wire [1:0] sc1, sc0;
wire a0, a1, a2, a3; wire a0, a1, a2, a3;
wire [7:0] inbusL, outbusB0, outbusB1, outbusB2, outbusB3; wire [7:0] inbusL, outbusB0, outbusB1, outbusB2, outbusB3;
wire [23:0] inbusH; wire [23:0] inbusH;
wire [31:0] A, B, C0, C1, aluRes, regmux, s1, s2, s3, t1, t2, t3, quotient, remainder; wire [31:0] A, B, C0, C1, aluRes, regmux, s1, s2, s3, t1, t2, t3, quotient, remainder;
wire [63:0] product; wire [63:0] product;
wire [31:0] fsum, fprod, fquot; wire [31:0] fsum, fprod, fquot;
wire Add, Sub, Mul, Div, Fadd, Fsub, Fmul, Fdiv, Ldr, Str, Br; wire Add, Sub, Mul, Div, Fadd, Fsub, Fmul, Fdiv, Ldr, Str, Br;
assign adr = stallL ? (B[23:0] + {4'h0, off}) : {pcmux, 2'h0}; assign adr = stallL ? (B[23:0] + {4'h0, off}) : {pcmux, 2'h0};
assign rd = ((Ldr & ~stallX) & ~stall1); assign rd = ((Ldr & ~stallX) & ~stall1);
assign wr = ((Str & ~stallX) & ~stall1); assign wr = ((Str & ~stallX) & ~stall1);
assign ben = ((((p & ~q) & v) & ~stallX) & ~stall1); assign ben = ((((p & ~q) & v) & ~stallX) & ~stall1);
assign outbus = {outbusB3, outbusB2, outbusB1, outbusB0}; assign outbus = {outbusB3, outbusB2, outbusB1, outbusB0};
PROM PM(.clk(clk), .adr(pcmux[8:0]), .data(pmout)); PROM PM(.clk(clk), .adr(pcmux[8:0]), .data(pmout));
Multiplier mulUnit(.clk(clk), .run(Mul), .u(~u), .stall(stallM), .x(B), .y(C1), .z(product)); Multiplier mulUnit(.clk(clk), .run(Mul), .u(~u), .stall(stallM), .x(B), .y(C1), .z(product));
Divider divUnit(.clk(clk), .run(Div), .u(~u), .stall(stallD), .x(B), .y(C1), .quot(quotient), .rem(remainder)); Divider divUnit(.clk(clk), .run(Div), .u(~u), .stall(stallD), .x(B), .y(C1), .quot(quotient), .rem(remainder));
FPAdder faddUnit(.clk(clk), .run((Fadd | Fsub)), .u(u), .v(v), .stall(stallFA), .x(B), .y({(Fsub ^ C0[31]), C0[30:0]}), .z(fsum)); FPAdder faddUnit(.clk(clk), .run((Fadd | Fsub)), .u(u), .v(v), .stall(stallFA), .x(B), .y({(Fsub ^ C0[31]), C0[30:0]}), .z(fsum));
FPMultiplier fmulUnit(.clk(clk), .run(Fmul), .stall(stallFM), .x(B), .y(C0), .z(fprod)); FPMultiplier fmulUnit(.clk(clk), .run(Fmul), .stall(stallFM), .x(B), .y(C0), .z(fprod));
FPDivider fdivUnit(.clk(clk), .run(Fdiv), .stall(stallFD), .x(B), .y(C0), .z(fquot)); FPDivider fdivUnit(.clk(clk), .run(Fdiv), .stall(stallFD), .x(B), .y(C0), .z(fquot));
assign pcmux = ~rst ? 22'h3FF800 : stall ? PC : ((Br & cond) & u) ? (offL[21:0] + nxpc) : ((Br & cond) & ~u) ? C0[23:2] : nxpc; assign pcmux = ~rst ? 22'h3FF800 : stall ? PC : ((Br & cond) & u) ? (offL[21:0] + nxpc) : ((Br & cond) & ~u) ? C0[23:2] : nxpc;
assign nxpc = (PC + 1); assign nxpc = (PC + 1);
assign cond = (ins[27] ^ (((((((((cc == 0) & N) | ((cc == 1) & Z)) | ((cc == 2) & C)) | ((cc == 3) & OV)) | ((cc == 4) & (C | Z))) | ((cc == 5) & S)) | ((cc == 6) & (S | Z))) | (cc == 7))); assign cond = (ins[27] ^ (((((((((cc == 0) & N) | ((cc == 1) & Z)) | ((cc == 2) & C)) | ((cc == 3) & OV)) | ((cc == 4) & (C | Z))) | ((cc == 5) & S)) | ((cc == 6) & (S | Z))) | (cc == 7)));
assign S = (N ^ OV); assign S = (N ^ OV);
assign sa = aluRes[31]; assign sa = aluRes[31];
assign sb = B[31]; assign sb = B[31];
assign sc = C1[31]; assign sc = C1[31];
assign ins = PMsel ? pmout : IR; assign ins = PMsel ? pmout : IR;
assign p = ins[31]; assign p = ins[31];
assign q = ins[30]; assign q = ins[30];
assign u = ins[29]; assign u = ins[29];
assign v = ins[28]; assign v = ins[28];
assign w = ins[16]; assign w = ins[16];
assign op = ins[19:16]; assign op = ins[19:16];
assign ira = ins[27:24]; assign ira = ins[27:24];
assign ira0 = Br ? 4'hF : ira; assign ira0 = Br ? 4'hF : ira;
assign irb = ins[23:20]; assign irb = ins[23:20];
assign irc = ins[3:0]; assign irc = ins[3:0];
assign cc = ins[26:24]; assign cc = ins[26:24];
assign imm = ins[15:0]; assign imm = ins[15:0];
assign off = ins[19:0]; assign off = ins[19:0];
assign offL = ins[23:0]; assign offL = ins[23:0];
assign regwr = (((~p & ~stall) | ((Ldr & ~stallX) & ~stall1)) | (((Br & cond) & v) & ~stallX)); assign regwr = (((~p & ~stall) | ((Ldr & ~stallX) & ~stall1)) | (((Br & cond) & v) & ~stallX));
assign stall = ((((((stallL | stallM) | stallD) | stallFA) | stallFM) | stallFD) | stallX); assign stall = ((((((stallL | stallM) | stallD) | stallFA) | stallFM) | stallFD) | stallX);
assign stallL = ((Ldr | Str) & ~stall1); assign stallL = ((Ldr | Str) & ~stall1);
assign sc1 = C1[3:2]; assign sc1 = C1[3:2];
assign sc0 = C1[1:0]; assign sc0 = C1[1:0];
assign a0 = (~adr[1] & ~adr[0]); assign a0 = (~adr[1] & ~adr[0]);
assign a1 = (~adr[1] & adr[0]); assign a1 = (~adr[1] & adr[0]);
assign a2 = (adr[1] & ~adr[0]); assign a2 = (adr[1] & ~adr[0]);
assign a3 = (adr[1] & adr[0]); assign a3 = (adr[1] & adr[0]);
assign inbusL = (~ben | a0) ? inbus[7:0] : a1 ? inbus[15:8] : a2 ? inbus[23:16] : inbus[31:24]; assign inbusL = (~ben | a0) ? inbus[7:0] : a1 ? inbus[15:8] : a2 ? inbus[23:16] : inbus[31:24];
assign outbusB0 = A[7:0]; assign outbusB0 = A[7:0];
assign outbusB1 = (ben & a1) ? A[7:0] : A[15:8]; assign outbusB1 = (ben & a1) ? A[7:0] : A[15:8];
assign outbusB2 = (ben & a2) ? A[7:0] : A[23:16]; assign outbusB2 = (ben & a2) ? A[7:0] : A[23:16];
assign outbusB3 = (ben & a3) ? A[7:0] : A[31:24]; assign outbusB3 = (ben & a3) ? A[7:0] : A[31:24];
assign inbusH = ~ben ? inbus[31:8] : 24'h0; assign inbusH = ~ben ? inbus[31:8] : 24'h0;
assign A = R[ira0]; assign A = R[ira0];
assign B = R[irb]; assign B = R[irb];
assign C0 = R[irc]; assign C0 = R[irc];
assign C1 = q ? {{16{v}}, imm} : C0; assign C1 = q ? {{16{v}}, imm} : C0;
assign aluRes = ~op[3] ? ~op[2] ? ~op[1] ? ~op[0] ? q ? ~u ? {{16{v}}, imm} : {imm, 16'h0} : ~u ? C0 : ~v ? H : {N, Z, C, OV, 20'h0, 8'h58} : t3 : s3 : ~op[1] ? ~op[0] ? (B & C1) : (B & ~C1) : ~op[0] ? (B | C1) : (B ^ C1) : ~op[2] ? ~op[1] ? ~op[0] ? ((B + C) + (u & C)) : ((B - C1) - (u & C)) : ~op[0] ? product[31:0] : quotient : ~op[1] ? fsum : ~op[0] ? fprod : fquot; assign aluRes = ~op[3] ? ~op[2] ? ~op[1] ? ~op[0] ? q ? ~u ? {{16{v}}, imm} : {imm, 16'h0} : ~u ? C0 : ~v ? H : {N, Z, C, OV, 20'h0, 8'h58} : t3 : s3 : ~op[1] ? ~op[0] ? (B & C1) : (B & ~C1) : ~op[0] ? (B | C1) : (B ^ C1) : ~op[2] ? ~op[1] ? ~op[0] ? ((B + C) + (u & C)) : ((B - C1) - (u & C)) : ~op[0] ? product[31:0] : quotient : ~op[1] ? fsum : ~op[0] ? fprod : fquot;
assign regmux = Ldr ? {inbusH, inbusL} : (Br & v) ? {8'h0, nxpc, 2'h0} : aluRes; assign regmux = Ldr ? {inbusH, inbusL} : (Br & v) ? {8'h0, nxpc, 2'h0} : aluRes;
assign s1 = (sc0 == 3) ? {w ? B[2:0] : {3{B[31]}}, B[31:3]} : (sc0 == 2) ? {w ? B[1:0] : {2{B[31]}}, B[31:2]} : (sc0 == 1) ? {w ? B[0] : B[31], B[31:1]} : B; assign s1 = (sc0 == 3) ? {w ? B[2:0] : {3{B[31]}}, B[31:3]} : (sc0 == 2) ? {w ? B[1:0] : {2{B[31]}}, B[31:2]} : (sc0 == 1) ? {w ? B[0] : B[31], B[31:1]} : B;
assign s2 = (sc1 == 3) ? {w ? s1[11:0] : {12{B[31]}}, s1[31:12]} : (sc1 == 2) ? {w ? s1[7:0] : {8{B[31]}}, s1[31:8]} : (sc1 == 1) ? {w ? s1[3:0] : {4{B[31]}}, s1[31:4]} : s1; assign s2 = (sc1 == 3) ? {w ? s1[11:0] : {12{B[31]}}, s1[31:12]} : (sc1 == 2) ? {w ? s1[7:0] : {8{B[31]}}, s1[31:8]} : (sc1 == 1) ? {w ? s1[3:0] : {4{B[31]}}, s1[31:4]} : s1;
assign s3 = C1[4] ? {w ? s2[15:0] : {16{s2[31]}}, s2[31:16]} : s2; assign s3 = C1[4] ? {w ? s2[15:0] : {16{s2[31]}}, s2[31:16]} : s2;
assign t1 = (sc0 == 3) ? {B[28:0], 3'h0} : (sc0 == 2) ? {B[29:0], 2'h0} : (sc0 == 1) ? {B[30:0], 1'h0} : B; assign t1 = (sc0 == 3) ? {B[28:0], 3'h0} : (sc0 == 2) ? {B[29:0], 2'h0} : (sc0 == 1) ? {B[30:0], 1'h0} : B;
assign t2 = (sc1 == 3) ? {t1[19:0], 12'h0} : (sc1 == 2) ? {t1[23:0], 8'h0} : (sc1 == 1) ? {t1[27:0], 4'h0} : t1; assign t2 = (sc1 == 3) ? {t1[19:0], 12'h0} : (sc1 == 2) ? {t1[23:0], 8'h0} : (sc1 == 1) ? {t1[27:0], 4'h0} : t1;
assign t3 = C1[4] ? {t2[15:0], 16'h0} : t2; assign t3 = C1[4] ? {t2[15:0], 16'h0} : t2;
assign Add = (~p & (op == 8)); assign Add = (~p & (op == 8));
assign Sub = (~p & (op == 9)); assign Sub = (~p & (op == 9));
assign Mul = (~p & (op == 10)); assign Mul = (~p & (op == 10));
assign Div = (~p & (op == 11)); assign Div = (~p & (op == 11));
assign Fadd = (~p & (op == 12)); assign Fadd = (~p & (op == 12));
assign Fsub = (~p & (op == 13)); assign Fsub = (~p & (op == 13));
assign Fmul = (~p & (op == 14)); assign Fmul = (~p & (op == 14));
assign Fdiv = (~p & (op == 15)); assign Fdiv = (~p & (op == 15));
assign Ldr = ((p & ~q) & ~u); assign Ldr = ((p & ~q) & ~u);
assign Str = ((p & ~q) & u); assign Str = ((p & ~q) & u);
assign Br = (p & q); assign Br = (p & q);
always @ (posedge clk) begin PC <= pcmux; always @ (posedge clk) begin PC <= pcmux;
IR <= stall ? IR : codebus; IR <= stall ? IR : codebus;
N <= regwr ? regmux[31] : N; N <= regwr ? regmux[31] : N;
Z <= regwr ? (regmux == 0) : Z; Z <= regwr ? (regmux == 0) : Z;
C <= Add ? (((sb & sc) | ((~sa & ~sb) & sc)) | (((~sa & sb) & ~sc) & sa)) : Sub ? (((~sb & sc) | ((sa & ~sb) & ~sc)) | ((sa & sb) & sc)) : C; C <= Add ? (((sb & sc) | ((~sa & ~sb) & sc)) | (((~sa & sb) & ~sc) & sa)) : Sub ? (((~sb & sc) | ((sa & ~sb) & ~sc)) | ((sa & sb) & sc)) : C;
OV <= Add ? (((sa & ~sb) & ~sc) | ((~sa & sb) & sc)) : Sub ? (((sa & ~sb) & sc) | ((~sa & sb) & ~sc)) : OV; OV <= Add ? (((sa & ~sb) & ~sc) | ((~sa & sb) & sc)) : Sub ? (((sa & ~sb) & sc) | ((~sa & sb) & ~sc)) : OV;
stall1 <= stallX ? stall1 : stallL; stall1 <= stallX ? stall1 : stallL;
PMsel <= (~rst | (pcmux[21:12] == 10'h3FF)); PMsel <= (~rst | (pcmux[21:12] == 10'h3FF));
R[ira0] <= regwr ? regmux : A; R[ira0] <= regwr ? regmux : A;
H <= Mul ? product[63:32] : Div ? remainder : H; H <= Mul ? product[63:32] : Div ? remainder : H;
end end
endmodule endmodule

View file

@ -1,12 +1,12 @@
MODULE Lola; (* Command line runner for Lola to verilog compilation *) MODULE Lola; (* Command line runner for Lola to verilog compilation *)
IMPORT LSB, LSC, LSV, Platform, Console; IMPORT LSB, LSC, LSV, Platform, Console;
BEGIN BEGIN
IF Platform.ArgCount < 3 THEN IF Platform.ArgCount < 3 THEN
Console.String("Lola - compile lola source to verilog source."); Console.Ln; Console.Ln; Console.String("Lola - compile lola source to verilog source."); Console.Ln; Console.Ln;
Console.String("usage:"); Console.Ln; Console.Ln; Console.String("usage:"); Console.Ln; Console.Ln;
Console.String(" lola lola-source-file verilog-source-file"); Console.Ln; Console.Ln; Console.String(" lola lola-source-file verilog-source-file"); Console.Ln; Console.Ln;
ELSE ELSE
LSC.Compile; LSC.Compile;
IF LSB.modname # "" THEN LSV.List END IF LSB.modname # "" THEN LSV.List END
END END
END Lola. END Lola.

View file

@ -1,113 +1,113 @@
`timescale 1ns / 1 ps `timescale 1ns / 1 ps
module RISC5( // translated from Lola module RISC5( // translated from Lola
input clk, rst, stallX, input clk, rst, stallX,
input [31:0] inbus, codebus, input [31:0] inbus, codebus,
output [23:0] adr, output [23:0] adr,
output rd, wr, ben, output rd, wr, ben,
output [31:0] outbus); output [31:0] outbus);
reg [21:0] PC; reg [21:0] PC;
reg [31:0] IR; reg [31:0] IR;
reg N, Z, C, OV, stall1, PMsel; reg N, Z, C, OV, stall1, PMsel;
reg [31:0] R[15:0]; reg [31:0] R[15:0];
reg [31:0] H; reg [31:0] H;
wire [21:0] pcmux, nxpc; wire [21:0] pcmux, nxpc;
wire cond, S, sa, sb, sc; wire cond, S, sa, sb, sc;
wire [31:0] ins, pmout; wire [31:0] ins, pmout;
wire p, q, u, v, w; wire p, q, u, v, w;
wire [3:0] op, ira, ira0, irb, irc; wire [3:0] op, ira, ira0, irb, irc;
wire [2:0] cc; wire [2:0] cc;
wire [15:0] imm; wire [15:0] imm;
wire [19:0] off; wire [19:0] off;
wire [23:0] offL; wire [23:0] offL;
wire regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD; wire regwr, stall, stallL, stallM, stallD, stallFA, stallFM, stallFD;
wire [1:0] sc1, sc0; wire [1:0] sc1, sc0;
wire a0, a1, a2, a3; wire a0, a1, a2, a3;
wire [7:0] inbusL, outbusB0, outbusB1, outbusB2, outbusB3; wire [7:0] inbusL, outbusB0, outbusB1, outbusB2, outbusB3;
wire [23:0] inbusH; wire [23:0] inbusH;
wire [31:0] A, B, C0, C1, aluRes, regmux, s1, s2, s3, t1, t2, t3, quotient, remainder; wire [31:0] A, B, C0, C1, aluRes, regmux, s1, s2, s3, t1, t2, t3, quotient, remainder;
wire [63:0] product; wire [63:0] product;
wire [31:0] fsum, fprod, fquot; wire [31:0] fsum, fprod, fquot;
wire Add, Sub, Mul, Div, Fadd, Fsub, Fmul, Fdiv, Ldr, Str, Br; wire Add, Sub, Mul, Div, Fadd, Fsub, Fmul, Fdiv, Ldr, Str, Br;
assign adr = stallL ? (B[23:0] + {4'h0, off}) : {pcmux, 2'h0}; assign adr = stallL ? (B[23:0] + {4'h0, off}) : {pcmux, 2'h0};
assign rd = ((Ldr & ~stallX) & ~stall1); assign rd = ((Ldr & ~stallX) & ~stall1);
assign wr = ((Str & ~stallX) & ~stall1); assign wr = ((Str & ~stallX) & ~stall1);
assign ben = ((((p & ~q) & v) & ~stallX) & ~stall1); assign ben = ((((p & ~q) & v) & ~stallX) & ~stall1);
assign outbus = {outbusB3, outbusB2, outbusB1, outbusB0}; assign outbus = {outbusB3, outbusB2, outbusB1, outbusB0};
PROM PM(.clk(clk), .adr(pcmux[8:0]), .data(pmout)); PROM PM(.clk(clk), .adr(pcmux[8:0]), .data(pmout));
Multiplier mulUnit(.clk(clk), .run(Mul), .u(~u), .stall(stallM), .x(B), .y(C1), .z(product)); Multiplier mulUnit(.clk(clk), .run(Mul), .u(~u), .stall(stallM), .x(B), .y(C1), .z(product));
Divider divUnit(.clk(clk), .run(Div), .u(~u), .stall(stallD), .x(B), .y(C1), .quot(quotient), .rem(remainder)); Divider divUnit(.clk(clk), .run(Div), .u(~u), .stall(stallD), .x(B), .y(C1), .quot(quotient), .rem(remainder));
FPAdder faddUnit(.clk(clk), .run((Fadd | Fsub)), .u(u), .v(v), .stall(stallFA), .x(B), .y({(Fsub ^ C0[31]), C0[30:0]}), .z(fsum)); FPAdder faddUnit(.clk(clk), .run((Fadd | Fsub)), .u(u), .v(v), .stall(stallFA), .x(B), .y({(Fsub ^ C0[31]), C0[30:0]}), .z(fsum));
FPMultiplier fmulUnit(.clk(clk), .run(Fmul), .stall(stallFM), .x(B), .y(C0), .z(fprod)); FPMultiplier fmulUnit(.clk(clk), .run(Fmul), .stall(stallFM), .x(B), .y(C0), .z(fprod));
FPDivider fdivUnit(.clk(clk), .run(Fdiv), .stall(stallFD), .x(B), .y(C0), .z(fquot)); FPDivider fdivUnit(.clk(clk), .run(Fdiv), .stall(stallFD), .x(B), .y(C0), .z(fquot));
assign pcmux = ~rst ? 22'h3FF800 : stall ? PC : ((Br & cond) & u) ? (offL[21:0] + nxpc) : ((Br & cond) & ~u) ? C0[23:2] : nxpc; assign pcmux = ~rst ? 22'h3FF800 : stall ? PC : ((Br & cond) & u) ? (offL[21:0] + nxpc) : ((Br & cond) & ~u) ? C0[23:2] : nxpc;
assign nxpc = (PC + 1); assign nxpc = (PC + 1);
assign cond = (ins[27] ^ (((((((((cc == 0) & N) | ((cc == 1) & Z)) | ((cc == 2) & C)) | ((cc == 3) & OV)) | ((cc == 4) & (C | Z))) | ((cc == 5) & S)) | ((cc == 6) & (S | Z))) | (cc == 7))); assign cond = (ins[27] ^ (((((((((cc == 0) & N) | ((cc == 1) & Z)) | ((cc == 2) & C)) | ((cc == 3) & OV)) | ((cc == 4) & (C | Z))) | ((cc == 5) & S)) | ((cc == 6) & (S | Z))) | (cc == 7)));
assign S = (N ^ OV); assign S = (N ^ OV);
assign sa = aluRes[31]; assign sa = aluRes[31];
assign sb = B[31]; assign sb = B[31];
assign sc = C1[31]; assign sc = C1[31];
assign ins = PMsel ? pmout : IR; assign ins = PMsel ? pmout : IR;
assign p = ins[31]; assign p = ins[31];
assign q = ins[30]; assign q = ins[30];
assign u = ins[29]; assign u = ins[29];
assign v = ins[28]; assign v = ins[28];
assign w = ins[16]; assign w = ins[16];
assign op = ins[19:16]; assign op = ins[19:16];
assign ira = ins[27:24]; assign ira = ins[27:24];
assign ira0 = Br ? 4'hF : ira; assign ira0 = Br ? 4'hF : ira;
assign irb = ins[23:20]; assign irb = ins[23:20];
assign irc = ins[3:0]; assign irc = ins[3:0];
assign cc = ins[26:24]; assign cc = ins[26:24];
assign imm = ins[15:0]; assign imm = ins[15:0];
assign off = ins[19:0]; assign off = ins[19:0];
assign offL = ins[23:0]; assign offL = ins[23:0];
assign regwr = (((~p & ~stall) | ((Ldr & ~stallX) & ~stall1)) | (((Br & cond) & v) & ~stallX)); assign regwr = (((~p & ~stall) | ((Ldr & ~stallX) & ~stall1)) | (((Br & cond) & v) & ~stallX));
assign stall = ((((((stallL | stallM) | stallD) | stallFA) | stallFM) | stallFD) | stallX); assign stall = ((((((stallL | stallM) | stallD) | stallFA) | stallFM) | stallFD) | stallX);
assign stallL = ((Ldr | Str) & ~stall1); assign stallL = ((Ldr | Str) & ~stall1);
assign sc1 = C1[3:2]; assign sc1 = C1[3:2];
assign sc0 = C1[1:0]; assign sc0 = C1[1:0];
assign a0 = (~adr[1] & ~adr[0]); assign a0 = (~adr[1] & ~adr[0]);
assign a1 = (~adr[1] & adr[0]); assign a1 = (~adr[1] & adr[0]);
assign a2 = (adr[1] & ~adr[0]); assign a2 = (adr[1] & ~adr[0]);
assign a3 = (adr[1] & adr[0]); assign a3 = (adr[1] & adr[0]);
assign inbusL = (~ben | a0) ? inbus[7:0] : a1 ? inbus[15:8] : a2 ? inbus[23:16] : inbus[31:24]; assign inbusL = (~ben | a0) ? inbus[7:0] : a1 ? inbus[15:8] : a2 ? inbus[23:16] : inbus[31:24];
assign outbusB0 = A[7:0]; assign outbusB0 = A[7:0];
assign outbusB1 = (ben & a1) ? A[7:0] : A[15:8]; assign outbusB1 = (ben & a1) ? A[7:0] : A[15:8];
assign outbusB2 = (ben & a2) ? A[7:0] : A[23:16]; assign outbusB2 = (ben & a2) ? A[7:0] : A[23:16];
assign outbusB3 = (ben & a3) ? A[7:0] : A[31:24]; assign outbusB3 = (ben & a3) ? A[7:0] : A[31:24];
assign inbusH = ~ben ? inbus[31:8] : 24'h0; assign inbusH = ~ben ? inbus[31:8] : 24'h0;
assign A = R[ira0]; assign A = R[ira0];
assign B = R[irb]; assign B = R[irb];
assign C0 = R[irc]; assign C0 = R[irc];
assign C1 = q ? {{16{v}}, imm} : C0; assign C1 = q ? {{16{v}}, imm} : C0;
assign aluRes = ~op[3] ? ~op[2] ? ~op[1] ? ~op[0] ? q ? ~u ? {{16{v}}, imm} : {imm, 16'h0} : ~u ? C0 : ~v ? H : {N, Z, C, OV, 20'h0, 8'h58} : t3 : s3 : ~op[1] ? ~op[0] ? (B & C1) : (B & ~C1) : ~op[0] ? (B | C1) : (B ^ C1) : ~op[2] ? ~op[1] ? ~op[0] ? ((B + C) + (u & C)) : ((B - C1) - (u & C)) : ~op[0] ? product[31:0] : quotient : ~op[1] ? fsum : ~op[0] ? fprod : fquot; assign aluRes = ~op[3] ? ~op[2] ? ~op[1] ? ~op[0] ? q ? ~u ? {{16{v}}, imm} : {imm, 16'h0} : ~u ? C0 : ~v ? H : {N, Z, C, OV, 20'h0, 8'h58} : t3 : s3 : ~op[1] ? ~op[0] ? (B & C1) : (B & ~C1) : ~op[0] ? (B | C1) : (B ^ C1) : ~op[2] ? ~op[1] ? ~op[0] ? ((B + C) + (u & C)) : ((B - C1) - (u & C)) : ~op[0] ? product[31:0] : quotient : ~op[1] ? fsum : ~op[0] ? fprod : fquot;
assign regmux = Ldr ? {inbusH, inbusL} : (Br & v) ? {8'h0, nxpc, 2'h0} : aluRes; assign regmux = Ldr ? {inbusH, inbusL} : (Br & v) ? {8'h0, nxpc, 2'h0} : aluRes;
assign s1 = (sc0 == 3) ? {w ? B[2:0] : {3{B[31]}}, B[31:3]} : (sc0 == 2) ? {w ? B[1:0] : {2{B[31]}}, B[31:2]} : (sc0 == 1) ? {w ? B[0] : B[31], B[31:1]} : B; assign s1 = (sc0 == 3) ? {w ? B[2:0] : {3{B[31]}}, B[31:3]} : (sc0 == 2) ? {w ? B[1:0] : {2{B[31]}}, B[31:2]} : (sc0 == 1) ? {w ? B[0] : B[31], B[31:1]} : B;
assign s2 = (sc1 == 3) ? {w ? s1[11:0] : {12{B[31]}}, s1[31:12]} : (sc1 == 2) ? {w ? s1[7:0] : {8{B[31]}}, s1[31:8]} : (sc1 == 1) ? {w ? s1[3:0] : {4{B[31]}}, s1[31:4]} : s1; assign s2 = (sc1 == 3) ? {w ? s1[11:0] : {12{B[31]}}, s1[31:12]} : (sc1 == 2) ? {w ? s1[7:0] : {8{B[31]}}, s1[31:8]} : (sc1 == 1) ? {w ? s1[3:0] : {4{B[31]}}, s1[31:4]} : s1;
assign s3 = C1[4] ? {w ? s2[15:0] : {16{s2[31]}}, s2[31:16]} : s2; assign s3 = C1[4] ? {w ? s2[15:0] : {16{s2[31]}}, s2[31:16]} : s2;
assign t1 = (sc0 == 3) ? {B[28:0], 3'h0} : (sc0 == 2) ? {B[29:0], 2'h0} : (sc0 == 1) ? {B[30:0], 1'h0} : B; assign t1 = (sc0 == 3) ? {B[28:0], 3'h0} : (sc0 == 2) ? {B[29:0], 2'h0} : (sc0 == 1) ? {B[30:0], 1'h0} : B;
assign t2 = (sc1 == 3) ? {t1[19:0], 12'h0} : (sc1 == 2) ? {t1[23:0], 8'h0} : (sc1 == 1) ? {t1[27:0], 4'h0} : t1; assign t2 = (sc1 == 3) ? {t1[19:0], 12'h0} : (sc1 == 2) ? {t1[23:0], 8'h0} : (sc1 == 1) ? {t1[27:0], 4'h0} : t1;
assign t3 = C1[4] ? {t2[15:0], 16'h0} : t2; assign t3 = C1[4] ? {t2[15:0], 16'h0} : t2;
assign Add = (~p & (op == 8)); assign Add = (~p & (op == 8));
assign Sub = (~p & (op == 9)); assign Sub = (~p & (op == 9));
assign Mul = (~p & (op == 10)); assign Mul = (~p & (op == 10));
assign Div = (~p & (op == 11)); assign Div = (~p & (op == 11));
assign Fadd = (~p & (op == 12)); assign Fadd = (~p & (op == 12));
assign Fsub = (~p & (op == 13)); assign Fsub = (~p & (op == 13));
assign Fmul = (~p & (op == 14)); assign Fmul = (~p & (op == 14));
assign Fdiv = (~p & (op == 15)); assign Fdiv = (~p & (op == 15));
assign Ldr = ((p & ~q) & ~u); assign Ldr = ((p & ~q) & ~u);
assign Str = ((p & ~q) & u); assign Str = ((p & ~q) & u);
assign Br = (p & q); assign Br = (p & q);
always @ (posedge clk) begin PC <= pcmux; always @ (posedge clk) begin PC <= pcmux;
IR <= stall ? IR : codebus; IR <= stall ? IR : codebus;
N <= regwr ? regmux[31] : N; N <= regwr ? regmux[31] : N;
Z <= regwr ? (regmux == 0) : Z; Z <= regwr ? (regmux == 0) : Z;
C <= Add ? (((sb & sc) | ((~sa & ~sb) & sc)) | (((~sa & sb) & ~sc) & sa)) : Sub ? (((~sb & sc) | ((sa & ~sb) & ~sc)) | ((sa & sb) & sc)) : C; C <= Add ? (((sb & sc) | ((~sa & ~sb) & sc)) | (((~sa & sb) & ~sc) & sa)) : Sub ? (((~sb & sc) | ((sa & ~sb) & ~sc)) | ((sa & sb) & sc)) : C;
OV <= Add ? (((sa & ~sb) & ~sc) | ((~sa & sb) & sc)) : Sub ? (((sa & ~sb) & sc) | ((~sa & sb) & ~sc)) : OV; OV <= Add ? (((sa & ~sb) & ~sc) | ((~sa & sb) & sc)) : Sub ? (((sa & ~sb) & sc) | ((~sa & sb) & ~sc)) : OV;
stall1 <= stallX ? stall1 : stallL; stall1 <= stallX ? stall1 : stallL;
PMsel <= (~rst | (pcmux[21:12] == 10'h3FF)); PMsel <= (~rst | (pcmux[21:12] == 10'h3FF));
R[ira0] <= regwr ? regmux : A; R[ira0] <= regwr ? regmux : A;
H <= Mul ? product[63:32] : Div ? remainder : H; H <= Mul ? product[63:32] : Div ? remainder : H;
end end
endmodule endmodule

File diff suppressed because it is too large Load diff

View file

@ -1,146 +1,146 @@
MODULE Fonts; (*JG 18.11.90; PDR 8.6.12; NW 25.3.2013*) MODULE Fonts; (*JG 18.11.90; PDR 8.6.12; NW 25.3.2013*)
IMPORT SYSTEM, Files := CompatFiles; IMPORT SYSTEM, Files := CompatFiles;
TYPE INTEGER = LONGINT; (* voc adaptation by noch *) TYPE INTEGER = LONGINT; (* voc adaptation by noch *)
BYTE = CHAR; BYTE = CHAR;
CONST FontFileId = 0DBH; CONST FontFileId = 0DBH;
TYPE Font* = POINTER TO FontDesc; TYPE Font* = POINTER TO FontDesc;
FontDesc* = RECORD FontDesc* = RECORD
name*: ARRAY 32 OF CHAR; name*: ARRAY 32 OF CHAR;
height*, minX*, maxX*, minY*, maxY*: INTEGER; height*, minX*, maxX*, minY*, maxY*: INTEGER;
next*: Font; next*: Font;
T: ARRAY 128 OF INTEGER; T: ARRAY 128 OF INTEGER;
raster: ARRAY 2360 OF BYTE raster: ARRAY 2360 OF BYTE
END ; END ;
LargeFontDesc = RECORD (FontDesc) ext: ARRAY 2560 OF BYTE END ; LargeFontDesc = RECORD (FontDesc) ext: ARRAY 2560 OF BYTE END ;
LargeFont = POINTER TO LargeFontDesc; LargeFont = POINTER TO LargeFontDesc;
(* raster sizes: Syntax8 1367, Syntax10 1628, Syntax12 1688, Syntax14 1843, Syntax14b 1983, (* raster sizes: Syntax8 1367, Syntax10 1628, Syntax12 1688, Syntax14 1843, Syntax14b 1983,
Syntax16 2271, Syntax20 3034, Syntac24 4274, Syntax24b 4302 *) Syntax16 2271, Syntax20 3034, Syntac24 4274, Syntax24b 4302 *)
VAR Default*, root*: Font; VAR Default*, root*: Font;
PROCEDURE GetPat*(fnt: Font; ch: CHAR; VAR dx, x, y, w, h, patadr: INTEGER); PROCEDURE GetPat*(fnt: Font; ch: CHAR; VAR dx, x, y, w, h, patadr: INTEGER);
VAR pa: INTEGER; dxb, xb, yb, wb, hb: BYTE; VAR pa: INTEGER; dxb, xb, yb, wb, hb: BYTE;
BEGIN pa := fnt.T[ORD(ch) MOD 80H]; patadr := pa; BEGIN pa := fnt.T[ORD(ch) MOD 80H]; patadr := pa;
SYSTEM.GET(pa-3, dxb); SYSTEM.GET(pa-2, xb); SYSTEM.GET(pa-1, yb); SYSTEM.GET(pa, wb); SYSTEM.GET(pa+1, hb); SYSTEM.GET(pa-3, dxb); SYSTEM.GET(pa-2, xb); SYSTEM.GET(pa-1, yb); SYSTEM.GET(pa, wb); SYSTEM.GET(pa+1, hb);
(*dx := dxb;*) (*dx := dxb;*)
dx := ORD(dxb); (* voc adaptation by noch *) dx := ORD(dxb); (* voc adaptation by noch *)
(*x := xb;*) (*x := xb;*)
x := ORD(xb); (* voc adaptation by noch *) x := ORD(xb); (* voc adaptation by noch *)
(*y := yb;*) (*y := yb;*)
y := ORD(yb); (* voc adaptation by noch *) y := ORD(yb); (* voc adaptation by noch *)
(*w := wb;*) (*w := wb;*)
w := ORD(wb); (* voc adaptation by noch *) w := ORD(wb); (* voc adaptation by noch *)
(*h := hb;*) (*h := hb;*)
h := ORD(hb); (* voc adaptation by noch *) h := ORD(hb); (* voc adaptation by noch *)
(*IF yb < 128 THEN y := yb ELSE y := yb - 256 END*) (*IF yb < 128 THEN y := yb ELSE y := yb - 256 END*)
IF ORD(yb) < 128 THEN y := ORD(yb) ELSE y := ORD(yb) - 256 END (* voc adaptation by noch *) IF ORD(yb) < 128 THEN y := ORD(yb) ELSE y := ORD(yb) - 256 END (* voc adaptation by noch *)
END GetPat; END GetPat;
PROCEDURE This*(name: ARRAY OF CHAR): Font; PROCEDURE This*(name: ARRAY OF CHAR): Font;
TYPE RunRec = RECORD beg, end: BYTE END ; TYPE RunRec = RECORD beg, end: BYTE END ;
BoxRec = RECORD dx, x, y, w, h: BYTE END ; BoxRec = RECORD dx, x, y, w, h: BYTE END ;
VAR F: Font; LF: LargeFont; VAR F: Font; LF: LargeFont;
f: Files.File; R: Files.Rider; f: Files.File; R: Files.Rider;
NofRuns, NofBoxes: BYTE; NofRuns, NofBoxes: BYTE;
NofBytes: INTEGER; NofBytes: INTEGER;
height, minX, maxX, minY, maxY: BYTE; height, minX, maxX, minY, maxY: BYTE;
i, j, k, m, n: INTEGER; i, j, k, m, n: INTEGER;
a, a0: INTEGER; a, a0: INTEGER;
b, beg, end: BYTE; b, beg, end: BYTE;
run: ARRAY 16 OF RunRec; run: ARRAY 16 OF RunRec;
box: ARRAY 512 OF BoxRec; box: ARRAY 512 OF BoxRec;
PROCEDURE RdInt16(VAR R: Files.Rider; VAR b0: BYTE); PROCEDURE RdInt16(VAR R: Files.Rider; VAR b0: BYTE);
VAR b1: BYTE; VAR b1: BYTE;
BEGIN Files.ReadByte(R, b0); Files.ReadByte(R, b1) BEGIN Files.ReadByte(R, b0); Files.ReadByte(R, b1)
END RdInt16; END RdInt16;
BEGIN F := root; BEGIN F := root;
WHILE (F # NIL) & (name # F.name) DO F := F.next END; WHILE (F # NIL) & (name # F.name) DO F := F.next END;
IF F = NIL THEN IF F = NIL THEN
f := Files.Old(name); f := Files.Old(name);
IF f # NIL THEN IF f # NIL THEN
Files.Set(R, f, 0); Files.ReadByte(R, b); Files.Set(R, f, 0); Files.ReadByte(R, b);
(*IF b = FontFileId THEN*) (*IF b = FontFileId THEN*)
IF ORD(b) = FontFileId THEN (* voc adaptation by noch *) IF ORD(b) = FontFileId THEN (* voc adaptation by noch *)
Files.ReadByte(R, b); (*abstraction*) Files.ReadByte(R, b); (*abstraction*)
Files.ReadByte(R, b); (*family*) Files.ReadByte(R, b); (*family*)
Files.ReadByte(R, b); (*variant*) Files.ReadByte(R, b); (*variant*)
NEW(F); NEW(F);
(*F.name := name;*) (*F.name := name;*)
COPY(name, F.name); (* voc adaptation by noch *) COPY(name, F.name); (* voc adaptation by noch *)
RdInt16(R, height); RdInt16(R, minX); RdInt16(R, maxX); RdInt16(R, minY); RdInt16(R, maxY); RdInt16(R, NofRuns); RdInt16(R, height); RdInt16(R, minX); RdInt16(R, maxX); RdInt16(R, minY); RdInt16(R, maxY); RdInt16(R, NofRuns);
(*NofBoxes := 0;*) (* voc adaptation by noch *) (*NofBoxes := 0;*) (* voc adaptation by noch *)
NofBoxes := 0X; NofBoxes := 0X;
k := 0; k := 0;
(*WHILE k # NofRuns DO*) (*WHILE k # NofRuns DO*)
WHILE k # ORD(NofRuns) DO (* voc adaptation by noch *) WHILE k # ORD(NofRuns) DO (* voc adaptation by noch *)
RdInt16(R, beg); RdInt16(R, beg);
run[k].beg := beg; RdInt16(R, end); run[k].beg := beg; RdInt16(R, end);
run[k].end := end; run[k].end := end;
(*NofBoxes := NofBoxes + end - beg;*) (*NofBoxes := NofBoxes + end - beg;*)
NofBoxes := CHR(ORD(NofBoxes) + ORD(end) - ORD(beg)); (* voc adaptation by noch *) NofBoxes := CHR(ORD(NofBoxes) + ORD(end) - ORD(beg)); (* voc adaptation by noch *)
INC(k) INC(k)
END; END;
NofBytes := 5; j := 0; NofBytes := 5; j := 0;
(*WHILE j # NofBoxes DO*) (*WHILE j # NofBoxes DO*)
WHILE j # ORD(NofBoxes) DO (* voc adaptation by noch *) WHILE j # ORD(NofBoxes) DO (* voc adaptation by noch *)
RdInt16(R, box[j].dx); RdInt16(R, box[j].x); RdInt16(R, box[j].y); RdInt16(R, box[j].dx); RdInt16(R, box[j].x); RdInt16(R, box[j].y);
RdInt16(R, box[j].w); RdInt16(R, box[j].h); RdInt16(R, box[j].w); RdInt16(R, box[j].h);
(*NofBytes := NofBytes + 5 + (box[j].w + 7) DIV 8 * box[j].h;*) (*NofBytes := NofBytes + 5 + (box[j].w + 7) DIV 8 * box[j].h;*)
NofBytes := (NofBytes + 5 + (ORD(box[j].w) + 7) DIV 8 * ORD(box[j].h)); (* voc adaptation by noch *) NofBytes := (NofBytes + 5 + (ORD(box[j].w) + 7) DIV 8 * ORD(box[j].h)); (* voc adaptation by noch *)
INC(j) INC(j)
END; END;
IF NofBytes < 2300 THEN NEW(F) ELSE NEW(LF); F := LF END ; IF NofBytes < 2300 THEN NEW(F) ELSE NEW(LF); F := LF END ;
(*F.name := name;*) (*F.name := name;*)
COPY(name, F.name); (* voc adaptation by noch *) COPY(name, F.name); (* voc adaptation by noch *)
(*F.height := height; F.minX := minX; F.maxX := maxX; F.maxY := maxY;*) (*F.height := height; F.minX := minX; F.maxX := maxX; F.maxY := maxY;*)
F.height := ORD(height); F.minX := ORD(minX); F.maxX := ORD(maxX); F.maxY := ORD(maxY); (* voc adaptation by noch *) F.height := ORD(height); F.minX := ORD(minX); F.maxX := ORD(maxX); F.maxY := ORD(maxY); (* voc adaptation by noch *)
(*IF minY >= 80H THEN F.minY := minY - 100H ELSE F.minY := minY END ;*) (*IF minY >= 80H THEN F.minY := minY - 100H ELSE F.minY := minY END ;*)
IF ORD(minY) >= 80H THEN F.minY := ORD(minY) - 100H ELSE F.minY := ORD(minY) END ; (* voc adaptation by noch *) IF ORD(minY) >= 80H THEN F.minY := ORD(minY) - 100H ELSE F.minY := ORD(minY) END ; (* voc adaptation by noch *)
a0 := SYSTEM.ADR(F.raster); a0 := SYSTEM.ADR(F.raster);
SYSTEM.PUT(a0, 0X); SYSTEM.PUT(a0+1, 0X); SYSTEM.PUT(a0+2, 0X); SYSTEM.PUT(a0+3, 0X); SYSTEM.PUT(a0+4, 0X); SYSTEM.PUT(a0, 0X); SYSTEM.PUT(a0+1, 0X); SYSTEM.PUT(a0+2, 0X); SYSTEM.PUT(a0+3, 0X); SYSTEM.PUT(a0+4, 0X);
(*null pattern for characters not in a run*) (*null pattern for characters not in a run*)
INC(a0, 2); a := a0+3; j := 0; k := 0; m := 0; INC(a0, 2); a := a0+3; j := 0; k := 0; m := 0;
(*WHILE k < NofRuns DO*) (*WHILE k < NofRuns DO*)
WHILE k < ORD(NofRuns) DO WHILE k < ORD(NofRuns) DO
(*WHILE (m < run[k].beg) & (m < 128) DO F.T[m] := a0; INC(m) END;*) (*WHILE (m < run[k].beg) & (m < 128) DO F.T[m] := a0; INC(m) END;*)
WHILE (m < ORD(run[k].beg)) & (m < 128) DO F.T[m] := a0; INC(m) END; (* voc adaptation by noch *) WHILE (m < ORD(run[k].beg)) & (m < 128) DO F.T[m] := a0; INC(m) END; (* voc adaptation by noch *)
(*WHILE (m < run[k].end) & (m < 128) DO*) (* voc adaptation by noch *) (*WHILE (m < run[k].end) & (m < 128) DO*) (* voc adaptation by noch *)
WHILE (m < ORD(run[k].end)) & (m < 128) DO WHILE (m < ORD(run[k].end)) & (m < 128) DO
F.T[m] := a+3; F.T[m] := a+3;
SYSTEM.PUT(a, box[j].dx); SYSTEM.PUT(a+1, box[j].x); SYSTEM.PUT(a+2, box[j].y); SYSTEM.PUT(a, box[j].dx); SYSTEM.PUT(a+1, box[j].x); SYSTEM.PUT(a+2, box[j].y);
SYSTEM.PUT(a+3, box[j].w); SYSTEM.PUT(a+4, box[j].h); INC(a, 5); SYSTEM.PUT(a+3, box[j].w); SYSTEM.PUT(a+4, box[j].h); INC(a, 5);
(*n := (box[j].w + 7) DIV 8 * box[j].h;*) (*n := (box[j].w + 7) DIV 8 * box[j].h;*)
n := (ORD(box[j].w) + 7) DIV 8 * ORD(box[j].h); (* voc adaptation by noch *) n := (ORD(box[j].w) + 7) DIV 8 * ORD(box[j].h); (* voc adaptation by noch *)
WHILE n # 0 DO DEC(n); Files.ReadByte(R, b); SYSTEM.PUT(a, b); INC(a) END ; WHILE n # 0 DO DEC(n); Files.ReadByte(R, b); SYSTEM.PUT(a, b); INC(a) END ;
INC(j); INC(m) INC(j); INC(m)
END; END;
INC(k) INC(k)
END; END;
WHILE m < 128 DO F.T[m] := a0; INC(m) END ; WHILE m < 128 DO F.T[m] := a0; INC(m) END ;
F.next := root; root := F F.next := root; root := F
ELSE (*bad file id*) F := Default ELSE (*bad file id*) F := Default
END END
ELSE (*font file not available*) F := Default ELSE (*font file not available*) F := Default
END END
END; END;
RETURN F RETURN F
END This; END This;
PROCEDURE Free*; (*remove all but first two from font list*) PROCEDURE Free*; (*remove all but first two from font list*)
VAR f: Font; VAR f: Font;
BEGIN f := root.next; BEGIN f := root.next;
IF f # NIL THEN f := f.next END ; IF f # NIL THEN f := f.next END ;
f.next := NIL f.next := NIL
END Free; END Free;
BEGIN root := NIL; Default := This("Oberon10.Scn.Fnt") BEGIN root := NIL; Default := This("Oberon10.Scn.Fnt")
END Fonts. END Fonts.

View file

@ -1,447 +1,447 @@
MODULE ORB; (*NW 25.6.2014 in Oberon-07*) MODULE ORB; (*NW 25.6.2014 in Oberon-07*)
IMPORT Files := CompatFiles (* voc adaptation by noch *) IMPORT Files := CompatFiles (* voc adaptation by noch *)
, ORS; , ORS;
(*Definition of data types Object and Type, which together form the data structure (*Definition of data types Object and Type, which together form the data structure
called "symbol table". Contains procedures for creation of Objects, and for search: called "symbol table". Contains procedures for creation of Objects, and for search:
NewObj, this, thisimport, thisfield (and OpenScope, CloseScope). NewObj, this, thisimport, thisfield (and OpenScope, CloseScope).
Handling of import and export, i.e. reading and writing of "symbol files" is done by procedures Handling of import and export, i.e. reading and writing of "symbol files" is done by procedures
Import and Export. This module contains the list of standard identifiers, with which Import and Export. This module contains the list of standard identifiers, with which
the symbol table (universe), and that of the pseudo-module SYSTEM are initialized. *) the symbol table (universe), and that of the pseudo-module SYSTEM are initialized. *)
TYPE INTEGER = LONGINT; (* voc adaptation by noch *) TYPE INTEGER = LONGINT; (* voc adaptation by noch *)
BYTE = CHAR; BYTE = CHAR;
CONST versionkey* = 1; maxTypTab = 64; CONST versionkey* = 1; maxTypTab = 64;
(* class values*) Head* = 0; (* class values*) Head* = 0;
Const* = 1; Var* = 2; Par* = 3; Fld* = 4; Typ* = 5; Const* = 1; Var* = 2; Par* = 3; Fld* = 4; Typ* = 5;
SProc* = 6; SFunc* = 7; Mod* = 8; SProc* = 6; SFunc* = 7; Mod* = 8;
(* form values*) (* form values*)
Byte* = 1; Bool* = 2; Char* = 3; Int* = 4; Real* = 5; Set* = 6; Byte* = 1; Bool* = 2; Char* = 3; Int* = 4; Real* = 5; Set* = 6;
Pointer* = 7; NilTyp* = 8; NoTyp* = 9; Proc* = 10; Pointer* = 7; NilTyp* = 8; NoTyp* = 9; Proc* = 10;
String* = 11; Array* = 12; Record* = 13; String* = 11; Array* = 12; Record* = 13;
TYPE Object* = POINTER TO ObjDesc; TYPE Object* = POINTER TO ObjDesc;
Module* = POINTER TO ModDesc; Module* = POINTER TO ModDesc;
Type* = POINTER TO TypeDesc; Type* = POINTER TO TypeDesc;
ObjDesc*= RECORD ObjDesc*= RECORD
class*, lev*, exno*: INTEGER; class*, lev*, exno*: INTEGER;
expo*, rdo*: BOOLEAN; (*exported / read-only*) expo*, rdo*: BOOLEAN; (*exported / read-only*)
next*, dsc*: Object; next*, dsc*: Object;
type*: Type; type*: Type;
name*: ORS.Ident; name*: ORS.Ident;
val*: LONGINT val*: LONGINT
END ; END ;
ModDesc* = RECORD (ObjDesc) orgname*: ORS.Ident END ; ModDesc* = RECORD (ObjDesc) orgname*: ORS.Ident END ;
TypeDesc* = RECORD TypeDesc* = RECORD
form*, ref*, mno*: INTEGER; (*ref is only used for import/export*) form*, ref*, mno*: INTEGER; (*ref is only used for import/export*)
nofpar*: INTEGER; (*for procedures, extension level for records*) nofpar*: INTEGER; (*for procedures, extension level for records*)
len*: LONGINT; (*for arrays, len < 0 => open array; for records: adr of descriptor*) len*: LONGINT; (*for arrays, len < 0 => open array; for records: adr of descriptor*)
dsc*, typobj*: Object; dsc*, typobj*: Object;
base*: Type; (*for arrays, records, pointers*) base*: Type; (*for arrays, records, pointers*)
size*: LONGINT; (*in bytes; always multiple of 4, except for Byte, Bool and Char*) size*: LONGINT; (*in bytes; always multiple of 4, except for Byte, Bool and Char*)
END ; END ;
(* Object classes and the meaning of "val": (* Object classes and the meaning of "val":
class val class val
---------- ----------
Var address Var address
Par address Par address
Const value Const value
Fld offset Fld offset
Typ type descriptor (TD) address Typ type descriptor (TD) address
SProc inline code number SProc inline code number
SFunc inline code number SFunc inline code number
Mod key Mod key
Type forms and the meaning of "dsc" and "base": Type forms and the meaning of "dsc" and "base":
form dsc base form dsc base
------------------------ ------------------------
Pointer - type of dereferenced object Pointer - type of dereferenced object
Proc params result type Proc params result type
Array - type of elements Array - type of elements
Record fields extension *) Record fields extension *)
VAR topScope*, universe, system*: Object; VAR topScope*, universe, system*: Object;
byteType*, boolType*, charType*: Type; byteType*, boolType*, charType*: Type;
intType*, realType*, setType*, nilType*, noType*, strType*: Type; intType*, realType*, setType*, nilType*, noType*, strType*: Type;
nofmod, Ref: INTEGER; nofmod, Ref: INTEGER;
typtab: ARRAY maxTypTab OF Type; typtab: ARRAY maxTypTab OF Type;
PROCEDURE NewObj*(VAR obj: Object; id: ORS.Ident; class: INTEGER); (*insert new Object with name id*) PROCEDURE NewObj*(VAR obj: Object; id: ORS.Ident; class: INTEGER); (*insert new Object with name id*)
VAR new, x: Object; VAR new, x: Object;
BEGIN x := topScope; BEGIN x := topScope;
WHILE (x.next # NIL) & (x.next.name # id) DO x := x.next END ; WHILE (x.next # NIL) & (x.next.name # id) DO x := x.next END ;
IF x.next = NIL THEN IF x.next = NIL THEN
NEW(new); new.name := id; new.class := class; new.next := NIL; new.rdo := FALSE; new.dsc := NIL; NEW(new); new.name := id; new.class := class; new.next := NIL; new.rdo := FALSE; new.dsc := NIL;
x.next := new; obj := new x.next := new; obj := new
ELSE obj := x.next; ORS.Mark("mult def") ELSE obj := x.next; ORS.Mark("mult def")
END END
END NewObj; END NewObj;
PROCEDURE thisObj*(): Object; PROCEDURE thisObj*(): Object;
VAR s, x: Object; VAR s, x: Object;
BEGIN s := topScope; BEGIN s := topScope;
REPEAT x := s.next; REPEAT x := s.next;
WHILE (x # NIL) & (x.name # ORS.id) DO x := x.next END ; WHILE (x # NIL) & (x.name # ORS.id) DO x := x.next END ;
s := s.dsc s := s.dsc
UNTIL (x # NIL) OR (s = NIL); UNTIL (x # NIL) OR (s = NIL);
RETURN x RETURN x
END thisObj; END thisObj;
PROCEDURE thisimport*(mod: Object): Object; PROCEDURE thisimport*(mod: Object): Object;
VAR obj: Object; VAR obj: Object;
BEGIN BEGIN
IF mod.rdo THEN IF mod.rdo THEN
IF mod.name[0] # 0X THEN IF mod.name[0] # 0X THEN
obj := mod.dsc; obj := mod.dsc;
WHILE (obj # NIL) & (obj.name # ORS.id) DO obj := obj.next END WHILE (obj # NIL) & (obj.name # ORS.id) DO obj := obj.next END
ELSE obj := NIL ELSE obj := NIL
END END
ELSE obj := NIL ELSE obj := NIL
END ; END ;
RETURN obj RETURN obj
END thisimport; END thisimport;
PROCEDURE thisfield*(rec: Type): Object; PROCEDURE thisfield*(rec: Type): Object;
VAR fld: Object; VAR fld: Object;
BEGIN fld := rec.dsc; BEGIN fld := rec.dsc;
WHILE (fld # NIL) & (fld.name # ORS.id) DO fld := fld.next END ; WHILE (fld # NIL) & (fld.name # ORS.id) DO fld := fld.next END ;
RETURN fld RETURN fld
END thisfield; END thisfield;
PROCEDURE OpenScope*; PROCEDURE OpenScope*;
VAR s: Object; VAR s: Object;
BEGIN NEW(s); s.class := Head; s.dsc := topScope; s.next := NIL; topScope := s BEGIN NEW(s); s.class := Head; s.dsc := topScope; s.next := NIL; topScope := s
END OpenScope; END OpenScope;
PROCEDURE CloseScope*; PROCEDURE CloseScope*;
BEGIN topScope := topScope.dsc BEGIN topScope := topScope.dsc
END CloseScope; END CloseScope;
(*------------------------------- Import ---------------------------------*) (*------------------------------- Import ---------------------------------*)
PROCEDURE MakeFileName*(VAR FName: ORS.Ident; name, ext: ARRAY OF CHAR); PROCEDURE MakeFileName*(VAR FName: ORS.Ident; name, ext: ARRAY OF CHAR);
VAR i, j: INTEGER; VAR i, j: INTEGER;
BEGIN i := 0; j := 0; (*assume name suffix less than 4 characters*) BEGIN i := 0; j := 0; (*assume name suffix less than 4 characters*)
WHILE (i < ORS.IdLen-5) & (name[i] > 0X) DO FName[i] := name[i]; INC(i) END ; WHILE (i < ORS.IdLen-5) & (name[i] > 0X) DO FName[i] := name[i]; INC(i) END ;
REPEAT FName[i]:= ext[j]; INC(i); INC(j) UNTIL ext[j] = 0X; REPEAT FName[i]:= ext[j]; INC(i); INC(j) UNTIL ext[j] = 0X;
FName[i] := 0X FName[i] := 0X
END MakeFileName; END MakeFileName;
PROCEDURE ThisModule(name, orgname: ORS.Ident; non: BOOLEAN; key: LONGINT): Object; PROCEDURE ThisModule(name, orgname: ORS.Ident; non: BOOLEAN; key: LONGINT): Object;
VAR mod: Module; obj, obj1: Object; VAR mod: Module; obj, obj1: Object;
BEGIN obj1 := topScope; obj := obj1.next; (*search for module*) BEGIN obj1 := topScope; obj := obj1.next; (*search for module*)
WHILE (obj # NIL) & (obj.name # name) DO obj1 := obj; obj := obj1.next END ; WHILE (obj # NIL) & (obj.name # name) DO obj1 := obj; obj := obj1.next END ;
IF obj = NIL THEN (*insert new module*) IF obj = NIL THEN (*insert new module*)
NEW(mod); mod.class := Mod; mod.rdo := FALSE; NEW(mod); mod.class := Mod; mod.rdo := FALSE;
mod.name := name; mod.orgname := orgname; mod.val := key; mod.name := name; mod.orgname := orgname; mod.val := key;
mod.lev := nofmod; INC(nofmod); mod.type := noType; mod.dsc := NIL; mod.next := NIL; mod.lev := nofmod; INC(nofmod); mod.type := noType; mod.dsc := NIL; mod.next := NIL;
obj1.next := mod; obj := mod obj1.next := mod; obj := mod
ELSE (*module already present*) ELSE (*module already present*)
IF non THEN ORS.Mark("invalid import order") END IF non THEN ORS.Mark("invalid import order") END
END ; END ;
RETURN obj RETURN obj
END ThisModule; END ThisModule;
PROCEDURE Read(VAR R: Files.Rider; VAR x: INTEGER); PROCEDURE Read(VAR R: Files.Rider; VAR x: INTEGER);
VAR b: BYTE; VAR b: BYTE;
BEGIN Files.ReadByte(R, b); BEGIN Files.ReadByte(R, b);
(*IF b < 80H THEN x := b ELSE x := b - 100H END*) (*IF b < 80H THEN x := b ELSE x := b - 100H END*)
IF b < 80X THEN x := ORD(b) ELSE x := ORD(b) - 100H END (* voc adaptation by noch *) IF b < 80X THEN x := ORD(b) ELSE x := ORD(b) - 100H END (* voc adaptation by noch *)
END Read; END Read;
PROCEDURE InType(VAR R: Files.Rider; thismod: Object; VAR T: Type); PROCEDURE InType(VAR R: Files.Rider; thismod: Object; VAR T: Type);
VAR key: LONGINT; VAR key: LONGINT;
ref, class, mno, form, np, readonly: INTEGER; ref, class, mno, form, np, readonly: INTEGER;
new, fld, par, obj, mod, impmod: Object; new, fld, par, obj, mod, impmod: Object;
t: Type; t: Type;
name, modname: ORS.Ident; name, modname: ORS.Ident;
BEGIN Read(R, ref); BEGIN Read(R, ref);
IF ref < 0 THEN T := typtab[-ref] (*already read*) IF ref < 0 THEN T := typtab[-ref] (*already read*)
ELSE NEW(t); T := t; typtab[ref] := t; t.mno := thismod.lev; ELSE NEW(t); T := t; typtab[ref] := t; t.mno := thismod.lev;
Read(R, form); t.form := form; Read(R, form); t.form := form;
IF form = Pointer THEN InType(R, thismod, t.base); t.size := 4 IF form = Pointer THEN InType(R, thismod, t.base); t.size := 4
ELSIF form = Array THEN ELSIF form = Array THEN
InType(R, thismod, t.base); Files.ReadNum(R, t.len); Files.ReadNum(R, t.size) InType(R, thismod, t.base); Files.ReadNum(R, t.len); Files.ReadNum(R, t.size)
ELSIF form = Record THEN ELSIF form = Record THEN
InType(R, thismod, t.base); InType(R, thismod, t.base);
IF t.base.form = NoTyp THEN t.base := NIL; obj := NIL ELSE obj := t.base.dsc END ; IF t.base.form = NoTyp THEN t.base := NIL; obj := NIL ELSE obj := t.base.dsc END ;
Files.ReadNum(R, t.len); (*TD adr/exno*) Files.ReadNum(R, t.len); (*TD adr/exno*)
Files.ReadNum(R, t.nofpar); (*ext level*) Files.ReadNum(R, t.nofpar); (*ext level*)
Files.ReadNum(R, t.size); Files.ReadNum(R, t.size);
Read(R, class); Read(R, class);
WHILE class # 0 DO (*fields*) WHILE class # 0 DO (*fields*)
NEW(fld); fld.class := class; Files.ReadString(R, fld.name); NEW(fld); fld.class := class; Files.ReadString(R, fld.name);
IF fld.name[0] # 0X THEN fld.expo := TRUE; InType(R, thismod, fld.type) ELSE fld.expo := FALSE; fld.type := nilType END ; IF fld.name[0] # 0X THEN fld.expo := TRUE; InType(R, thismod, fld.type) ELSE fld.expo := FALSE; fld.type := nilType END ;
Files.ReadNum(R, fld.val); fld.next := obj; obj := fld; Read(R, class) Files.ReadNum(R, fld.val); fld.next := obj; obj := fld; Read(R, class)
END ; END ;
t.dsc := obj t.dsc := obj
ELSIF form = Proc THEN ELSIF form = Proc THEN
InType(R, thismod, t.base); InType(R, thismod, t.base);
obj := NIL; np := 0; Read(R, class); obj := NIL; np := 0; Read(R, class);
WHILE class # 0 DO (*parameters*) WHILE class # 0 DO (*parameters*)
NEW(par); par.class := class; Read(R, readonly); par.rdo := readonly = 1; NEW(par); par.class := class; Read(R, readonly); par.rdo := readonly = 1;
InType(R, thismod, par.type); par.next := obj; obj := par; INC(np); Read(R, class) InType(R, thismod, par.type); par.next := obj; obj := par; INC(np); Read(R, class)
END ; END ;
t.dsc := obj; t.nofpar := np; t.size := 4 t.dsc := obj; t.nofpar := np; t.size := 4
END ; END ;
Files.ReadString(R, modname); Files.ReadString(R, modname);
IF modname[0] # 0X THEN (*re-import*) IF modname[0] # 0X THEN (*re-import*)
Files.ReadInt(R, key); Files.ReadString(R, name); Files.ReadInt(R, key); Files.ReadString(R, name);
mod := ThisModule(modname, modname, FALSE, key); mod := ThisModule(modname, modname, FALSE, key);
obj := mod.dsc; (*search type*) obj := mod.dsc; (*search type*)
WHILE (obj # NIL) & (obj.name # name) DO obj := obj.next END ; WHILE (obj # NIL) & (obj.name # name) DO obj := obj.next END ;
IF obj # NIL THEN T := obj.type (*type object found in object list of mod*) IF obj # NIL THEN T := obj.type (*type object found in object list of mod*)
ELSE (*insert new type object in object list of mod*) ELSE (*insert new type object in object list of mod*)
NEW(obj); obj.name := name; obj.class := Typ; obj.next := mod.dsc; mod.dsc := obj; obj.type := t; NEW(obj); obj.name := name; obj.class := Typ; obj.next := mod.dsc; mod.dsc := obj; obj.type := t;
t.mno := mod.lev; t.typobj := obj; T := t t.mno := mod.lev; t.typobj := obj; T := t
END ; END ;
typtab[ref] := T typtab[ref] := T
END END
END END
END InType; END InType;
PROCEDURE Import*(VAR modid, modid1: ORS.Ident); PROCEDURE Import*(VAR modid, modid1: ORS.Ident);
VAR key: LONGINT; class, k: INTEGER; VAR key: LONGINT; class, k: INTEGER;
obj: Object; t: Type; obj: Object; t: Type;
thismod: Object; thismod: Object;
modname, fname: ORS.Ident; modname, fname: ORS.Ident;
F: Files.File; R: Files.Rider; F: Files.File; R: Files.Rider;
BEGIN BEGIN
IF modid1 = "SYSTEM" THEN IF modid1 = "SYSTEM" THEN
thismod := ThisModule(modid, modid1, TRUE, key); DEC(nofmod); thismod := ThisModule(modid, modid1, TRUE, key); DEC(nofmod);
thismod.lev := 0; thismod.dsc := system; thismod.rdo := TRUE thismod.lev := 0; thismod.dsc := system; thismod.rdo := TRUE
ELSE MakeFileName(fname, modid1, ".smb"); F := Files.Old(fname); ELSE MakeFileName(fname, modid1, ".smb"); F := Files.Old(fname);
IF F # NIL THEN IF F # NIL THEN
Files.Set(R, F, 0); Files.ReadInt(R, key); Files.ReadInt(R, key); Files.ReadString(R, modname); Files.Set(R, F, 0); Files.ReadInt(R, key); Files.ReadInt(R, key); Files.ReadString(R, modname);
thismod := ThisModule(modid, modid1, TRUE, key); thismod.rdo := TRUE; thismod := ThisModule(modid, modid1, TRUE, key); thismod.rdo := TRUE;
Read(R, class); (*version key*) Read(R, class); (*version key*)
IF class # versionkey THEN ORS.Mark("wrong version") END ; IF class # versionkey THEN ORS.Mark("wrong version") END ;
Read(R, class); Read(R, class);
WHILE class # 0 DO WHILE class # 0 DO
NEW(obj); obj.class := class; Files.ReadString(R, obj.name); NEW(obj); obj.class := class; Files.ReadString(R, obj.name);
InType(R, thismod, obj.type); obj.lev := -thismod.lev; InType(R, thismod, obj.type); obj.lev := -thismod.lev;
IF class = Typ THEN IF class = Typ THEN
t := obj.type; t.typobj := obj; Read(R, k); (*fixup bases of previously declared pointer types*) t := obj.type; t.typobj := obj; Read(R, k); (*fixup bases of previously declared pointer types*)
WHILE k # 0 DO typtab[k].base := t; Read(R, k) END WHILE k # 0 DO typtab[k].base := t; Read(R, k) END
ELSE ELSE
IF class = Const THEN IF class = Const THEN
IF obj.type.form = Real THEN Files.ReadInt(R, obj.val) ELSE Files.ReadNum(R, obj.val) END IF obj.type.form = Real THEN Files.ReadInt(R, obj.val) ELSE Files.ReadNum(R, obj.val) END
ELSIF class = Var THEN Files.ReadNum(R, obj.val); obj.rdo := TRUE ELSIF class = Var THEN Files.ReadNum(R, obj.val); obj.rdo := TRUE
END END
END ; END ;
obj.next := thismod.dsc; thismod.dsc := obj; Read(R, class) obj.next := thismod.dsc; thismod.dsc := obj; Read(R, class)
END ; END ;
ELSE ORS.Mark("import not available") ELSE ORS.Mark("import not available")
END END
END END
END Import; END Import;
(*-------------------------------- Export ---------------------------------*) (*-------------------------------- Export ---------------------------------*)
PROCEDURE Write(VAR R: Files.Rider; x: INTEGER); PROCEDURE Write(VAR R: Files.Rider; x: INTEGER);
BEGIN BEGIN
(*Files.WriteByte(R, x)*) (*Files.WriteByte(R, x)*)
Files.WriteByte(R, SHORT(SHORT(x))) (* voc adaptation by noch *) Files.WriteByte(R, SHORT(SHORT(x))) (* voc adaptation by noch *)
END Write; END Write;
PROCEDURE OutType(VAR R: Files.Rider; t: Type); PROCEDURE OutType(VAR R: Files.Rider; t: Type);
VAR obj, mod, fld: Object; VAR obj, mod, fld: Object;
PROCEDURE OutPar(VAR R: Files.Rider; par: Object; n: INTEGER); PROCEDURE OutPar(VAR R: Files.Rider; par: Object; n: INTEGER);
VAR cl: INTEGER; VAR cl: INTEGER;
BEGIN BEGIN
IF n > 0 THEN IF n > 0 THEN
OutPar(R, par.next, n-1); cl := par.class; OutPar(R, par.next, n-1); cl := par.class;
Write(R, cl); Write(R, cl);
IF par.rdo THEN Write(R, 1) ELSE Write(R, 0) END ; IF par.rdo THEN Write(R, 1) ELSE Write(R, 0) END ;
OutType(R, par.type) OutType(R, par.type)
END END
END OutPar; END OutPar;
PROCEDURE FindHiddenPointers(VAR R: Files.Rider; typ: Type; offset: LONGINT); PROCEDURE FindHiddenPointers(VAR R: Files.Rider; typ: Type; offset: LONGINT);
VAR fld: Object; i, n: LONGINT; VAR fld: Object; i, n: LONGINT;
BEGIN BEGIN
IF (typ.form = Pointer) OR (typ.form = NilTyp) THEN Write(R, Fld); Write(R, 0); Files.WriteNum(R, offset) IF (typ.form = Pointer) OR (typ.form = NilTyp) THEN Write(R, Fld); Write(R, 0); Files.WriteNum(R, offset)
ELSIF typ.form = Record THEN fld := typ.dsc; ELSIF typ.form = Record THEN fld := typ.dsc;
WHILE fld # NIL DO FindHiddenPointers(R, fld.type, fld.val + offset); fld := fld.next END WHILE fld # NIL DO FindHiddenPointers(R, fld.type, fld.val + offset); fld := fld.next END
ELSIF typ.form = Array THEN i := 0; n := typ.len; ELSIF typ.form = Array THEN i := 0; n := typ.len;
WHILE i < n DO FindHiddenPointers(R, typ.base, typ.base.size * i + offset); INC(i) END WHILE i < n DO FindHiddenPointers(R, typ.base, typ.base.size * i + offset); INC(i) END
END END
END FindHiddenPointers; END FindHiddenPointers;
BEGIN BEGIN
IF t.ref > 0 THEN (*type was already output*) Write(R, -t.ref) IF t.ref > 0 THEN (*type was already output*) Write(R, -t.ref)
ELSE obj := t.typobj; ELSE obj := t.typobj;
IF obj # NIL THEN Write(R, Ref); t.ref := Ref; INC(Ref) ELSE (*anonymous*) Write(R, 0) END ; IF obj # NIL THEN Write(R, Ref); t.ref := Ref; INC(Ref) ELSE (*anonymous*) Write(R, 0) END ;
Write(R, t.form); Write(R, t.form);
IF t.form = Pointer THEN OutType(R, t.base) IF t.form = Pointer THEN OutType(R, t.base)
ELSIF t.form = Array THEN OutType(R, t.base); Files.WriteNum(R, t.len); Files.WriteNum(R, t.size) ELSIF t.form = Array THEN OutType(R, t.base); Files.WriteNum(R, t.len); Files.WriteNum(R, t.size)
ELSIF t.form = Record THEN ELSIF t.form = Record THEN
IF t.base # NIL THEN OutType(R, t.base) ELSE OutType(R, noType) END ; IF t.base # NIL THEN OutType(R, t.base) ELSE OutType(R, noType) END ;
IF obj # NIL THEN Files.WriteNum(R, obj.exno) ELSE Write(R, 0) END ; IF obj # NIL THEN Files.WriteNum(R, obj.exno) ELSE Write(R, 0) END ;
Files.WriteNum(R, t.nofpar); Files.WriteNum(R, t.size); Files.WriteNum(R, t.nofpar); Files.WriteNum(R, t.size);
fld := t.dsc; fld := t.dsc;
WHILE fld # NIL DO (*fields*) WHILE fld # NIL DO (*fields*)
IF fld.expo THEN IF fld.expo THEN
Write(R, Fld); Files.WriteString(R, fld.name); OutType(R, fld.type); Files.WriteNum(R, fld.val) Write(R, Fld); Files.WriteString(R, fld.name); OutType(R, fld.type); Files.WriteNum(R, fld.val)
ELSE FindHiddenPointers(R, fld.type, fld.val) (*offset*) ELSE FindHiddenPointers(R, fld.type, fld.val) (*offset*)
END ; END ;
fld := fld.next fld := fld.next
END ; END ;
Write(R, 0) Write(R, 0)
ELSIF t.form = Proc THEN OutType(R, t.base); OutPar(R, t.dsc, t.nofpar); Write(R, 0) ELSIF t.form = Proc THEN OutType(R, t.base); OutPar(R, t.dsc, t.nofpar); Write(R, 0)
END ; END ;
IF (t.mno > 0) & (obj # NIL) THEN (*re-export, output name*) IF (t.mno > 0) & (obj # NIL) THEN (*re-export, output name*)
mod := topScope.next; mod := topScope.next;
WHILE (mod # NIL) & (mod.lev # t.mno) DO mod := mod.next END ; WHILE (mod # NIL) & (mod.lev # t.mno) DO mod := mod.next END ;
IF mod # NIL THEN Files.WriteString(R, mod.name); Files.WriteInt(R, mod.val); Files.WriteString(R, obj.name) IF mod # NIL THEN Files.WriteString(R, mod.name); Files.WriteInt(R, mod.val); Files.WriteString(R, obj.name)
ELSE ORS.Mark("re-export not found"); Write(R, 0) ELSE ORS.Mark("re-export not found"); Write(R, 0)
END END
ELSE Write(R, 0) ELSE Write(R, 0)
END END
END END
END OutType; END OutType;
PROCEDURE Export*(VAR modid: ORS.Ident; VAR newSF: BOOLEAN; VAR key: LONGINT); PROCEDURE Export*(VAR modid: ORS.Ident; VAR newSF: BOOLEAN; VAR key: LONGINT);
VAR x, sum, oldkey: LONGINT; VAR x, sum, oldkey: LONGINT;
obj, obj0: Object; obj, obj0: Object;
filename: ORS.Ident; filename: ORS.Ident;
F, F1: Files.File; R, R1: Files.Rider; F, F1: Files.File; R, R1: Files.Rider;
BEGIN Ref := Record + 1; MakeFileName(filename, modid, ".smb"); BEGIN Ref := Record + 1; MakeFileName(filename, modid, ".smb");
F := Files.New(filename); Files.Set(R, F, 0); F := Files.New(filename); Files.Set(R, F, 0);
Files.WriteInt(R, 0); (*placeholder*) Files.WriteInt(R, 0); (*placeholder*)
Files.WriteInt(R, 0); (*placeholder for key to be inserted at the end*) Files.WriteInt(R, 0); (*placeholder for key to be inserted at the end*)
Files.WriteString(R, modid); Write(R, versionkey); Files.WriteString(R, modid); Write(R, versionkey);
obj := topScope.next; obj := topScope.next;
WHILE obj # NIL DO WHILE obj # NIL DO
IF obj.expo THEN IF obj.expo THEN
Write(R, obj.class); Files.WriteString(R, obj.name); Write(R, obj.class); Files.WriteString(R, obj.name);
OutType(R, obj.type); OutType(R, obj.type);
IF obj.class = Typ THEN IF obj.class = Typ THEN
IF obj.type.form = Record THEN IF obj.type.form = Record THEN
obj0 := topScope.next; (*check whether this is base of previously declared pointer types*) obj0 := topScope.next; (*check whether this is base of previously declared pointer types*)
WHILE obj0 # obj DO WHILE obj0 # obj DO
IF (obj0.type.form = Pointer) & (obj0.type.base = obj.type) & (obj0.type.ref > 0) THEN Write(R, obj0.type.ref) END ; IF (obj0.type.form = Pointer) & (obj0.type.base = obj.type) & (obj0.type.ref > 0) THEN Write(R, obj0.type.ref) END ;
obj0 := obj0.next obj0 := obj0.next
END END
END ; END ;
Write(R, 0) Write(R, 0)
ELSIF obj.class = Const THEN ELSIF obj.class = Const THEN
IF obj.type.form = Proc THEN Files.WriteNum(R, obj.exno) IF obj.type.form = Proc THEN Files.WriteNum(R, obj.exno)
ELSIF obj.type.form = Real THEN Files.WriteInt(R, obj.val) ELSIF obj.type.form = Real THEN Files.WriteInt(R, obj.val)
ELSE Files.WriteNum(R, obj.val) ELSE Files.WriteNum(R, obj.val)
END END
ELSIF obj.class = Var THEN ELSIF obj.class = Var THEN
Files.WriteNum(R, obj.exno); Files.WriteNum(R, obj.exno);
IF obj.type.form = String THEN IF obj.type.form = String THEN
Files.WriteNum(R, obj.val DIV 10000H); obj.val := obj.val MOD 10000H Files.WriteNum(R, obj.val DIV 10000H); obj.val := obj.val MOD 10000H
END END
END END
END ; END ;
obj := obj.next obj := obj.next
END ; END ;
REPEAT Write(R, 0) UNTIL Files.Length(F) MOD 4 = 0; REPEAT Write(R, 0) UNTIL Files.Length(F) MOD 4 = 0;
FOR Ref := Record+1 TO maxTypTab-1 DO typtab[Ref] := NIL END ; FOR Ref := Record+1 TO maxTypTab-1 DO typtab[Ref] := NIL END ;
Files.Set(R, F, 0); sum := 0; Files.ReadInt(R, x); (* compute key (checksum) *) Files.Set(R, F, 0); sum := 0; Files.ReadInt(R, x); (* compute key (checksum) *)
WHILE ~R.eof DO sum := sum + x; Files.ReadInt(R, x) END ; WHILE ~R.eof DO sum := sum + x; Files.ReadInt(R, x) END ;
F1 := Files.Old(filename); (*sum is new key*) F1 := Files.Old(filename); (*sum is new key*)
IF F1 # NIL THEN Files.Set(R1, F1, 4); Files.ReadInt(R1, oldkey) ELSE oldkey := sum+1 END ; IF F1 # NIL THEN Files.Set(R1, F1, 4); Files.ReadInt(R1, oldkey) ELSE oldkey := sum+1 END ;
IF sum # oldkey THEN IF sum # oldkey THEN
IF newSF OR (F1 = NIL) THEN IF newSF OR (F1 = NIL) THEN
key := sum; newSF := TRUE; Files.Set(R, F, 4); Files.WriteInt(R, sum); Files.Register(F) (*insert checksum*) key := sum; newSF := TRUE; Files.Set(R, F, 4); Files.WriteInt(R, sum); Files.Register(F) (*insert checksum*)
ELSE ORS.Mark("new symbol file inhibited") ELSE ORS.Mark("new symbol file inhibited")
END END
ELSE newSF := FALSE; key := sum ELSE newSF := FALSE; key := sum
END END
END Export; END Export;
PROCEDURE Init*; PROCEDURE Init*;
BEGIN topScope := universe; nofmod := 1 BEGIN topScope := universe; nofmod := 1
END Init; END Init;
PROCEDURE type(ref, form: INTEGER; size: LONGINT): Type; PROCEDURE type(ref, form: INTEGER; size: LONGINT): Type;
VAR tp: Type; VAR tp: Type;
BEGIN NEW(tp); tp.form := form; tp.size := size; tp.ref := ref; tp.base := NIL; BEGIN NEW(tp); tp.form := form; tp.size := size; tp.ref := ref; tp.base := NIL;
typtab[ref] := tp; RETURN tp typtab[ref] := tp; RETURN tp
END type; END type;
PROCEDURE enter(name: ARRAY OF CHAR; cl: INTEGER; type: Type; n: LONGINT); PROCEDURE enter(name: ARRAY OF CHAR; cl: INTEGER; type: Type; n: LONGINT);
VAR obj: Object; VAR obj: Object;
BEGIN BEGIN
NEW(obj); NEW(obj);
(*obj.name := name; *) (*obj.name := name; *)
COPY(name, obj.name); (* voc adaptation by noch *) COPY(name, obj.name); (* voc adaptation by noch *)
obj.class := cl; obj.class := cl;
obj.type := type; obj.type := type;
obj.val := n; obj.val := n;
obj.dsc := NIL; obj.dsc := NIL;
IF cl = Typ THEN type.typobj := obj END ; IF cl = Typ THEN type.typobj := obj END ;
obj.next := system; system := obj obj.next := system; system := obj
END enter; END enter;
BEGIN BEGIN
byteType := type(Byte, Int, 1); byteType := type(Byte, Int, 1);
boolType := type(Bool, Bool, 1); boolType := type(Bool, Bool, 1);
charType := type(Char, Char,1); charType := type(Char, Char,1);
intType := type(Int, Int, 4); intType := type(Int, Int, 4);
realType := type(Real, Real, 4); realType := type(Real, Real, 4);
setType := type(Set, Set,4); setType := type(Set, Set,4);
nilType := type(NilTyp, NilTyp, 4); nilType := type(NilTyp, NilTyp, 4);
noType := type(NoTyp, NoTyp, 4); noType := type(NoTyp, NoTyp, 4);
strType := type(String, String, 8); strType := type(String, String, 8);
(*initialize universe with data types and in-line procedures; (*initialize universe with data types and in-line procedures;
LONGINT is synonym to INTEGER, LONGREAL to REAL. LONGINT is synonym to INTEGER, LONGREAL to REAL.
LED, ADC, SBC; LDPSR, LDREG, REG, COND are not in language definition*) LED, ADC, SBC; LDPSR, LDREG, REG, COND are not in language definition*)
system := NIL; (*n = procno*10 + nofpar*) system := NIL; (*n = procno*10 + nofpar*)
enter("UML", SFunc, intType, 132); (*functions*) enter("UML", SFunc, intType, 132); (*functions*)
enter("SBC", SFunc, intType, 122); enter("SBC", SFunc, intType, 122);
enter("ADC", SFunc, intType, 112); enter("ADC", SFunc, intType, 112);
enter("ROR", SFunc, intType, 92); enter("ROR", SFunc, intType, 92);
enter("ASR", SFunc, intType, 82); enter("ASR", SFunc, intType, 82);
enter("LSL", SFunc, intType, 72); enter("LSL", SFunc, intType, 72);
enter("LEN", SFunc, intType, 61); enter("LEN", SFunc, intType, 61);
enter("CHR", SFunc, charType, 51); enter("CHR", SFunc, charType, 51);
enter("ORD", SFunc, intType, 41); enter("ORD", SFunc, intType, 41);
enter("FLT", SFunc, realType, 31); enter("FLT", SFunc, realType, 31);
enter("FLOOR", SFunc, intType, 21); enter("FLOOR", SFunc, intType, 21);
enter("ODD", SFunc, boolType, 11); enter("ODD", SFunc, boolType, 11);
enter("ABS", SFunc, intType, 1); enter("ABS", SFunc, intType, 1);
enter("LED", SProc, noType, 81); (*procedures*) enter("LED", SProc, noType, 81); (*procedures*)
enter("UNPK", SProc, noType, 72); enter("UNPK", SProc, noType, 72);
enter("PACK", SProc, noType, 62); enter("PACK", SProc, noType, 62);
enter("NEW", SProc, noType, 51); enter("NEW", SProc, noType, 51);
enter("ASSERT", SProc, noType, 41); enter("ASSERT", SProc, noType, 41);
enter("EXCL", SProc, noType, 32); enter("EXCL", SProc, noType, 32);
enter("INCL", SProc, noType, 22); enter("INCL", SProc, noType, 22);
enter("DEC", SProc, noType, 11); enter("DEC", SProc, noType, 11);
enter("INC", SProc, noType, 1); enter("INC", SProc, noType, 1);
enter("SET", Typ, setType, 0); (*types*) enter("SET", Typ, setType, 0); (*types*)
enter("BOOLEAN", Typ, boolType, 0); enter("BOOLEAN", Typ, boolType, 0);
enter("BYTE", Typ, byteType, 0); enter("BYTE", Typ, byteType, 0);
enter("CHAR", Typ, charType, 0); enter("CHAR", Typ, charType, 0);
enter("LONGREAL", Typ, realType, 0); enter("LONGREAL", Typ, realType, 0);
enter("REAL", Typ, realType, 0); enter("REAL", Typ, realType, 0);
enter("LONGINT", Typ, intType, 0); enter("LONGINT", Typ, intType, 0);
enter("INTEGER", Typ, intType, 0); enter("INTEGER", Typ, intType, 0);
topScope := NIL; OpenScope; topScope.next := system; universe := topScope; topScope := NIL; OpenScope; topScope.next := system; universe := topScope;
system := NIL; (* initialize "unsafe" pseudo-module SYSTEM*) system := NIL; (* initialize "unsafe" pseudo-module SYSTEM*)
enter("H", SFunc, intType, 201); (*functions*) enter("H", SFunc, intType, 201); (*functions*)
enter("COND", SFunc, boolType, 191); enter("COND", SFunc, boolType, 191);
enter("SIZE", SFunc, intType, 181); enter("SIZE", SFunc, intType, 181);
enter("ADR", SFunc, intType, 171); enter("ADR", SFunc, intType, 171);
enter("VAL", SFunc, intType, 162); enter("VAL", SFunc, intType, 162);
enter("REG", SFunc, intType, 151); enter("REG", SFunc, intType, 151);
enter("BIT", SFunc, boolType, 142); enter("BIT", SFunc, boolType, 142);
enter("LDREG", SProc, noType, 142); (*procedures*) enter("LDREG", SProc, noType, 142); (*procedures*)
enter("LDPSR", SProc, noType, 131); enter("LDPSR", SProc, noType, 131);
enter("COPY", SProc, noType, 123); enter("COPY", SProc, noType, 123);
enter("PUT", SProc, noType, 112); enter("PUT", SProc, noType, 112);
enter("GET", SProc, noType, 102); enter("GET", SProc, noType, 102);
END ORB. END ORB.

File diff suppressed because it is too large Load diff

File diff suppressed because it is too large Load diff

View file

@ -1,325 +1,325 @@
MODULE ORS; (* NW 19.9.93 / 1.4.2014 Scanner in Oberon-07*) MODULE ORS; (* NW 19.9.93 / 1.4.2014 Scanner in Oberon-07*)
IMPORT SYSTEM, Texts := CompatTexts, Oberon; (* CompatTexts is voc adaptation by noch *) IMPORT SYSTEM, Texts := CompatTexts, Oberon; (* CompatTexts is voc adaptation by noch *)
TYPE INTEGER = LONGINT; (* voc adaptation by noch *) TYPE INTEGER = LONGINT; (* voc adaptation by noch *)
(* Oberon Scanner does lexical analysis. Input is Oberon-Text, output is (* Oberon Scanner does lexical analysis. Input is Oberon-Text, output is
sequence of symbols, i.e identifiers, numbers, strings, and special symbols. sequence of symbols, i.e identifiers, numbers, strings, and special symbols.
Recognises all Oberon keywords and skips comments. The keywords are Recognises all Oberon keywords and skips comments. The keywords are
recorded in a table. recorded in a table.
Get(sym) delivers next symbol from input text with Reader R. Get(sym) delivers next symbol from input text with Reader R.
Mark(msg) records error and delivers error message with Writer W. Mark(msg) records error and delivers error message with Writer W.
If Get delivers ident, then the identifier (a string) is in variable id, if int or char If Get delivers ident, then the identifier (a string) is in variable id, if int or char
in ival, if real in rval, and if string in str (and slen) *) in ival, if real in rval, and if string in str (and slen) *)
CONST IdLen* = 32; CONST IdLen* = 32;
NKW = 34; (*nof keywords*) NKW = 34; (*nof keywords*)
maxExp = 38; stringBufSize = 256; maxExp = 38; stringBufSize = 256;
(*lexical symbols*) (*lexical symbols*)
null = 0; times* = 1; rdiv* = 2; div* = 3; mod* = 4; null = 0; times* = 1; rdiv* = 2; div* = 3; mod* = 4;
and* = 5; plus* = 6; minus* = 7; or* = 8; eql* = 9; and* = 5; plus* = 6; minus* = 7; or* = 8; eql* = 9;
neq* = 10; lss* = 11; leq* = 12; gtr* = 13; geq* = 14; neq* = 10; lss* = 11; leq* = 12; gtr* = 13; geq* = 14;
in* = 15; is* = 16; arrow* = 17; period* = 18; in* = 15; is* = 16; arrow* = 17; period* = 18;
char* = 20; int* = 21; real* = 22; false* = 23; true* = 24; char* = 20; int* = 21; real* = 22; false* = 23; true* = 24;
nil* = 25; string* = 26; not* = 27; lparen* = 28; lbrak* = 29; nil* = 25; string* = 26; not* = 27; lparen* = 28; lbrak* = 29;
lbrace* = 30; ident* = 31; lbrace* = 30; ident* = 31;
if* = 32; while* = 34; repeat* = 35; case* = 36; for* = 37; if* = 32; while* = 34; repeat* = 35; case* = 36; for* = 37;
comma* = 40; colon* = 41; becomes* = 42; upto* = 43; rparen* = 44; comma* = 40; colon* = 41; becomes* = 42; upto* = 43; rparen* = 44;
rbrak* = 45; rbrace* = 46; then* = 47; of* = 48; do* = 49; rbrak* = 45; rbrace* = 46; then* = 47; of* = 48; do* = 49;
to* = 50; by* = 51; semicolon* = 52; end* = 53; bar* = 54; to* = 50; by* = 51; semicolon* = 52; end* = 53; bar* = 54;
else* = 55; elsif* = 56; until* = 57; return* = 58; else* = 55; elsif* = 56; until* = 57; return* = 58;
array* = 60; record* = 61; pointer* = 62; const* = 63; type* = 64; array* = 60; record* = 61; pointer* = 62; const* = 63; type* = 64;
var* = 65; procedure* = 66; begin* = 67; import* = 68; module* = 69; var* = 65; procedure* = 66; begin* = 67; import* = 68; module* = 69;
TYPE Ident* = ARRAY IdLen OF CHAR; TYPE Ident* = ARRAY IdLen OF CHAR;
VAR ival*, slen*: LONGINT; (*results of Get*) VAR ival*, slen*: LONGINT; (*results of Get*)
rval*: REAL; rval*: REAL;
id*: Ident; (*for identifiers*) id*: Ident; (*for identifiers*)
str*: ARRAY stringBufSize OF CHAR; str*: ARRAY stringBufSize OF CHAR;
errcnt*: INTEGER; errcnt*: INTEGER;
ch: CHAR; (*last character read*) ch: CHAR; (*last character read*)
errpos: LONGINT; errpos: LONGINT;
R: Texts.Reader; R: Texts.Reader;
W: Texts.Writer; W: Texts.Writer;
k: INTEGER; k: INTEGER;
KWX: ARRAY 10 OF INTEGER; KWX: ARRAY 10 OF INTEGER;
keyTab: ARRAY NKW OF keyTab: ARRAY NKW OF
RECORD sym: INTEGER; id: ARRAY 12 OF CHAR END; RECORD sym: INTEGER; id: ARRAY 12 OF CHAR END;
PROCEDURE CopyId*(VAR ident: Ident); PROCEDURE CopyId*(VAR ident: Ident);
BEGIN ident := id BEGIN ident := id
END CopyId; END CopyId;
PROCEDURE Pos*(): LONGINT; PROCEDURE Pos*(): LONGINT;
BEGIN RETURN Texts.Pos(R) - 1 BEGIN RETURN Texts.Pos(R) - 1
END Pos; END Pos;
PROCEDURE Mark*(msg: ARRAY OF CHAR); PROCEDURE Mark*(msg: ARRAY OF CHAR);
VAR p: LONGINT; VAR p: LONGINT;
BEGIN p := Pos(); BEGIN p := Pos();
IF (p > errpos) & (errcnt < 25) THEN IF (p > errpos) & (errcnt < 25) THEN
Texts.WriteLn(W); Texts.WriteString(W, " pos "); Texts.WriteInt(W, p, 1); Texts.Write(W, " "); Texts.WriteLn(W); Texts.WriteString(W, " pos "); Texts.WriteInt(W, p, 1); Texts.Write(W, " ");
Texts.WriteString(W, msg); Texts.Append(Oberon.Log, W.buf); Texts.WriteString(W, msg); Texts.Append(Oberon.Log, W.buf);
Oberon.DumpLog; (* voc adaptation by noch *) Oberon.DumpLog; (* voc adaptation by noch *)
END ; END ;
INC(errcnt); errpos := p + 4 INC(errcnt); errpos := p + 4
END Mark; END Mark;
PROCEDURE Identifier(VAR sym: INTEGER); PROCEDURE Identifier(VAR sym: INTEGER);
VAR i, k: INTEGER; VAR i, k: INTEGER;
BEGIN i := 0; BEGIN i := 0;
REPEAT REPEAT
IF i < IdLen-1 THEN id[i] := ch; INC(i) END ; IF i < IdLen-1 THEN id[i] := ch; INC(i) END ;
Texts.Read(R, ch) Texts.Read(R, ch)
UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "Z") & (ch < "a") OR (ch > "z"); UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "Z") & (ch < "a") OR (ch > "z");
id[i] := 0X; id[i] := 0X;
IF i < 10 THEN k := KWX[i-1]; (*search for keyword*) IF i < 10 THEN k := KWX[i-1]; (*search for keyword*)
WHILE (id # keyTab[k].id) & (k < KWX[i]) DO INC(k) END ; WHILE (id # keyTab[k].id) & (k < KWX[i]) DO INC(k) END ;
IF k < KWX[i] THEN sym := keyTab[k].sym ELSE sym := ident END IF k < KWX[i] THEN sym := keyTab[k].sym ELSE sym := ident END
ELSE sym := ident ELSE sym := ident
END END
END Identifier; END Identifier;
PROCEDURE String; PROCEDURE String;
VAR i: INTEGER; VAR i: INTEGER;
BEGIN i := 0; Texts.Read(R, ch); BEGIN i := 0; Texts.Read(R, ch);
WHILE ~R.eot & (ch # 22X) DO WHILE ~R.eot & (ch # 22X) DO
IF ch >= " " THEN IF ch >= " " THEN
IF i < stringBufSize-1 THEN str[i] := ch; INC(i) ELSE Mark("string too long") END ; IF i < stringBufSize-1 THEN str[i] := ch; INC(i) ELSE Mark("string too long") END ;
END ; END ;
Texts.Read(R, ch) Texts.Read(R, ch)
END ; END ;
str[i] := 0X; INC(i); Texts.Read(R, ch); slen := i str[i] := 0X; INC(i); Texts.Read(R, ch); slen := i
END String; END String;
PROCEDURE HexString; PROCEDURE HexString;
VAR i, m, n: INTEGER; VAR i, m, n: INTEGER;
BEGIN i := 0; Texts.Read(R, ch); BEGIN i := 0; Texts.Read(R, ch);
WHILE ~R.eot & (ch # "$") DO WHILE ~R.eot & (ch # "$") DO
WHILE (ch = " ") OR (ch = 9X) OR (ch = 0DX) DO Texts.Read(R, ch) END ; (*skip*) WHILE (ch = " ") OR (ch = 9X) OR (ch = 0DX) DO Texts.Read(R, ch) END ; (*skip*)
IF ("0" <= ch) & (ch <= "9") THEN m := ORD(ch) - 30H IF ("0" <= ch) & (ch <= "9") THEN m := ORD(ch) - 30H
ELSIF ("A" <= ch) & (ch <= "F") THEN m := ORD(ch) - 37H ELSIF ("A" <= ch) & (ch <= "F") THEN m := ORD(ch) - 37H
ELSE m := 0; Mark("hexdig expected") ELSE m := 0; Mark("hexdig expected")
END ; END ;
Texts.Read(R, ch); Texts.Read(R, ch);
IF ("0" <= ch) & (ch <= "9") THEN n := ORD(ch) - 30H IF ("0" <= ch) & (ch <= "9") THEN n := ORD(ch) - 30H
ELSIF ("A" <= ch) & (ch <= "F") THEN n := ORD(ch) - 37H ELSIF ("A" <= ch) & (ch <= "F") THEN n := ORD(ch) - 37H
ELSE n := 0; Mark("hexdig expected") ELSE n := 0; Mark("hexdig expected")
END ; END ;
IF i < stringBufSize THEN str[i] := CHR(m*10H + n); INC(i) ELSE Mark("string too long") END ; IF i < stringBufSize THEN str[i] := CHR(m*10H + n); INC(i) ELSE Mark("string too long") END ;
Texts.Read(R, ch) Texts.Read(R, ch)
END ; END ;
Texts.Read(R, ch); slen := i (*no 0X appended!*) Texts.Read(R, ch); slen := i (*no 0X appended!*)
END HexString; END HexString;
PROCEDURE Ten(e: LONGINT): REAL; PROCEDURE Ten(e: LONGINT): REAL;
VAR x, t: REAL; VAR x, t: REAL;
BEGIN x := 1.0; t := 10.0; BEGIN x := 1.0; t := 10.0;
WHILE e > 0 DO WHILE e > 0 DO
IF ODD(e) THEN x := t * x END ; IF ODD(e) THEN x := t * x END ;
t := t * t; e := e DIV 2 t := t * t; e := e DIV 2
END ; END ;
RETURN x RETURN x
END Ten; END Ten;
PROCEDURE Number(VAR sym: INTEGER); PROCEDURE Number(VAR sym: INTEGER);
CONST max = 2147483647 (*2^31 - 1*); CONST max = 2147483647 (*2^31 - 1*);
VAR i, k, e, n, s, h: LONGINT; x: REAL; VAR i, k, e, n, s, h: LONGINT; x: REAL;
d: ARRAY 16 OF INTEGER; d: ARRAY 16 OF INTEGER;
negE: BOOLEAN; negE: BOOLEAN;
BEGIN ival := 0; i := 0; n := 0; k := 0; BEGIN ival := 0; i := 0; n := 0; k := 0;
REPEAT REPEAT
IF n < 16 THEN d[n] := ORD(ch)-30H; INC(n) ELSE Mark("too many digits"); n := 0 END ; IF n < 16 THEN d[n] := ORD(ch)-30H; INC(n) ELSE Mark("too many digits"); n := 0 END ;
Texts.Read(R, ch) Texts.Read(R, ch)
UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "F"); UNTIL (ch < "0") OR (ch > "9") & (ch < "A") OR (ch > "F");
IF (ch = "H") OR (ch = "R") OR (ch = "X") THEN (*hex*) IF (ch = "H") OR (ch = "R") OR (ch = "X") THEN (*hex*)
REPEAT h := d[i]; REPEAT h := d[i];
IF h >= 10 THEN h := h-7 END ; IF h >= 10 THEN h := h-7 END ;
k := k*10H + h; INC(i) (*no overflow check*) k := k*10H + h; INC(i) (*no overflow check*)
UNTIL i = n; UNTIL i = n;
IF ch = "X" THEN sym := char; IF ch = "X" THEN sym := char;
IF k < 100H THEN ival := k ELSE Mark("illegal value"); ival := 0 END IF k < 100H THEN ival := k ELSE Mark("illegal value"); ival := 0 END
ELSIF ch = "R" THEN sym := real; rval := SYSTEM.VAL(REAL, k) ELSIF ch = "R" THEN sym := real; rval := SYSTEM.VAL(REAL, k)
ELSE sym := int; ival := k ELSE sym := int; ival := k
END ; END ;
Texts.Read(R, ch) Texts.Read(R, ch)
ELSIF ch = "." THEN ELSIF ch = "." THEN
Texts.Read(R, ch); Texts.Read(R, ch);
IF ch = "." THEN (*double dot*) ch := 7FX; (*decimal integer*) IF ch = "." THEN (*double dot*) ch := 7FX; (*decimal integer*)
REPEAT REPEAT
IF d[i] < 10 THEN IF d[i] < 10 THEN
IF k <= (max-d[i]) DIV 10 THEN k := k *10 + d[i] ELSE Mark("too large"); k := 0 END IF k <= (max-d[i]) DIV 10 THEN k := k *10 + d[i] ELSE Mark("too large"); k := 0 END
ELSE Mark("bad integer") ELSE Mark("bad integer")
END ; END ;
INC(i) INC(i)
UNTIL i = n; UNTIL i = n;
sym := int; ival := k sym := int; ival := k
ELSE (*real number*) x := 0.0; e := 0; ELSE (*real number*) x := 0.0; e := 0;
REPEAT (*integer part*) REPEAT (*integer part*)
(*x := x * 10.0 + FLT(d[i]); *) (*x := x * 10.0 + FLT(d[i]); *)
x := x * 10.0 + (d[i]); (* voc adaptation by noch *) x := x * 10.0 + (d[i]); (* voc adaptation by noch *)
INC(i) INC(i)
UNTIL i = n; UNTIL i = n;
WHILE (ch >= "0") & (ch <= "9") DO (*fraction*) WHILE (ch >= "0") & (ch <= "9") DO (*fraction*)
(*x := x * 10.0 + FLT(ORD(ch) - 30H);*) (*x := x * 10.0 + FLT(ORD(ch) - 30H);*)
x := x * 10.0 + (ORD(ch) - 30H); (* voc adaptation by noch *) x := x * 10.0 + (ORD(ch) - 30H); (* voc adaptation by noch *)
DEC(e); DEC(e);
Texts.Read(R, ch) Texts.Read(R, ch)
END ; END ;
IF (ch = "E") OR (ch = "D") THEN (*scale factor*) IF (ch = "E") OR (ch = "D") THEN (*scale factor*)
Texts.Read(R, ch); s := 0; Texts.Read(R, ch); s := 0;
IF ch = "-" THEN negE := TRUE; Texts.Read(R, ch) IF ch = "-" THEN negE := TRUE; Texts.Read(R, ch)
ELSE negE := FALSE; ELSE negE := FALSE;
IF ch = "+" THEN Texts.Read(R, ch) END IF ch = "+" THEN Texts.Read(R, ch) END
END ; END ;
IF (ch >= "0") & (ch <= "9") THEN IF (ch >= "0") & (ch <= "9") THEN
REPEAT s := s*10 + ORD(ch)-30H; Texts.Read(R, ch) REPEAT s := s*10 + ORD(ch)-30H; Texts.Read(R, ch)
UNTIL (ch < "0") OR (ch >"9"); UNTIL (ch < "0") OR (ch >"9");
IF negE THEN e := e-s ELSE e := e+s END IF negE THEN e := e-s ELSE e := e+s END
ELSE Mark("digit?") ELSE Mark("digit?")
END END
END ; END ;
IF e < 0 THEN IF e < 0 THEN
IF e >= -maxExp THEN x := x / Ten(-e) ELSE x := 0.0 END IF e >= -maxExp THEN x := x / Ten(-e) ELSE x := 0.0 END
ELSIF e > 0 THEN ELSIF e > 0 THEN
IF e <= maxExp THEN x := Ten(e) * x ELSE x := 0.0; Mark("too large") END IF e <= maxExp THEN x := Ten(e) * x ELSE x := 0.0; Mark("too large") END
END ; END ;
sym := real; rval := x sym := real; rval := x
END END
ELSE (*decimal integer*) ELSE (*decimal integer*)
REPEAT REPEAT
IF d[i] < 10 THEN IF d[i] < 10 THEN
IF k <= (max-d[i]) DIV 10 THEN k := k*10 + d[i] ELSE Mark("too large"); k := 0 END IF k <= (max-d[i]) DIV 10 THEN k := k*10 + d[i] ELSE Mark("too large"); k := 0 END
ELSE Mark("bad integer") ELSE Mark("bad integer")
END ; END ;
INC(i) INC(i)
UNTIL i = n; UNTIL i = n;
sym := int; ival := k sym := int; ival := k
END END
END Number; END Number;
PROCEDURE comment; PROCEDURE comment;
BEGIN Texts.Read(R, ch); BEGIN Texts.Read(R, ch);
REPEAT REPEAT
WHILE ~R.eot & (ch # "*") DO WHILE ~R.eot & (ch # "*") DO
IF ch = "(" THEN Texts.Read(R, ch); IF ch = "(" THEN Texts.Read(R, ch);
IF ch = "*" THEN comment END IF ch = "*" THEN comment END
ELSE Texts.Read(R, ch) ELSE Texts.Read(R, ch)
END END
END ; END ;
WHILE ch = "*" DO Texts.Read(R, ch) END WHILE ch = "*" DO Texts.Read(R, ch) END
UNTIL (ch = ")") OR R.eot; UNTIL (ch = ")") OR R.eot;
IF ~R.eot THEN Texts.Read(R, ch) ELSE Mark("unterminated comment") END IF ~R.eot THEN Texts.Read(R, ch) ELSE Mark("unterminated comment") END
END comment; END comment;
PROCEDURE Get*(VAR sym: INTEGER); PROCEDURE Get*(VAR sym: INTEGER);
BEGIN BEGIN
REPEAT REPEAT
WHILE ~R.eot & (ch <= " ") DO Texts.Read(R, ch) END; WHILE ~R.eot & (ch <= " ") DO Texts.Read(R, ch) END;
IF ch < "A" THEN IF ch < "A" THEN
IF ch < "0" THEN IF ch < "0" THEN
IF ch = 22X THEN String; sym := string IF ch = 22X THEN String; sym := string
ELSIF ch = "#" THEN Texts.Read(R, ch); sym := neq ELSIF ch = "#" THEN Texts.Read(R, ch); sym := neq
ELSIF ch = "$" THEN HexString; sym := string ELSIF ch = "$" THEN HexString; sym := string
ELSIF ch = "&" THEN Texts.Read(R, ch); sym := and ELSIF ch = "&" THEN Texts.Read(R, ch); sym := and
ELSIF ch = "(" THEN Texts.Read(R, ch); ELSIF ch = "(" THEN Texts.Read(R, ch);
IF ch = "*" THEN sym := null; comment ELSE sym := lparen END IF ch = "*" THEN sym := null; comment ELSE sym := lparen END
ELSIF ch = ")" THEN Texts.Read(R, ch); sym := rparen ELSIF ch = ")" THEN Texts.Read(R, ch); sym := rparen
ELSIF ch = "*" THEN Texts.Read(R, ch); sym := times ELSIF ch = "*" THEN Texts.Read(R, ch); sym := times
ELSIF ch = "+" THEN Texts.Read(R, ch); sym := plus ELSIF ch = "+" THEN Texts.Read(R, ch); sym := plus
ELSIF ch = "," THEN Texts.Read(R, ch); sym := comma ELSIF ch = "," THEN Texts.Read(R, ch); sym := comma
ELSIF ch = "-" THEN Texts.Read(R, ch); sym := minus ELSIF ch = "-" THEN Texts.Read(R, ch); sym := minus
ELSIF ch = "." THEN Texts.Read(R, ch); ELSIF ch = "." THEN Texts.Read(R, ch);
IF ch = "." THEN Texts.Read(R, ch); sym := upto ELSE sym := period END IF ch = "." THEN Texts.Read(R, ch); sym := upto ELSE sym := period END
ELSIF ch = "/" THEN Texts.Read(R, ch); sym := rdiv ELSIF ch = "/" THEN Texts.Read(R, ch); sym := rdiv
ELSE Texts.Read(R, ch); (* ! % ' *) sym := null ELSE Texts.Read(R, ch); (* ! % ' *) sym := null
END END
ELSIF ch < ":" THEN Number(sym) ELSIF ch < ":" THEN Number(sym)
ELSIF ch = ":" THEN Texts.Read(R, ch); ELSIF ch = ":" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := becomes ELSE sym := colon END IF ch = "=" THEN Texts.Read(R, ch); sym := becomes ELSE sym := colon END
ELSIF ch = ";" THEN Texts.Read(R, ch); sym := semicolon ELSIF ch = ";" THEN Texts.Read(R, ch); sym := semicolon
ELSIF ch = "<" THEN Texts.Read(R, ch); ELSIF ch = "<" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := leq ELSE sym := lss END IF ch = "=" THEN Texts.Read(R, ch); sym := leq ELSE sym := lss END
ELSIF ch = "=" THEN Texts.Read(R, ch); sym := eql ELSIF ch = "=" THEN Texts.Read(R, ch); sym := eql
ELSIF ch = ">" THEN Texts.Read(R, ch); ELSIF ch = ">" THEN Texts.Read(R, ch);
IF ch = "=" THEN Texts.Read(R, ch); sym := geq ELSE sym := gtr END IF ch = "=" THEN Texts.Read(R, ch); sym := geq ELSE sym := gtr END
ELSE (* ? @ *) Texts.Read(R, ch); sym := null ELSE (* ? @ *) Texts.Read(R, ch); sym := null
END END
ELSIF ch < "[" THEN Identifier(sym) ELSIF ch < "[" THEN Identifier(sym)
ELSIF ch < "a" THEN ELSIF ch < "a" THEN
IF ch = "[" THEN sym := lbrak IF ch = "[" THEN sym := lbrak
ELSIF ch = "]" THEN sym := rbrak ELSIF ch = "]" THEN sym := rbrak
ELSIF ch = "^" THEN sym := arrow ELSIF ch = "^" THEN sym := arrow
ELSE (* _ ` *) sym := null ELSE (* _ ` *) sym := null
END ; END ;
Texts.Read(R, ch) Texts.Read(R, ch)
ELSIF ch < "{" THEN Identifier(sym) ELSE ELSIF ch < "{" THEN Identifier(sym) ELSE
IF ch = "{" THEN sym := lbrace IF ch = "{" THEN sym := lbrace
ELSIF ch = "}" THEN sym := rbrace ELSIF ch = "}" THEN sym := rbrace
ELSIF ch = "|" THEN sym := bar ELSIF ch = "|" THEN sym := bar
ELSIF ch = "~" THEN sym := not ELSIF ch = "~" THEN sym := not
ELSIF ch = 7FX THEN sym := upto ELSIF ch = 7FX THEN sym := upto
ELSE sym := null ELSE sym := null
END ; END ;
Texts.Read(R, ch) Texts.Read(R, ch)
END END
UNTIL sym # null UNTIL sym # null
END Get; END Get;
PROCEDURE Init*(T: Texts.Text; pos: LONGINT); PROCEDURE Init*(T: Texts.Text; pos: LONGINT);
BEGIN errpos := pos; errcnt := 0; Texts.OpenReader(R, T, pos); Texts.Read(R, ch) BEGIN errpos := pos; errcnt := 0; Texts.OpenReader(R, T, pos); Texts.Read(R, ch)
END Init; END Init;
PROCEDURE EnterKW(sym: INTEGER; name: ARRAY OF CHAR); PROCEDURE EnterKW(sym: INTEGER; name: ARRAY OF CHAR);
BEGIN BEGIN
(*keyTab[k].id := name; *) (*keyTab[k].id := name; *)
COPY(name, keyTab[k].id); (* voc adaptation by noch *) COPY(name, keyTab[k].id); (* voc adaptation by noch *)
keyTab[k].sym := sym; keyTab[k].sym := sym;
INC(k) INC(k)
END EnterKW; END EnterKW;
BEGIN Texts.OpenWriter(W); k := 0; KWX[0] := 0; KWX[1] := 0; BEGIN Texts.OpenWriter(W); k := 0; KWX[0] := 0; KWX[1] := 0;
EnterKW(if, "IF"); EnterKW(if, "IF");
EnterKW(do, "DO"); EnterKW(do, "DO");
EnterKW(of, "OF"); EnterKW(of, "OF");
EnterKW(or, "OR"); EnterKW(or, "OR");
EnterKW(to, "TO"); EnterKW(to, "TO");
EnterKW(in, "IN"); EnterKW(in, "IN");
EnterKW(is, "IS"); EnterKW(is, "IS");
EnterKW(by, "BY"); EnterKW(by, "BY");
KWX[2] := k; KWX[2] := k;
EnterKW(end, "END"); EnterKW(end, "END");
EnterKW(nil, "NIL"); EnterKW(nil, "NIL");
EnterKW(var, "VAR"); EnterKW(var, "VAR");
EnterKW(div, "DIV"); EnterKW(div, "DIV");
EnterKW(mod, "MOD"); EnterKW(mod, "MOD");
EnterKW(for, "FOR"); EnterKW(for, "FOR");
KWX[3] := k; KWX[3] := k;
EnterKW(else, "ELSE"); EnterKW(else, "ELSE");
EnterKW(then, "THEN"); EnterKW(then, "THEN");
EnterKW(true, "TRUE"); EnterKW(true, "TRUE");
EnterKW(type, "TYPE"); EnterKW(type, "TYPE");
EnterKW(case, "CASE"); EnterKW(case, "CASE");
KWX[4] := k; KWX[4] := k;
EnterKW(elsif, "ELSIF"); EnterKW(elsif, "ELSIF");
EnterKW(false, "FALSE"); EnterKW(false, "FALSE");
EnterKW(array, "ARRAY"); EnterKW(array, "ARRAY");
EnterKW(begin, "BEGIN"); EnterKW(begin, "BEGIN");
EnterKW(const, "CONST"); EnterKW(const, "CONST");
EnterKW(until, "UNTIL"); EnterKW(until, "UNTIL");
EnterKW(while, "WHILE"); EnterKW(while, "WHILE");
KWX[5] := k; KWX[5] := k;
EnterKW(record, "RECORD"); EnterKW(record, "RECORD");
EnterKW(repeat, "REPEAT"); EnterKW(repeat, "REPEAT");
EnterKW(return, "RETURN"); EnterKW(return, "RETURN");
EnterKW(import, "IMPORT"); EnterKW(import, "IMPORT");
EnterKW(module, "MODULE"); EnterKW(module, "MODULE");
KWX[6] := k; KWX[6] := k;
EnterKW(pointer, "POINTER"); EnterKW(pointer, "POINTER");
KWX[7] := k; KWX[8] := k; KWX[7] := k; KWX[8] := k;
EnterKW(procedure, "PROCEDURE"); EnterKW(procedure, "PROCEDURE");
KWX[9] := k KWX[9] := k
END ORS. END ORS.

View file

@ -1,251 +1,251 @@
MODULE ORTool; (*NW 18.2.2013*) MODULE ORTool; (*NW 18.2.2013*)
IMPORT SYSTEM, Files, Texts, Oberon, ORB; IMPORT SYSTEM, Files, Texts, Oberon, ORB;
VAR W: Texts.Writer; VAR W: Texts.Writer;
Form: INTEGER; (*result of ReadType*) Form: INTEGER; (*result of ReadType*)
mnemo0, mnemo1: ARRAY 16, 4 OF CHAR; (*mnemonics*) mnemo0, mnemo1: ARRAY 16, 4 OF CHAR; (*mnemonics*)
PROCEDURE Read(VAR R: Files.Rider; VAR n: INTEGER); PROCEDURE Read(VAR R: Files.Rider; VAR n: INTEGER);
VAR b: BYTE; VAR b: BYTE;
BEGIN Files.ReadByte(R, b); BEGIN Files.ReadByte(R, b);
IF b < 80H THEN n := b ELSE n := b - 100H END IF b < 80H THEN n := b ELSE n := b - 100H END
END Read; END Read;
PROCEDURE ReadType(VAR R: Files.Rider); PROCEDURE ReadType(VAR R: Files.Rider);
VAR key, len, lev, size, off: INTEGER; VAR key, len, lev, size, off: INTEGER;
ref, mno, class, form, readonly: INTEGER; ref, mno, class, form, readonly: INTEGER;
name, modname: ARRAY 32 OF CHAR; name, modname: ARRAY 32 OF CHAR;
BEGIN Read(R, ref); Texts.Write(W, " "); Texts.Write(W, "["); BEGIN Read(R, ref); Texts.Write(W, " "); Texts.Write(W, "[");
IF ref < 0 THEN Texts.Write(W, "^"); Texts.WriteInt(W, -ref, 1) IF ref < 0 THEN Texts.Write(W, "^"); Texts.WriteInt(W, -ref, 1)
ELSE Texts.WriteInt(W, ref, 1); ELSE Texts.WriteInt(W, ref, 1);
Read(R, form); Texts.WriteString(W, " form = "); Texts.WriteInt(W, form, 1); Read(R, form); Texts.WriteString(W, " form = "); Texts.WriteInt(W, form, 1);
IF form = ORB.Pointer THEN ReadType(R) IF form = ORB.Pointer THEN ReadType(R)
ELSIF form = ORB.Array THEN ELSIF form = ORB.Array THEN
ReadType(R); Files.ReadNum(R, len); Files.ReadNum(R, size); ReadType(R); Files.ReadNum(R, len); Files.ReadNum(R, size);
Texts.WriteString(W, " len = "); Texts.WriteInt(W, len, 1); Texts.WriteString(W, " len = "); Texts.WriteInt(W, len, 1);
Texts.WriteString(W, " size = "); Texts.WriteInt(W, size, 1) Texts.WriteString(W, " size = "); Texts.WriteInt(W, size, 1)
ELSIF form = ORB.Record THEN ELSIF form = ORB.Record THEN
ReadType(R); (*base type*) ReadType(R); (*base type*)
Files.ReadNum(R, off); Texts.WriteString(W, " exno = "); Texts.WriteInt(W, off, 1); Files.ReadNum(R, off); Texts.WriteString(W, " exno = "); Texts.WriteInt(W, off, 1);
Files.ReadNum(R, off); Texts.WriteString(W, " extlev = "); Texts.WriteInt(W, off, 1); Files.ReadNum(R, off); Texts.WriteString(W, " extlev = "); Texts.WriteInt(W, off, 1);
Files.ReadNum(R, size); Texts.WriteString(W, " size = "); Texts.WriteInt(W, size, 1); Files.ReadNum(R, size); Texts.WriteString(W, " size = "); Texts.WriteInt(W, size, 1);
Texts.Write(W, " "); Texts.Write(W, "{"); Read(R, class); Texts.Write(W, " "); Texts.Write(W, "{"); Read(R, class);
WHILE class # 0 DO (*fields*) WHILE class # 0 DO (*fields*)
Files.ReadString(R, name); Files.ReadString(R, name);
IF name[0] # 0X THEN Texts.Write(W, " "); Texts.WriteString(W, name); ReadType(R) IF name[0] # 0X THEN Texts.Write(W, " "); Texts.WriteString(W, name); ReadType(R)
ELSE Texts.WriteString(W, " --") ELSE Texts.WriteString(W, " --")
END ; END ;
Files.ReadNum(R, off); Texts.WriteInt(W, off, 4); Read(R, class) Files.ReadNum(R, off); Texts.WriteInt(W, off, 4); Read(R, class)
END ; END ;
Texts.Write(W, "}") Texts.Write(W, "}")
ELSIF form = ORB.Proc THEN ELSIF form = ORB.Proc THEN
ReadType(R); Texts.Write(W, "("); Read(R, class); ReadType(R); Texts.Write(W, "("); Read(R, class);
WHILE class # 0 DO WHILE class # 0 DO
Texts.WriteString(W, " class = "); Texts.WriteInt(W, class, 1); Read(R, readonly); Texts.WriteString(W, " class = "); Texts.WriteInt(W, class, 1); Read(R, readonly);
IF readonly = 1 THEN Texts.Write(W, "#") END ; IF readonly = 1 THEN Texts.Write(W, "#") END ;
ReadType(R); Read(R, class) ReadType(R); Read(R, class)
END ; END ;
Texts.Write(W, ")") Texts.Write(W, ")")
END ; END ;
Files.ReadString(R, modname); Files.ReadString(R, modname);
IF modname[0] # 0X THEN IF modname[0] # 0X THEN
Files.ReadInt(R, key); Files.ReadString(R, name); Files.ReadInt(R, key); Files.ReadString(R, name);
Texts.Write(W, " "); Texts.WriteString(W, modname); Texts.Write(W, "."); Texts.WriteString(W, name); Texts.Write(W, " "); Texts.WriteString(W, modname); Texts.Write(W, "."); Texts.WriteString(W, name);
Texts.WriteHex(W, key) Texts.WriteHex(W, key)
END END
END ; END ;
Form := form; Texts.Write(W, "]") Form := form; Texts.Write(W, "]")
END ReadType; END ReadType;
PROCEDURE DecSym*; (*decode symbol file*) PROCEDURE DecSym*; (*decode symbol file*)
VAR class, typno, k: INTEGER; VAR class, typno, k: INTEGER;
name: ARRAY 32 OF CHAR; name: ARRAY 32 OF CHAR;
F: Files.File; R: Files.Rider; F: Files.File; R: Files.Rider;
S: Texts.Scanner; S: Texts.Scanner;
BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S); BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S);
IF S.class = Texts.Name THEN IF S.class = Texts.Name THEN
Texts.WriteString(W, "OR-decode "); Texts.WriteString(W, S.s); Texts.WriteString(W, "OR-decode "); Texts.WriteString(W, S.s);
Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf); Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf);
F := Files.Old(S.s); F := Files.Old(S.s);
IF F # NIL THEN IF F # NIL THEN
Files.Set(R, F, 0); Files.ReadInt(R, k); Files.ReadInt(R, k); Files.Set(R, F, 0); Files.ReadInt(R, k); Files.ReadInt(R, k);
Files.ReadString(R, name); Texts.WriteString(W, name); Texts.WriteHex(W, k); Files.ReadString(R, name); Texts.WriteString(W, name); Texts.WriteHex(W, k);
Read(R, class); Texts.WriteInt(W, class, 3); (*sym file version*) Read(R, class); Texts.WriteInt(W, class, 3); (*sym file version*)
IF class = ORB.versionkey THEN IF class = ORB.versionkey THEN
Texts.WriteLn(W); Read(R, class); Texts.WriteLn(W); Read(R, class);
WHILE class # 0 DO WHILE class # 0 DO
Texts.WriteInt(W, class, 4); Files.ReadString(R, name); Texts.Write(W, " "); Texts.WriteString(W, name); Texts.WriteInt(W, class, 4); Files.ReadString(R, name); Texts.Write(W, " "); Texts.WriteString(W, name);
ReadType(R); ReadType(R);
IF class = ORB.Typ THEN IF class = ORB.Typ THEN
Texts.Write(W, "("); Read(R, class); Texts.Write(W, "("); Read(R, class);
WHILE class # 0 DO (*pointer base fixup*) WHILE class # 0 DO (*pointer base fixup*)
Texts.WriteString(W, " ->"); Texts.WriteInt(W, class, 4); Read(R, class) Texts.WriteString(W, " ->"); Texts.WriteInt(W, class, 4); Read(R, class)
END ; END ;
Texts.Write(W, ")") Texts.Write(W, ")")
ELSIF (class = ORB.Const) OR (class = ORB.Var) THEN ELSIF (class = ORB.Const) OR (class = ORB.Var) THEN
Files.ReadNum(R, k); Texts.WriteInt(W, k, 5); (*Reals, Strings!*) Files.ReadNum(R, k); Texts.WriteInt(W, k, 5); (*Reals, Strings!*)
END ; END ;
Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf); Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf);
Read(R, class) Read(R, class)
END END
ELSE Texts.WriteString(W, " bad symfile version") ELSE Texts.WriteString(W, " bad symfile version")
END END
ELSE Texts.WriteString(W, " not found") ELSE Texts.WriteString(W, " not found")
END ; END ;
Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf) Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf)
END END
END DecSym; END DecSym;
(* ---------------------------------------------------*) (* ---------------------------------------------------*)
PROCEDURE WriteReg(r: LONGINT); PROCEDURE WriteReg(r: LONGINT);
BEGIN Texts.Write(W, " "); BEGIN Texts.Write(W, " ");
IF r < 12 THEN Texts.WriteString(W, " R"); Texts.WriteInt(W, r MOD 10H, 1) IF r < 12 THEN Texts.WriteString(W, " R"); Texts.WriteInt(W, r MOD 10H, 1)
ELSIF r = 12 THEN Texts.WriteString(W, "MT") ELSIF r = 12 THEN Texts.WriteString(W, "MT")
ELSIF r = 13 THEN Texts.WriteString(W, "SB") ELSIF r = 13 THEN Texts.WriteString(W, "SB")
ELSIF r = 14 THEN Texts.WriteString(W, "SP") ELSIF r = 14 THEN Texts.WriteString(W, "SP")
ELSE Texts.WriteString(W, "LNK") ELSE Texts.WriteString(W, "LNK")
END END
END WriteReg; END WriteReg;
PROCEDURE opcode(w: LONGINT); PROCEDURE opcode(w: LONGINT);
VAR k, op, u, a, b, c: LONGINT; VAR k, op, u, a, b, c: LONGINT;
BEGIN BEGIN
k := w DIV 40000000H MOD 4; k := w DIV 40000000H MOD 4;
a := w DIV 1000000H MOD 10H; a := w DIV 1000000H MOD 10H;
b := w DIV 100000H MOD 10H; b := w DIV 100000H MOD 10H;
op := w DIV 10000H MOD 10H; op := w DIV 10000H MOD 10H;
u := w DIV 20000000H MOD 2; u := w DIV 20000000H MOD 2;
IF k = 0 THEN IF k = 0 THEN
Texts.WriteString(W, mnemo0[op]); Texts.WriteString(W, mnemo0[op]);
IF u = 1 THEN Texts.Write(W, "'") END ; IF u = 1 THEN Texts.Write(W, "'") END ;
WriteReg(a); WriteReg(b); WriteReg(w MOD 10H) WriteReg(a); WriteReg(b); WriteReg(w MOD 10H)
ELSIF k = 1 THEN ELSIF k = 1 THEN
Texts.WriteString(W, mnemo0[op]); Texts.WriteString(W, mnemo0[op]);
IF u = 1 THEN Texts.Write(W, "'") END ; IF u = 1 THEN Texts.Write(W, "'") END ;
WriteReg(a); WriteReg(b); w := w MOD 10000H; WriteReg(a); WriteReg(b); w := w MOD 10000H;
IF w >= 8000H THEN w := w - 10000H END ; IF w >= 8000H THEN w := w - 10000H END ;
Texts.WriteInt(W, w, 7) Texts.WriteInt(W, w, 7)
ELSIF k = 2 THEN (*LDR/STR*) ELSIF k = 2 THEN (*LDR/STR*)
IF u = 1 THEN Texts.WriteString(W, "STR ") ELSE Texts.WriteString(W, "LDR") END ; IF u = 1 THEN Texts.WriteString(W, "STR ") ELSE Texts.WriteString(W, "LDR") END ;
WriteReg(a); WriteReg(b); w := w MOD 100000H; WriteReg(a); WriteReg(b); w := w MOD 100000H;
IF w >= 80000H THEN w := w - 100000H END ; IF w >= 80000H THEN w := w - 100000H END ;
Texts.WriteInt(W, w, 8) Texts.WriteInt(W, w, 8)
ELSIF k = 3 THEN (*Branch instr*) ELSIF k = 3 THEN (*Branch instr*)
Texts.Write(W, "B"); Texts.Write(W, "B");
IF ODD(w DIV 10000000H) THEN Texts.Write(W, "L") END ; IF ODD(w DIV 10000000H) THEN Texts.Write(W, "L") END ;
Texts.WriteString(W, mnemo1[a]); Texts.WriteString(W, mnemo1[a]);
IF u = 0 THEN WriteReg(w MOD 10H) ELSE IF u = 0 THEN WriteReg(w MOD 10H) ELSE
w := w MOD 100000H; w := w MOD 100000H;
IF w >= 80000H THEN w := w - 100000H END ; IF w >= 80000H THEN w := w - 100000H END ;
Texts.WriteInt(W, w, 8) Texts.WriteInt(W, w, 8)
END END
END END
END opcode; END opcode;
PROCEDURE Sync(VAR R: Files.Rider); PROCEDURE Sync(VAR R: Files.Rider);
VAR ch: CHAR; VAR ch: CHAR;
BEGIN Files.Read(R, ch); Texts.WriteString(W, "Sync "); Texts.Write(W, ch); Texts.WriteLn(W) BEGIN Files.Read(R, ch); Texts.WriteString(W, "Sync "); Texts.Write(W, ch); Texts.WriteLn(W)
END Sync; END Sync;
PROCEDURE Write(VAR R: Files.Rider; x: INTEGER); PROCEDURE Write(VAR R: Files.Rider; x: INTEGER);
BEGIN Files.WriteByte(R, x) (* -128 <= x < 128 *) BEGIN Files.WriteByte(R, x) (* -128 <= x < 128 *)
END Write; END Write;
PROCEDURE DecObj*; (*decode object file*) PROCEDURE DecObj*; (*decode object file*)
VAR class, i, n, key, size, fix, adr, data, len: INTEGER; VAR class, i, n, key, size, fix, adr, data, len: INTEGER;
ch: CHAR; ch: CHAR;
name: ARRAY 32 OF CHAR; name: ARRAY 32 OF CHAR;
F: Files.File; R: Files.Rider; F: Files.File; R: Files.Rider;
S: Texts.Scanner; S: Texts.Scanner;
BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S); BEGIN Texts.OpenScanner(S, Oberon.Par.text, Oberon.Par.pos); Texts.Scan(S);
IF S.class = Texts.Name THEN IF S.class = Texts.Name THEN
Texts.WriteString(W, "decode "); Texts.WriteString(W, S.s); F := Files.Old(S.s); Texts.WriteString(W, "decode "); Texts.WriteString(W, S.s); F := Files.Old(S.s);
IF F # NIL THEN IF F # NIL THEN
Files.Set(R, F, 0); Files.ReadString(R, name); Texts.WriteLn(W); Texts.WriteString(W, name); Files.Set(R, F, 0); Files.ReadString(R, name); Texts.WriteLn(W); Texts.WriteString(W, name);
Files.ReadInt(R, key); Texts.WriteHex(W, key); Read(R, class); Texts.WriteInt(W, class, 4); (*version*) Files.ReadInt(R, key); Texts.WriteHex(W, key); Read(R, class); Texts.WriteInt(W, class, 4); (*version*)
Files.ReadInt(R, size); Texts.WriteInt(W, size, 6); Texts.WriteLn(W); Files.ReadInt(R, size); Texts.WriteInt(W, size, 6); Texts.WriteLn(W);
Texts.WriteString(W, "imports:"); Texts.WriteLn(W); Files.ReadString(R, name); Texts.WriteString(W, "imports:"); Texts.WriteLn(W); Files.ReadString(R, name);
WHILE name[0] # 0X DO WHILE name[0] # 0X DO
Texts.Write(W, 9X); Texts.WriteString(W, name); Texts.Write(W, 9X); Texts.WriteString(W, name);
Files.ReadInt(R, key); Texts.WriteHex(W, key); Texts.WriteLn(W); Files.ReadInt(R, key); Texts.WriteHex(W, key); Texts.WriteLn(W);
Files.ReadString(R, name) Files.ReadString(R, name)
END ; END ;
(* Sync(R); *) (* Sync(R); *)
Texts.WriteString(W, "type descriptors"); Texts.WriteLn(W); Texts.WriteString(W, "type descriptors"); Texts.WriteLn(W);
Files.ReadInt(R, n); n := n DIV 4; i := 0; Files.ReadInt(R, n); n := n DIV 4; i := 0;
WHILE i < n DO Files.ReadInt(R, data); Texts.WriteHex(W, data); INC(i) END ; WHILE i < n DO Files.ReadInt(R, data); Texts.WriteHex(W, data); INC(i) END ;
Texts.WriteLn(W); Texts.WriteLn(W);
Texts.WriteString(W, "data"); Files.ReadInt(R, data); Texts.WriteInt(W, data, 6); Texts.WriteLn(W); Texts.WriteString(W, "data"); Files.ReadInt(R, data); Texts.WriteInt(W, data, 6); Texts.WriteLn(W);
Texts.WriteString(W, "strings"); Texts.WriteLn(W); Texts.WriteString(W, "strings"); Texts.WriteLn(W);
Files.ReadInt(R, n); i := 0; Files.ReadInt(R, n); i := 0;
WHILE i < n DO Files.Read(R, ch); Texts.Write(W, ch); INC(i) END ; WHILE i < n DO Files.Read(R, ch); Texts.Write(W, ch); INC(i) END ;
Texts.WriteLn(W); Texts.WriteLn(W);
Texts.WriteString(W, "code"); Texts.WriteLn(W); Texts.WriteString(W, "code"); Texts.WriteLn(W);
Files.ReadInt(R, n); i := 0; Files.ReadInt(R, n); i := 0;
WHILE i < n DO WHILE i < n DO
Files.ReadInt(R, data); Texts.WriteInt(W, i, 4); Texts.Write(W, 9X); Texts.WriteHex(W, data); Files.ReadInt(R, data); Texts.WriteInt(W, i, 4); Texts.Write(W, 9X); Texts.WriteHex(W, data);
Texts.Write(W, 9X); opcode(data); Texts.WriteLn(W); INC(i) Texts.Write(W, 9X); opcode(data); Texts.WriteLn(W); INC(i)
END ; END ;
(* Sync(R); *) (* Sync(R); *)
Texts.WriteString(W, "commands:"); Texts.WriteLn(W); Texts.WriteString(W, "commands:"); Texts.WriteLn(W);
Files.ReadString(R, name); Files.ReadString(R, name);
WHILE name[0] # 0X DO WHILE name[0] # 0X DO
Texts.Write(W, 9X); Texts.WriteString(W, name); Texts.Write(W, 9X); Texts.WriteString(W, name);
Files.ReadInt(R, adr); Texts.WriteInt(W, adr, 5); Texts.WriteLn(W); Files.ReadInt(R, adr); Texts.WriteInt(W, adr, 5); Texts.WriteLn(W);
Files.ReadString(R, name) Files.ReadString(R, name)
END ; END ;
(* Sync(R); *) (* Sync(R); *)
Texts.WriteString(W, "entries"); Texts.WriteLn(W); Texts.WriteString(W, "entries"); Texts.WriteLn(W);
Files.ReadInt(R, n); i := 0; Files.ReadInt(R, n); i := 0;
WHILE i < n DO WHILE i < n DO
Files.ReadInt(R, adr); Texts.WriteInt(W, adr, 6); INC(i) Files.ReadInt(R, adr); Texts.WriteInt(W, adr, 6); INC(i)
END ; END ;
Texts.WriteLn(W); Texts.WriteLn(W);
(* Sync(R); *) (* Sync(R); *)
Texts.WriteString(W, "pointer refs"); Texts.WriteLn(W); Files.ReadInt(R, adr); Texts.WriteString(W, "pointer refs"); Texts.WriteLn(W); Files.ReadInt(R, adr);
WHILE adr # -1 DO Texts.WriteInt(W, adr, 6); Files.ReadInt(R, adr) END ; WHILE adr # -1 DO Texts.WriteInt(W, adr, 6); Files.ReadInt(R, adr) END ;
Texts.WriteLn(W); Texts.WriteLn(W);
(* Sync(R); *) (* Sync(R); *)
Files.ReadInt(R, data); Texts.WriteString(W, "fixP = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W); Files.ReadInt(R, data); Texts.WriteString(W, "fixP = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W);
Files.ReadInt(R, data); Texts.WriteString(W, "fixD = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W); Files.ReadInt(R, data); Texts.WriteString(W, "fixD = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W);
Files.ReadInt(R, data); Texts.WriteString(W, "fixT = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W); Files.ReadInt(R, data); Texts.WriteString(W, "fixT = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W);
Files.ReadInt(R, data); Texts.WriteString(W, "entry = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W); Files.ReadInt(R, data); Texts.WriteString(W, "entry = "); Texts.WriteInt(W, data, 8); Texts.WriteLn(W);
Files.Read(R, ch); Files.Read(R, ch);
IF ch # "O" THEN Texts.WriteString(W, "format eror"); Texts.WriteLn(W) END IF ch # "O" THEN Texts.WriteString(W, "format eror"); Texts.WriteLn(W) END
(* Sync(R); *) (* Sync(R); *)
ELSE Texts.WriteString(W, " not found"); Texts.WriteLn(W) ELSE Texts.WriteString(W, " not found"); Texts.WriteLn(W)
END ; END ;
Texts.Append(Oberon.Log, W.buf) Texts.Append(Oberon.Log, W.buf)
END END
END DecObj; END DecObj;
BEGIN Texts.OpenWriter(W); Texts.WriteString(W, "ORTool 18.2.2013"); BEGIN Texts.OpenWriter(W); Texts.WriteString(W, "ORTool 18.2.2013");
Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf); Texts.WriteLn(W); Texts.Append(Oberon.Log, W.buf);
mnemo0[0] := "MOV"; mnemo0[0] := "MOV";
mnemo0[1] := "LSL"; mnemo0[1] := "LSL";
mnemo0[2] := "ASR"; mnemo0[2] := "ASR";
mnemo0[3] := "ROR"; mnemo0[3] := "ROR";
mnemo0[4] := "AND"; mnemo0[4] := "AND";
mnemo0[5] := "ANN"; mnemo0[5] := "ANN";
mnemo0[6] := "IOR"; mnemo0[6] := "IOR";
mnemo0[7] := "XOR"; mnemo0[7] := "XOR";
mnemo0[8] := "ADD"; mnemo0[8] := "ADD";
mnemo0[9] := "SUB"; mnemo0[9] := "SUB";
mnemo0[10] := "MUL"; mnemo0[10] := "MUL";
mnemo0[11] := "DIV"; mnemo0[11] := "DIV";
mnemo0[12] := "FAD"; mnemo0[12] := "FAD";
mnemo0[13] := "FSB"; mnemo0[13] := "FSB";
mnemo0[14] := "FML"; mnemo0[14] := "FML";
mnemo0[15] := "FDV"; mnemo0[15] := "FDV";
mnemo1[0] := "MI "; mnemo1[0] := "MI ";
mnemo1[8] := "PL"; mnemo1[8] := "PL";
mnemo1[1] := "EQ "; mnemo1[1] := "EQ ";
mnemo1[9] := "NE "; mnemo1[9] := "NE ";
mnemo1[2] := "LS "; mnemo1[2] := "LS ";
mnemo1[10] := "HI "; mnemo1[10] := "HI ";
mnemo1[5] := "LT "; mnemo1[5] := "LT ";
mnemo1[13] := "GE "; mnemo1[13] := "GE ";
mnemo1[6] := "LE "; mnemo1[6] := "LE ";
mnemo1[14] := "GT "; mnemo1[14] := "GT ";
mnemo1[15] := "NO "; mnemo1[15] := "NO ";
END ORTool. END ORTool.