scuffed-code/tools/unicodetools/com/ibm/text/UCD/DerivedProperty.java
2001-12-13 23:36:29 +00:00

743 lines
29 KiB
Java

/**
*******************************************************************************
* Copyright (C) 1996-2001, International Business Machines Corporation and *
* others. All Rights Reserved. *
*******************************************************************************
*
* $Source: /xsrl/Nsvn/icu/unicodetools/com/ibm/text/UCD/DerivedProperty.java,v $
* $Date: 2001/12/13 23:35:54 $
* $Revision: 1.10 $
*
*******************************************************************************
*/
package com.ibm.text.UCD;
import com.ibm.text.utility.*;
import com.ibm.text.*;
import java.util.*;
public final class DerivedProperty implements UCD_Types {
UCD ucdData;
// ADD CONSTANT to UCD_TYPES
static public UnicodeProperty make(int derivedPropertyID, UCD ucd) {
if (derivedPropertyID < 0 || derivedPropertyID >= DERIVED_PROPERTY_LIMIT) return null;
DerivedProperty dp = getCached(ucd);
return dp.dprops[derivedPropertyID];
}
///////////////////////////////////////////////////////////
private DerivedProperty(UCD ucd) {
ucdData = ucd;
}
static Map cache = new HashMap();
static UCD lastUCD = null;
static DerivedProperty lastValue = null;
private static DerivedProperty getCached(UCD ucd) {
if (ucd.equals(lastUCD)) return lastValue;
DerivedProperty dp = (DerivedProperty) cache.get(ucd);
if (dp == null) {
dp = new DerivedProperty(ucd);
cache.put(ucd, dp);
}
lastUCD = ucd;
lastValue = dp;
return dp;
}
/*
public String getHeader(int propNumber) {
UnicodeProperty dp = dprops[propNumber];
if (dp != null) return dp.getHeader();
else return "Unimplemented!!";
}
public String getName(int propNumber, byte style) {
UnicodeProperty dp = dprops[propNumber];
if (dp != null) return dp.getName(style);
else return "Unimplemented!!";
}
public String getValue(int cp, int propNumber) {
UnicodeProperty dp = dprops[propNumber];
if (dp != null) return dp.getValue(cp);
else return "Unimplemented!!";
}
public boolean isTest(int propNumber) {
if (!isDefined(propNumber)) return false;
return dprops[propNumber].isTest();
}
public boolean hasProperty(int cp, int propNumber) {
if (!isDefined(propNumber)) return false;
return dprops[propNumber].hasProperty(cp);
}
public boolean valueVaries(int propNumber) {
return dprops[propNumber].valueVaries();
}
/*
public String getValue(int cp, int propNumber) {
return dprops[propNumber].getValue(int cp);
}
*/
private UnicodeProperty[] dprops = new UnicodeProperty[50];
static final String[] CaseNames = {
"Uppercase",
"Lowercase",
"Mixedcase"};
class ExDProp extends UnicodeProperty {
Normalizer nfx;
ExDProp(int i) {
type = DERIVED_NORMALIZATION;
nfx = Main.nf[i];
name = "Expands_On_" + nfx.getName();
shortName = "XO_" + nfx.getName();
header = "# Derived Property: " + name
+ "\r\n# Generated according to UAX #15."
+ "\r\n# Characters whose normalized length is not one."
+ "\r\n# WARNING: Normalization of STRINGS must use the algorithm in UAX #15 because characters may interact."
+ "\r\n# The length of a normalized string is not necessarily the sum of the lengths of the normalized characters!";
}
boolean hasValue(int cp) {
if (ucdData.getDecompositionType(cp) == NONE) return false;
String norm = nfx.normalize(cp);
if (UTF16.countCodePoint(norm) != 1) return true;
return false;
}
};
class NF_UnsafeStartProp extends UnicodeProperty {
Normalizer nfx;
//int prop;
NF_UnsafeStartProp(int i) {
isStandard = false;
type = DERIVED_NORMALIZATION;
nfx = Main.nf[i];
name = nfx.getName() + "_UnsafeStart";
shortName = nfx.getName() + "_SS";
header = "# Derived Property: " + name
+ "\r\n# Generated according to UAX #15."
+ "\r\n# Characters that are cc==0, BUT which may interact with previous characters."
;
}
boolean hasValue(int cp) {
if (ucdData.getCombiningClass(cp) != 0) return false;
String norm = nfx.normalize(cp);
int first = UTF16.charAt(norm, 0);
if (ucdData.getCombiningClass(first) != 0) return true;
if (nfx.isComposition()
&& dprops[NFC_TrailingZero].hasValue(first)) return true; // 1,3 == composing
return false;
}
};
class NFC_Prop extends UnicodeProperty {
BitSet bitset;
boolean filter = false;
boolean keepNonZero = true;
NFC_Prop(int i) {
isStandard = false;
type = DERIVED_NORMALIZATION;
BitSet[] bitsets = new BitSet[3];
switch(i) {
case NFC_Leading: bitsets[0] = bitset = new BitSet(); break;
case NFC_Resulting: bitsets[2] = bitset = new BitSet(); break;
case NFC_TrailingZero: keepNonZero = false; // FALL THRU
case NFC_TrailingNonZero: bitsets[1] = bitset = new BitSet(); break;
}
filter = bitsets[1] != null;
Main.nfc.getCompositionStatus(bitsets[0], bitsets[1], bitsets[2]);
name = Names[i-NFC_Leading];
shortName = SNames[i-NFC_Leading];
header = "# Derived Property: " + name
+ "\r\n# " + Description[i-NFC_Leading]
+ "\r\n# NFKC characters are the same, after subtracting the NFKD = NO values."
+ "\r\n# Generated according to UAX #15."
+ "\r\n# WARNING: Normalization of STRINGS must use the algorithm in UAX #15 because characters may interact."
+ "\r\n# The length of a normalized string is not necessarily the sum of the lengths of the normalized characters!";
}
boolean hasValue(int cp) {
boolean result = bitset.get(cp);
if (result && filter) {
result = (ucdData.getCombiningClass(cp) != 0) == keepNonZero;
}
return result;
}
final String[] Names = {"NFC_Leading", "NFC_TrailingNonZero", "NFC_TrailingZero", "NFC_Resulting"};
final String[] SNames = {"NFC_L", "NFC_TNZ", "NFC_TZ", "NFC_R"};
final String[] Description = {
"Characters that can combine with following characters in NFC",
"Characters that can combine with previous characters in NFC, and have non-zero combining class",
"Characters that can combine with previous characters in NFC, and have zero combining class",
"Characters that can result from a combination of other characters in NFC",
};
};
class GenDProp extends UnicodeProperty {
Normalizer nfx;
Normalizer nfComp = null;
GenDProp (int i) {
isStandard = false;
setValueType(NON_ENUMERATED);
type = DERIVED_NORMALIZATION;
nfx = Main.nf[i];
name = nfx.getName();
String compName = "the character itself";
if (i == NFKC || i == NFD) {
name += "-NFC";
nfComp = Main.nfc;
compName = "NFC for the character";
} else if (i == NFKD) {
name += "-NFD";
nfComp = Main.nfd;
compName = "NFD for the character";
}
header = "# Derived Property: " + name
+ "\r\n# Lists characters in normalized form " + nfx.getName() + "."
+ "\r\n# Only those characters whith normalized forms are DIFFERENT from " + compName + " are listed!"
+ "\r\n# WARNING: Normalization of STRINGS must use the algorithm in UAX #15 because characters may interact."
+ "\r\n# It is NOT sufficient to replace characters one-by-one with these results!";
}
int cacheCp = 0;
String cacheStr = "";
public String getValue(int cp, byte style) {
if (cacheCp == cp) return cacheStr;
cacheCp = cp;
cacheStr = "";
if (ucdData.getDecompositionType(cp) != NONE) {
String cps = UTF32.valueOf32(cp);
String comp = cps;
if (nfComp != null) {
comp = nfComp.normalize(comp);
}
String normal = nfx.normalize(cps);
if (!comp.equals(normal)) {
String norm = Utility.hex(normal);
String pad = Utility.repeat(" ", 14-norm.length());
cacheStr = name + "; " + norm + pad;
}
}
return cacheStr;
//if (cp >= 0xAC00 && cp <= 0xD7A3) return true;
//System.out.println(Utility.hex(cps) + " => " + Utility.hex(nf[i-4].normalize(cps)));
} // default
boolean hasValue(int cp) { return getValue(cp).length() != 0; }
};
class CaseDProp extends UnicodeProperty {
byte val;
CaseDProp (int i) {
type = DERIVED_CORE;
isStandard = false;
val = (i == Missing_Uppercase ? Lu : i == Missing_Lowercase ? Ll : Lt);
name = "Possible_Missing_" + CaseNames[i-Missing_Uppercase];
header = "# Derived Property: " + name
+ "\r\n# Generated from: NFKD has >0 " + CaseNames[i-Missing_Uppercase] + ", no other cases";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == val
|| val != Lt && ucdData.getBinaryProperty(cp, Other_Uppercase)) return false;
byte xCat = getDecompCat(cp);
if (xCat == val) return true;
return false;
}
};
class QuickDProp extends UnicodeProperty {
String NO;
String MAYBE;
Normalizer nfx;
QuickDProp (int i) {
setValueType((i == NFC || i == NFKC) ? ENUMERATED : BINARY);
type = DERIVED_NORMALIZATION;
nfx = Main.nf[i];
NO = nfx.getName() + "_NO";
MAYBE = nfx.getName() + "_MAYBE";
name = nfx.getName() + "_QuickCheck";
shortName = nfx.getName() + "_QC";
header = "# Derived Property: " + name
+ "\r\n# Generated from computing decomposibles"
+ ((i == NFC || i == NFKC)
? " (and characters that may compose with previous ones)" : "");
}
public String getValue(int cp, byte style) {
if (nfx.normalizationDiffers(cp)) return NO;
else if (nfx.isTrailing(cp)) return MAYBE;
else return "";
}
boolean hasValue(int cp) { return getValue(cp).length() != 0; }
};
{
for (int i = ExpandsOnNFD; i <= ExpandsOnNFKC; ++i) {
dprops[i] = new ExDProp(i-ExpandsOnNFD);
}
for (int i = GenNFD; i <= GenNFKC; ++i) {
dprops[i] = new GenDProp(i-GenNFD);
}
for (int i = NFC_Leading; i <= NFC_Resulting; ++i) {
dprops[i] = new NFC_Prop(i);
}
for (int i = NFD_UnsafeStart; i <= NFKC_UnsafeStart; ++i) {
dprops[i] = new NF_UnsafeStartProp(i-NFD_UnsafeStart);
}
dprops[ID_Start] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "ID_Start";
shortName = "IDS";
header = "# Derived Property: " + name
+ "\r\n# Characters that can start an identifier."
+ "\r\n# Generated from Lu+Ll+Lt+Lm+Lo+Nl";
}
boolean hasValue(int cp) {
return ucdData.isIdentifierStart(cp, false);
}
};
dprops[ID_Continue_NO_Cf] = new UnicodeProperty() {
{
name = "ID_Continue";
type = DERIVED_CORE;
shortName = "IDC";
header = "# Derived Property: " + name
+ "\r\n# Characters that can continue an identifier."
+ "\r\n# Generated from: ID_Start + Mn+Mc+Nd+Pc"
+ "\r\n# NOTE: Cf characters should be filtered out.";
}
boolean hasValue(int cp) {
return ucdData.isIdentifierContinue_NO_Cf(cp, false);
}
};
dprops[Mod_ID_Start] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "XID_Start";
shortName = "XIDS";
header = "# Derived Property: " + name
+ "\r\n# ID_Start modified for closure under NFKx"
+ "\r\n# Modified as described in UAX #15"
+ "\r\n# NOTE: Does NOT remove the non-NFKx characters."
+ "\r\n# Merely ensures that if isIdentifer(string) then isIdentifier(NFKx(string))";
}
boolean hasValue(int cp) {
return ucdData.isIdentifierStart(cp, true);
}
};
dprops[Mod_ID_Continue_NO_Cf] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "XID_Continue";
shortName = "XIDC";
header = "# Derived Property: " + name
+ "\r\n# Mod_ID_Continue modified for closure under NFKx"
+ "\r\n# Modified as described in UAX #15"
+ "\r\n# NOTE: Cf characters should be filtered out."
+ "\r\n# NOTE: Does NOT remove the non-NFKx characters."
+ "\r\n# Merely ensures that if isIdentifer(string) then isIdentifier(NFKx(string))";
}
boolean hasValue(int cp) {
return ucdData.isIdentifierContinue_NO_Cf(cp, true);
}
};
dprops[PropMath] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Math";
shortName = name;
header = "# Derived Property: " + name
+ "\r\n# Generated from: Sm + Other_Math";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Sm
|| ucdData.getBinaryProperty(cp,Math_Property)) return true;
return false;
}
};
dprops[PropAlphabetic] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Alphabetic";
shortName = "Alpha";
header = "# Derived Property: " + name
+ "\r\n# Generated from: Lu+Ll+Lt+Lm+Lo+Nl + Other_Alphabetic";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Lu || cat == Ll || cat == Lt || cat == Lm || cat == Lo || cat == Nl
|| ucdData.getBinaryProperty(cp, Alphabetic)) return true;
return false;
}
};
dprops[PropLowercase] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Lowercase";
shortName = "Lower";
header = "# Derived Property: " + name
+ "\r\n# Generated from: Ll + Other_Lowercase";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Ll
|| ucdData.getBinaryProperty(cp, Other_Lowercase)) return true;
return false;
}
};
dprops[PropUppercase] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Uppercase";
shortName = "Upper";
header = "# Derived Property: " + name
+ "\r\n# Generated from: Lu + Other_Uppercase";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Lu
|| ucdData.getBinaryProperty(cp, Other_Uppercase)) return true;
return false;
}
};
for (int i = Missing_Uppercase; i <= Missing_Mixedcase; ++i) {
dprops[i] = new CaseDProp(i);
}
/*
(3) Singleton Decompositions: characters that can be derived from the UnicodeData file by
including all characters whose canonical decomposition consists of a single character.
(4) Non-Starter Decompositions: characters that can be derived from the UnicodeData
file by including all characters whose canonical decomposition consists of a sequence
of characters, the first of which has a non-zero combining class.
*/
dprops[FullCompExclusion] = new UnicodeProperty() {
{
type = DERIVED_NORMALIZATION;
name = "Full_Composition_Exclusion";
shortName = "Comp_Ex";
defaultValueStyle = defaultPropertyStyle = SHORT;
header = "# Derived Property: " + name
+ ": Full Composition Exclusion"
+ "\r\n# Generated from: Composition Exclusions + Singletons + Non-Starter Decompositions";
}
boolean hasValue(int cp) {
if (!ucdData.isRepresented(cp)) return false;
byte dtype = ucdData.getDecompositionType(cp);
if (dtype != CANONICAL) return false;
if (isCompEx(cp)) return true;
return false;
}
};
dprops[FullCompInclusion] = new UnicodeProperty() {
{
isStandard = false;
type = DERIVED_NORMALIZATION;
name = "Full_Composition_Inclusion";
shortName = "Comp_In";
defaultValueStyle = defaultPropertyStyle = SHORT;
header = "# Derived Property: " + name
+ ": Full Composition Inclusion"
+ "\r\n# characters with Canonical Decompositions MINUS Full Composition Exclusion";
}
boolean hasValue(int cp) {
if (!ucdData.isRepresented(cp)) return false;
byte dtype = ucdData.getDecompositionType(cp);
if (dtype != CANONICAL) return false;
if (isCompEx(cp)) return true;
return false;
}
};
dprops[FC_NFKC_Closure] = new UnicodeProperty() {
{
type = DERIVED_NORMALIZATION;
setValueType(NON_ENUMERATED);
name = "FC_NFKC_Closure";
shortName = "FC_NFKC";
header = "# Derived Property: " + name
+ "\r\n# Generated from computing: b = NFKC(Fold(a)); c = NFKC(Fold(b));"
+ "\r\n# Then if (c != b) add the mapping from a to c to the set of"
+ "\r\n# mappings that constitute the FC_NFKC_Closure list";
}
public String getValue(int cp, byte style) {
if (!ucdData.isRepresented(cp)) return "";
String b = Main.nfkc.normalize(fold(cp));
String c = Main.nfkc.normalize(fold(b));
if (c.equals(b)) return "";
return "FNC; " + Utility.hex(c);
} // default
boolean hasValue(int cp) { return getValue(cp).length() != 0; }
};
dprops[FC_NFC_Closure] = new UnicodeProperty() {
{
type = DERIVED_NORMALIZATION;
isStandard = false;
name = "FC_NFC_Closure";
setValueType(NON_ENUMERATED);
shortName = "FC_NFC";
header = "# Derived Property: " + name
+ "\r\n# Generated from computing: b = NFC(Fold(a)); c = NFC(Fold(b));"
+ "\r\n# Then if (c != b) add the mapping from a to c to the set of"
+ "\r\n# mappings that constitute the FC_NFC_Closure list";
}
public String getValue(int cp, byte style) {
if (!ucdData.isRepresented(cp)) return "";
String b = Main.nfc.normalize(fold(cp));
String c = Main.nfc.normalize(fold(b));
if (c.equals(b)) return "";
return "FN; " + Utility.hex(c);
} // default
boolean hasValue(int cp) { return getValue(cp).length() != 0; }
};
for (int i = QuickNFD; i <= QuickNFKC; ++i) {
dprops[i] = new QuickDProp(i - QuickNFD);
}
dprops[DefaultIgnorable] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Default_Ignorable_Code_Point";
hasUnassigned = true;
shortName = "DI";
header = header = "# Derived Property: " + name
+ "\r\n# Generated from Other_Default_Ignorable_Code_Point + Cf + Cc + Cs - White_Space";
}
boolean hasValue(int cp) {
if (ucdData.getBinaryProperty(cp, White_space)) return false;
byte cat = ucdData.getCategory(cp);
if (cat == Cf || cat == Cs || cat == Cc
|| ucdData.getBinaryProperty(cp,Reserved_Cf_Code_Point)) return true;
return false;
}
};
/*
GraphemeExtend = 27,
GraphemeBase = 28,
# GraphemeExtend := Me + Mn + Mc + Other_GraphemeExtend - GraphemeLink
# GraphemeBase :=
*/
dprops[GraphemeExtend] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Grapheme_Extend";
shortName = "GrExt";
header = header = "# Derived Property: " + name
+ "\r\n# Generated from: Me + Mn + Mc + Other_Grapheme_Extend - Grapheme_Link";
}
boolean hasValue(int cp) {
if (ucdData.getBinaryProperty(cp, GraphemeExtend)) return false;
byte cat = ucdData.getCategory(cp);
if (cat == Me || cat == Mn || cat == Mc
|| ucdData.getBinaryProperty(cp,Other_GraphemeExtend)) return true;
return false;
}
};
dprops[Other_Case_Ignorable] = new UnicodeProperty() {
{
name = "Other_Case_Ignorable";
shortName = "OCI";
header = header = "# Binary Property";
}
boolean hasValue(int cp) {
switch(cp) {
case 0x27: case 0x2019: case 0xAD: return true;
// case 0x2d: case 0x2010: case 0x2011:
/*
0027 ; Other_Case_Ignorable # Po APOSTROPHE
00AD ; Other_Case_Ignorable # Pd SOFT HYPHEN
2019 ; Other_Case_Ignorable # Pf RIGHT SINGLE QUOTATION MARK
*/
}
return false;
}
};
dprops[Type_i] = new UnicodeProperty() {
{
type = DERIVED_CORE;
isStandard = false;
name = "DSoft_Dotted";
shortName = "DSDot";
header = header = "# Derived Property: " + name
+ "\r\n# Generated from: all characters whose canonical decompositions end with a combining character sequence that"
+ "\r\n# - starts with i or j"
+ "\r\n# - has no combining marks above"
+ "\r\n# - has no combining marks with zero canonical combining class"
;
}
boolean hasValue(int cp) {
if (hasSoftDot(cp)) return true;
if (!Main.nfkd.hasDecomposition(cp)) return false;
String decomp = Main.nfd.normalize(cp);
boolean ok = false;
for (int i = decomp.length()-1; i >= 0; --i) {
int ch = UTF16.charAt(decomp, i);
int cc = ucdData.getCombiningClass(ch);
if (cc == 230) return false;
if (cc == 0) {
if (!hasSoftDot(ch)) return false;
ok = true;
}
}
return ok;
}
boolean hasSoftDot(int ch) {
return ch == 'i' || ch == 'j' || ch == 0x0268 || ch == 0x0456 || ch == 0x0458;
}
};
dprops[Case_Ignorable] = new UnicodeProperty() {
{
name = "Case_Ignorable";
shortName = "CI";
header = header = "# Derived Property: " + name
+ "\r\n# Generated from: Other_Case_Ignorable + Lm + Mn + Me + Cf";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Lm || cat == Cf || cat == Mn || cat == Me) return true;
if (dprops[Other_Case_Ignorable].hasValue(cp)) return true;
return false;
}
};
dprops[GraphemeBase] = new UnicodeProperty() {
{
type = DERIVED_CORE;
name = "Grapheme_Base";
shortName = "GrBase";
header = header = "# Derived Property: " + name
+ "\r\n# Generated from: [0..10FFFF] - Cc - Cf - Cs - Co - Cn - Zl - Zp - Grapheme_Link - Grapheme_Extend";
}
boolean hasValue(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Cc || cat == Cf || cat == Cs || cat == Co || cat == Cn || cat == Zl || cat == Zp
|| ucdData.getBinaryProperty(cp,GraphemeLink)) return false;
if (dprops[GraphemeExtend].hasValue(cp)) return false;
return true;
}
};
for (int i = 0; i < dprops.length; ++i) {
UnicodeProperty up = dprops[i];
if (up == null) continue;
if (up.getValueType() != BINARY) continue;
up.setValue(NUMBER, "1");
up.setValue(SHORT, "Y");
up.setValue(LONG, "YES");
}
}
byte getDecompCat(int cp) {
byte cat = ucdData.getCategory(cp);
if (cat == Lu
|| ucdData.getBinaryProperty(cp, Other_Uppercase)) return Lu;
if (cat == Ll
|| ucdData.getBinaryProperty(cp, Other_Lowercase)) return Ll;
if (cat == Lt || cat == Lo || cat == Lm || cat == Nl) return cat;
// if (true) throw new IllegalArgumentException("FIX Main.nf[2]");
if (!Main.nf[NFKD].normalizationDiffers(cp)) return Lo;
String norm = Main.nf[NFKD].normalize(cp);
int cp2;
boolean gotUpper = false;
boolean gotLower = false;
boolean gotTitle = false;
for (int i = 0; i < norm.length(); i += UTF32.count16(cp2)) {
cp2 = UTF32.char32At(norm, i);
byte catx = ucdData.getCategory(cp2);
boolean upx = ucdData.getBinaryProperty(cp, Other_Uppercase);
boolean lowx = ucdData.getBinaryProperty(cp, Other_Lowercase);
if (catx == Ll || lowx || cp2 == 0x345) gotLower = true;
if (catx == Lu || upx) gotUpper = true;
if (catx == Lt) gotTitle = true;
}
if (gotLower && !gotUpper && !gotTitle) return Ll;
if (!gotLower && gotUpper && !gotTitle) return Lu;
if (gotLower || gotUpper || gotTitle) return Lt;
return cat;
}
boolean isCompEx(int cp) {
if (ucdData.getBinaryProperty(cp, CompositionExclusion)) return true;
String decomp = ucdData.getDecompositionMapping(cp);
if (UTF32.length32(decomp) == 1) return true;
int first = UTF32.char32At(decomp,0);
if (ucdData.getCombiningClass(first) != 0) return true;
return false;
}
String fold(int cp) {
return ucdData.getCase(cp, FULL, FOLD);
}
String fold(String s) {
return ucdData.getCase(s, FULL, FOLD);
}
public static void test() {
Main.setUCD();
DerivedProperty dprop = new DerivedProperty(Main.ucd);
/*
for (int j = 0; j < LIMIT; ++j) {
System.out.println();
System.out.println(j + "\t" + dprop.getName(j));
System.out.println(dprop.getHeader(j));
}
*/
for (int cp = 0xA0; cp < 0xFF; ++cp) {
System.out.println();
System.out.println(Main.ucd.getCodeAndName(cp));
for (int j = 0; j < DERIVED_PROPERTY_LIMIT; ++j) {
String prop = make(j, Main.ucd).getValue(cp);
if (prop.length() != 0) System.out.println("\t" + prop);
}
}
}
}