/*
* Copyright (C) 2010-2024 JPEXS, All rights reserved.
*
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Lesser General Public
* License as published by the Free Software Foundation; either
* version 3.0 of the License, or (at your option) any later version.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library.
*/
package com.jpexs.helpers.properties;
import java.io.StringReader;
import java.util.Stack;
/**
* This class is a scanner generated by
* JFlex 1.6.0 from the specification file
* C:/Dropbox/Programovani/JavaSE/FFDec/libsrc/ffdec_lib/lexers/properties.flex
*/
public final class PropertiesLexer {
/**
* This character denotes the end of file
*/
public static final int YYEOF = -1;
/**
* initial size of the lookahead buffer
*/
private static final int ZZ_BUFFERSIZE = 16384;
/**
* lexical states
*/
public static final int YYINITIAL = 0;
public static final int COMMENT = 2;
public static final int KEY = 4;
public static final int VALUE = 6;
/**
* ZZ_LEXSTATE[l] is the state in the DFA for the lexical state l
* ZZ_LEXSTATE[l+1] is the state in the DFA for the lexical state l at the
* beginning of a line l is of the form l = 2*k, k a non negative integer
*/
private static final int ZZ_LEXSTATE[] = {
0, 0, 1, 1, 2, 2, 3, 3
};
/**
* Translates characters to character classes
*/
private static final String ZZ_CMAP_PACKED
= "\11\0\1\3\1\2\1\0\1\3\1\1\22\0\1\15\1\16\1\0"
+ "\1\6\14\0\12\10\1\4\2\0\1\17\3\0\6\10\25\0\1\5"
+ "\4\0\5\10\1\12\7\0\1\14\3\0\1\13\1\0\1\11\1\7"
+ "\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uffff\0\uff9a\0";
/**
* Translates characters to character classes
*/
private static final char[] ZZ_CMAP = zzUnpackCMap(ZZ_CMAP_PACKED);
/**
* Translates DFA states to action switch labels.
*/
private static final int[] ZZ_ACTION = zzUnpackAction();
private static final String ZZ_ACTION_PACKED_0
= "\4\0\1\1\2\2\1\3\1\4\1\3\2\5\1\6"
+ "\2\7\1\6\2\10\1\6\1\11\1\12\1\13\1\0"
+ "\1\14\1\15\1\16\1\17\1\20\1\21\1\22\2\23"
+ "\3\0\1\24";
private static int[] zzUnpackAction() {
int[] result = new int[36];
int offset = 0;
offset = zzUnpackAction(ZZ_ACTION_PACKED_0, offset, result);
return result;
}
private static int zzUnpackAction(String packed, int offset, int[] result) {
int i = 0;
/* index in packed string */
int j = offset;
/* index in unpacked array */
int l = packed.length();
while (i < l) {
int count = packed.charAt(i++);
int value = packed.charAt(i++);
do {
result[j++] = value;
} while (--count > 0);
}
return j;
}
/**
* Translates a state to a row index in the transition table
*/
private static final int[] ZZ_ROWMAP = zzUnpackRowMap();
private static final String ZZ_ROWMAP_PACKED_0
= "\0\0\0\20\0\40\0\60\0\100\0\120\0\100\0\140"
+ "\0\160\0\100\0\200\0\100\0\100\0\220\0\240\0\260"
+ "\0\300\0\100\0\320\0\100\0\100\0\100\0\340\0\100"
+ "\0\100\0\100\0\100\0\100\0\100\0\100\0\360\0\u0100"
+ "\0\u0110\0\u0120\0\u0130\0\100";
private static int[] zzUnpackRowMap() {
int[] result = new int[36];
int offset = 0;
offset = zzUnpackRowMap(ZZ_ROWMAP_PACKED_0, offset, result);
return result;
}
private static int zzUnpackRowMap(String packed, int offset, int[] result) {
int i = 0;
/* index in packed string */
int j = offset;
/* index in unpacked array */
int l = packed.length();
while (i < l) {
int high = packed.charAt(i++) << 16;
result[j++] = high | packed.charAt(i++);
}
return j;
}
/**
* The transition table of the DFA
*/
private static final int[] ZZ_TRANS = zzUnpackTrans();
private static final String ZZ_TRANS_PACKED_0
= "\1\5\1\6\1\7\1\10\2\5\1\11\6\5\1\10"
+ "\1\11\1\5\1\12\1\13\1\14\15\12\3\15\1\16"
+ "\1\17\1\20\7\15\1\16\1\15\1\17\1\15\1\21"
+ "\1\22\2\15\1\23\12\15\22\0\1\7\20\0\1\10"
+ "\11\0\1\10\2\0\1\11\2\0\15\11\2\0\1\14"
+ "\20\0\1\16\1\17\10\0\1\16\1\0\1\17\3\0"
+ "\1\17\11\0\1\17\6\0\1\24\1\25\1\26\1\27"
+ "\1\0\1\30\1\31\1\32\1\33\1\34\1\35\1\36"
+ "\2\0\1\22\16\0\1\37\1\40\2\0\1\25\1\0"
+ "\1\27\1\0\1\30\1\31\1\32\1\33\1\34\12\0"
+ "\1\41\1\0\1\41\7\0\2\40\11\0\1\40\5\0"
+ "\1\40\11\0\1\40\12\0\1\42\1\0\1\42\15\0"
+ "\1\43\1\0\1\43\15\0\1\44\1\0\1\44\5\0";
private static int[] zzUnpackTrans() {
int[] result = new int[320];
int offset = 0;
offset = zzUnpackTrans(ZZ_TRANS_PACKED_0, offset, result);
return result;
}
private static int zzUnpackTrans(String packed, int offset, int[] result) {
int i = 0;
/* index in packed string */
int j = offset;
/* index in unpacked array */
int l = packed.length();
while (i < l) {
int count = packed.charAt(i++);
int value = packed.charAt(i++);
value--;
do {
result[j++] = value;
} while (--count > 0);
}
return j;
}
/* error codes */
private static final int ZZ_UNKNOWN_ERROR = 0;
private static final int ZZ_NO_MATCH = 1;
private static final int ZZ_PUSHBACK_2BIG = 2;
/* error messages for the codes above */
private static final String ZZ_ERROR_MSG[] = {
"Unkown internal scanner error",
"Error: could not match input",
"Error: pushback value was too large"
};
/**
* ZZ_ATTRIBUTE[aState] contains the attributes of state aState
*/
private static final int[] ZZ_ATTRIBUTE = zzUnpackAttribute();
private static final String ZZ_ATTRIBUTE_PACKED_0
= "\4\0\1\11\1\1\1\11\2\1\1\11\1\1\2\11"
+ "\4\1\1\11\1\1\3\11\1\0\7\11\2\1\3\0"
+ "\1\11";
private static int[] zzUnpackAttribute() {
int[] result = new int[36];
int offset = 0;
offset = zzUnpackAttribute(ZZ_ATTRIBUTE_PACKED_0, offset, result);
return result;
}
private static int zzUnpackAttribute(String packed, int offset, int[] result) {
int i = 0;
/* index in packed string */
int j = offset;
/* index in unpacked array */
int l = packed.length();
while (i < l) {
int count = packed.charAt(i++);
int value = packed.charAt(i++);
do {
result[j++] = value;
} while (--count > 0);
}
return j;
}
/**
* the input device
*/
private java.io.Reader zzReader;
/**
* the current state of the DFA
*/
private int zzState;
/**
* the current lexical state
*/
private int zzLexicalState = YYINITIAL;
/**
* this buffer contains the current text to be matched and is the source of
* the yytext() string
*/
private char zzBuffer[] = new char[ZZ_BUFFERSIZE];
/**
* the textposition at the last accepting state
*/
private int zzMarkedPos;
/**
* the current text position in the buffer
*/
private int zzCurrentPos;
/**
* startRead marks the beginning of the yytext() string in the buffer
*/
private int zzStartRead;
/**
* endRead marks the last character in the buffer, that has been read from
* input
*/
private int zzEndRead;
/**
* number of newlines encountered up to the start of the matched text
*/
private int yyline;
/**
* the number of characters up to the start of the matched text
*/
private int yychar;
/**
* the number of characters from the last newline up to the start of the
* matched text
*/
private int yycolumn;
/**
* zzAtBOL == true <=> the scanner is currently at the beginning of a line
*/
private boolean zzAtBOL = true;
/**
* zzAtEOF == true <=> the scanner is at the EOF
*/
private boolean zzAtEOF;
/**
* denotes if the user-EOF-code has already been executed
*/
private boolean zzEOFDone;
/**
* The number of occupied positions in zzBuffer beyond zzEndRead. When a
* lead/high surrogate has been read from the input stream into the final
* zzBuffer position, this will have a value of 1; otherwise, it will have a
* value of 0.
*/
private int zzFinalHighSurrogate = 0;
/* user code: */
private String sourceCode;
public PropertiesLexer(String sourceCode) {
this(new StringReader(sourceCode));
this.sourceCode = sourceCode;
}
public void yypushbackstr(String s, int state) {
sourceCode = s + sourceCode.substring(yychar + yylength());
yyreset(new StringReader(sourceCode));
yybegin(state);
}
public void yypushbackstr(String s) {
yypushbackstr(s, YYINITIAL);
}
StringBuilder string = new StringBuilder();
private static String xmlTagName = "";
public int yychar() {
return yychar;
}
private Stack pushedBack = new Stack<>();
public int yyline() {
return yyline + 1;
}
public void pushback(ParsedSymbol symb) {
pushedBack.push(symb);
last = null;
}
ParsedSymbol last;
public ParsedSymbol lex() throws java.io.IOException, PropertiesParseException {
ParsedSymbol ret = null;
if (!pushedBack.isEmpty()) {
ret = last = pushedBack.pop();
} else {
ret = last = yylex();
}
return ret;
}
private int count(String str, String target) {
return (str.length() - str.replace(target, "").length()) / target.length();
}
/**
* Creates a new scanner
*
* @param in the java.io.Reader to read input from.
*/
public PropertiesLexer(java.io.Reader in) {
this.zzReader = in;
}
/**
* Unpacks the compressed character translation table.
*
* @param packed the packed character translation table
* @return the unpacked character translation table
*/
private static char[] zzUnpackCMap(String packed) {
char[] map = new char[0x110000];
int i = 0;
/* index in packed string */
int j = 0;
/* index in unpacked array */
while (i < 94) {
int count = packed.charAt(i++);
char value = packed.charAt(i++);
do {
map[j++] = value;
} while (--count > 0);
}
return map;
}
/**
* Refills the input buffer.
*
* @return false, iff there was new input.
*
* @exception java.io.IOException if any I/O-Error occurs
*/
private boolean zzRefill() throws java.io.IOException {
/* first: make room (if you can) */
if (zzStartRead > 0) {
zzEndRead += zzFinalHighSurrogate;
zzFinalHighSurrogate = 0;
System.arraycopy(zzBuffer, zzStartRead,
zzBuffer, 0,
zzEndRead - zzStartRead);
/* translate stored positions */
zzEndRead -= zzStartRead;
zzCurrentPos -= zzStartRead;
zzMarkedPos -= zzStartRead;
zzStartRead = 0;
}
/* is the buffer big enough? */
if (zzCurrentPos >= zzBuffer.length - zzFinalHighSurrogate) {
/* if not: blow it up */
char newBuffer[] = new char[zzBuffer.length * 2];
System.arraycopy(zzBuffer, 0, newBuffer, 0, zzBuffer.length);
zzBuffer = newBuffer;
zzEndRead += zzFinalHighSurrogate;
zzFinalHighSurrogate = 0;
}
/* fill the buffer with new input */
int requested = zzBuffer.length - zzEndRead;
int totalRead = 0;
while (totalRead < requested) {
int numRead = zzReader.read(zzBuffer, zzEndRead + totalRead, requested - totalRead);
if (numRead == -1) {
break;
}
totalRead += numRead;
}
if (totalRead > 0) {
zzEndRead += totalRead;
if (totalRead == requested) {
/* possibly more input available */
if (Character.isHighSurrogate(zzBuffer[zzEndRead - 1])) {
--zzEndRead;
zzFinalHighSurrogate = 1;
}
}
return false;
}
// totalRead = 0: End of stream
return true;
}
/**
* Closes the input stream.
*/
public final void yyclose() throws java.io.IOException {
zzAtEOF = true;
/* indicate end of file */
zzEndRead = zzStartRead;
/* invalidate buffer */
if (zzReader != null) {
zzReader.close();
}
}
/**
* Resets the scanner to read from a new input stream. Does not close the
* old reader.
*
* All internal variables are reset, the old input stream
* cannot be reused (internal buffer is discarded and lost). Lexical
* state is set to ZZ_INITIAL.
*
* Internal scan buffer is resized down to its initial length, if it has
* grown.
*
* @param reader the new input stream
*/
public final void yyreset(java.io.Reader reader) {
zzReader = reader;
zzAtBOL = true;
zzAtEOF = false;
zzEOFDone = false;
zzEndRead = zzStartRead = 0;
zzCurrentPos = zzMarkedPos = 0;
zzFinalHighSurrogate = 0;
yyline = yychar = yycolumn = 0;
zzLexicalState = YYINITIAL;
if (zzBuffer.length > ZZ_BUFFERSIZE) {
zzBuffer = new char[ZZ_BUFFERSIZE];
}
}
/**
* Returns the current lexical state.
*/
public final int yystate() {
return zzLexicalState;
}
/**
* Enters a new lexical state
*
* @param newState the new lexical state
*/
public final void yybegin(int newState) {
zzLexicalState = newState;
}
/**
* Returns the text matched by the current regular expression.
*/
public final String yytext() {
return new String(zzBuffer, zzStartRead, zzMarkedPos - zzStartRead);
}
/**
* Returns the character at position pos from the matched text.
*
* It is equivalent to yytext().charAt(pos), but faster
*
* @param pos the position of the character to fetch. A value from 0 to
* yylength()-1.
*
* @return the character at position pos
*/
public final char yycharat(int pos) {
return zzBuffer[zzStartRead + pos];
}
/**
* Returns the length of the matched text region.
*/
public final int yylength() {
return zzMarkedPos - zzStartRead;
}
/**
* Reports an error that occured while scanning.
*
* In a wellformed scanner (no or only correct usage of yypushback(int) and
* a match-all fallback rule) this method will only be called with things
* that "Can't Possibly Happen". If this method is called, something is
* seriously wrong (e.g. a JFlex bug producing a faulty scanner etc.).
*
* Usual syntax/scanner level error handling should be done in error
* fallback rules.
*
* @param errorCode the code of the errormessage to display
*/
private void zzScanError(int errorCode) {
String message;
try {
message = ZZ_ERROR_MSG[errorCode];
} catch (ArrayIndexOutOfBoundsException e) {
message = ZZ_ERROR_MSG[ZZ_UNKNOWN_ERROR];
}
throw new Error(message);
}
/**
* Pushes the specified amount of characters back into the input stream.
*
* They will be read again by then next call of the scanning method
*
* @param number the number of characters to be read again. This number must
* not be greater than yylength()!
*/
public void yypushback(int number) {
if (number > yylength()) {
zzScanError(ZZ_PUSHBACK_2BIG);
}
zzMarkedPos -= number;
}
/**
* Resumes scanning until the next regular expression is matched, the end of
* input is encountered or an I/O-Error occurs.
*
* @return the next token
* @exception java.io.IOException if any I/O-Error occurs
*/
public ParsedSymbol yylex() throws java.io.IOException, PropertiesParseException {
int zzInput;
int zzAction;
// cached fields:
int zzCurrentPosL;
int zzMarkedPosL;
int zzEndReadL = zzEndRead;
char[] zzBufferL = zzBuffer;
char[] zzCMapL = ZZ_CMAP;
int[] zzTransL = ZZ_TRANS;
int[] zzRowMapL = ZZ_ROWMAP;
int[] zzAttrL = ZZ_ATTRIBUTE;
while (true) {
zzMarkedPosL = zzMarkedPos;
yychar += zzMarkedPosL - zzStartRead;
zzAction = -1;
zzCurrentPosL = zzCurrentPos = zzStartRead = zzMarkedPosL;
zzState = ZZ_LEXSTATE[zzLexicalState];
// set up zzAction for empty match case:
int zzAttributes = zzAttrL[zzState];
if ((zzAttributes & 1) == 1) {
zzAction = zzState;
}
zzForAction:
{
while (true) {
if (zzCurrentPosL < zzEndReadL) {
zzInput = Character.codePointAt(zzBufferL, zzCurrentPosL, zzEndReadL);
zzCurrentPosL += Character.charCount(zzInput);
} else if (zzAtEOF) {
zzInput = YYEOF;
break zzForAction;
} else {
// store back cached positions
zzCurrentPos = zzCurrentPosL;
zzMarkedPos = zzMarkedPosL;
boolean eof = zzRefill();
// get translated positions and possibly new buffer
zzCurrentPosL = zzCurrentPos;
zzMarkedPosL = zzMarkedPos;
zzBufferL = zzBuffer;
zzEndReadL = zzEndRead;
if (eof) {
zzInput = YYEOF;
break zzForAction;
} else {
zzInput = Character.codePointAt(zzBufferL, zzCurrentPosL, zzEndReadL);
zzCurrentPosL += Character.charCount(zzInput);
}
}
int zzNext = zzTransL[zzRowMapL[zzState] + zzCMapL[zzInput]];
if (zzNext == -1) {
break zzForAction;
}
zzState = zzNext;
zzAttributes = zzAttrL[zzState];
if ((zzAttributes & 1) == 1) {
zzAction = zzState;
zzMarkedPosL = zzCurrentPosL;
if ((zzAttributes & 8) == 8) {
break zzForAction;
}
}
}
}
// store back cached position
zzMarkedPos = zzMarkedPosL;
switch (zzAction < 0 ? zzAction : ZZ_ACTION[zzAction]) {
case 1: {
string.setLength(0);
string.append(yytext());
yybegin(KEY);
}
case 21:
break;
case 2: {
return new ParsedSymbol(SymbolType.EMPTY_LINE, null);
}
case 22:
break;
case 3: {
}
case 23:
break;
case 4: {
yybegin(COMMENT);
return new ParsedSymbol(SymbolType.COMMENT, yytext().substring(1));
}
case 24:
break;
case 5: {
yybegin(YYINITIAL);
}
case 25:
break;
case 6: {
string.append(yytext());
}
case 26:
break;
case 7: {
String key = string.toString();
yybegin(VALUE);
string.setLength(0);
return new ParsedSymbol(SymbolType.KEY, key);
}
case 27:
break;
case 8: {
yybegin(YYINITIAL);
return new ParsedSymbol(SymbolType.VALUE, string.toString());
}
case 28:
break;
case 9: {
string.append(":");
}
case 29:
break;
case 10: {
string.append("\\\\");
}
case 30:
break;
case 11: {
string.append("#");
}
case 31:
break;
case 12: {
string.append("\\t");
}
case 32:
break;
case 13: {
string.append("\\f");
}
case 33:
break;
case 14: {
string.append("\\r");
}
case 34:
break;
case 15: {
string.append("\\n");
}
case 35:
break;
case 16: {
string.append(" ");
}
case 36:
break;
case 17: {
string.append("!");
}
case 37:
break;
case 18: {
string.append("=");
}
case 38:
break;
case 19: {
string.append("\r\n");
}
case 39:
break;
case 20: {
string.append((char) Integer.parseInt(yytext().substring(2), 16));
}
case 40:
break;
default:
if (zzInput == YYEOF && zzStartRead == zzCurrentPos) {
zzAtEOF = true;
switch (zzLexicalState) {
case VALUE: {
yybegin(YYINITIAL);
return new ParsedSymbol(SymbolType.VALUE, string.toString());
}
case 37:
break;
default: {
return new ParsedSymbol(SymbolType.EOF, null);
}
}
} else {
zzScanError(ZZ_NO_MATCH);
}
}
}
}
}