114   unsigned int precision;  member
127            precision <= S.precision;  in isRepresentableBy()
324   return semantics.precision;  in semanticsPrecision()
359   return Dst.precision >= Src.precision;  in isRepresentableAsNormalIn()
929       fill_storage = APInt::getZero(semantics->precision - 1);  in makeNaN()
931       fill_storage = APInt::getAllOnes(semantics->precision - 1);  in makeNaN()
944     unsigned bitsToPreserve = semantics->precision - 1;  in makeNaN()
952   unsigned QNaNBit = semantics->precision - 2;  in makeNaN()
1006                               semantics->precision - 1) == 0);  in isDenormal()
1026   const unsigned PartCount = partCountForBits(semantics->precision);  in isSignificandAllOnes()
1033     PartCount*integerPartWidth - semantics->precision + 1;  in isSignificandAllOnes()
1052   const unsigned PartCount = partCountForBits(semantics->precision);  in isSignificandAllOnesExceptLSB()
1060       PartCount * integerPartWidth - semantics->precision + 1;  in isSignificandAllOnesExceptLSB()
1075   const unsigned PartCount = partCountForBits(semantics->precision);  in isSignificandAllZeros()
1083     PartCount*integerPartWidth - semantics->precision + 1;  in isSignificandAllZeros()
1096   const unsigned PartCount = partCountForBits(semantics->precision);  in isSignificandAllZerosExceptMSB()
1104       PartCount * integerPartWidth - semantics->precision + 1;  in isSignificandAllZerosExceptMSB()
1155   exponent = ourSemantics.precision - 1;  in IEEEFloat()
1182   return partCountForBits(semantics->precision + 1);  in partCount()
1244   unsigned int partsCount, newPartsCount, precision;  in multiplySignificand()  local
1253   precision = semantics->precision;  in multiplySignificand()
1257   newPartsCount = partCountForBits(precision * 2 + 1);  in multiplySignificand()
1297     extendedPrecision = 2 * precision + 1;  in multiplySignificand()
1307     extendedSemantics.precision = extendedPrecision;  in multiplySignificand()
1345   exponent -= precision + 1;  in multiplySignificand()
1354   if (omsb > precision) {  in multiplySignificand()
1358     bits = omsb - precision;  in multiplySignificand()
1407   unsigned int precision = semantics->precision;  in divideSignificand()  local
1410   bit = precision - APInt::tcMSB(divisor, partsCount) - 1;  in divideSignificand()
1417   bit = precision - APInt::tcMSB(dividend, partsCount) - 1;  in divideSignificand()
1433   for (bit = precision; bit; bit -= 1) {  in divideSignificand()
1480   assert(bits < semantics->precision);  in shiftSignificandLeft()
1554                             semantics->precision);  in handleOverflow()
1620     exponentChange = omsb - semantics->precision;  in normalize()
1689     if (omsb == (unsigned) semantics->precision + 1) {  in normalize()
1715   if (omsb == semantics->precision)  in normalize()
1719   assert(omsb < semantics->precision);  in normalize()
2187   extendedSemantics.precision += 2;  in remainder()
2481   newPartCount = partCountForBits(toSemantics.precision + 1);  in convert()
2483   shift = toSemantics.precision - fromSemantics.precision;  in convert()
2504     int exponentChange = omsb - fromSemantics.precision;  in convert()
2574       APInt::tcSetBit(significandParts(), semantics->precision - 1);  in convert()
2648     truncatedBits = semantics->precision -1U - exponent;  in convertToSignExtendedInteger()
2658     if (bits < semantics->precision) {  in convertToSignExtendedInteger()
2660       truncatedBits = semantics->precision - bits;  in convertToSignExtendedInteger()
2664       APInt::tcExtract(parts.data(), dstPartsCount, src, semantics->precision,  in convertToSignExtendedInteger()
2667                          bits - semantics->precision);  in convertToSignExtendedInteger()
2764   unsigned int omsb, precision, dstCount;  in convertFromUnsignedParts()  local
2772   precision = semantics->precision;  in convertFromUnsignedParts()
2776   if (precision <= omsb) {  in convertFromUnsignedParts()
2779                                                   omsb - precision);  in convertFromUnsignedParts()
2780     APInt::tcExtract(dst, dstCount, src, precision, omsb - precision);  in convertFromUnsignedParts()
2782     exponent = precision - 1;  in convertFromUnsignedParts()
2930     expAdjustment += semantics->precision;  in convertFromHexadecimalString()
2955   parts = partCountForBits(semantics->precision + 11);  in roundSignificandWithExponent()
2964     calcSemantics.precision = parts * integerPartWidth - 1;  in roundSignificandWithExponent()
2965     excessPrecision = calcSemantics.precision - semantics->precision;  in roundSignificandWithExponent()
2993         if (excessPrecision > calcSemantics.precision)  in roundSignificandWithExponent()
2994           excessPrecision = calcSemantics.precision;  in roundSignificandWithExponent()
3003            (decSig.significandParts(), calcSemantics.precision - 1) == 1);  in roundSignificandWithExponent()
3013                        calcSemantics.precision - excessPrecision,  in roundSignificandWithExponent()
3018       exponent = (decSig.exponent + semantics->precision  in roundSignificandWithExponent()
3019                   - (calcSemantics.precision - excessPrecision));  in roundSignificandWithExponent()
3079                8651 * (semantics->minExponent - (int) semantics->precision)) {  in convertFromDecimalString()
3342   valueBits = semantics->precision + 3;  in convertNormalToHexString()
3429                         Arg.semantics->precision);  in hash_value()
3433                       Arg.semantics->precision, Arg.exponent,  in hash_value()
3532   constexpr unsigned int trailing_significand_bits = S.precision - 1;  in convertIEEEFloatToAPInt()
3812                                       << ((S.precision - 1) % integerPartWidth);  in initFromIEEEAPInt()
3814   constexpr unsigned int trailing_significand_bits = S.precision - 1;  in initFromIEEEAPInt()
4011     PartCount*integerPartWidth - semantics->precision;  in makeLargest()
4044   APInt::tcSetBit(significandParts(), semantics->precision - 1);  in makeSmallestNormalized()
4188       unsigned precision = semanticsPrecision + (137 * texp + 136) / 59;  in toStringImpl()  local
4192       significand = significand.zext(precision);  in toStringImpl()
4193       APInt five_to_the_i(precision, 5);  in toStringImpl()
4210     unsigned precision = significand.getBitWidth();  in toStringImpl()  local
4211     if (precision < 4) {  in toStringImpl()
4213       precision = 4;  in toStringImpl()
4214       significand = significand.zext(precision);  in toStringImpl()
4216     APInt ten(precision, 10);  in toStringImpl()
4217     APInt digit(precision, 0);  in toStringImpl()
4369   int exp = exponent - ((int) semantics->precision - 1);  in toString()
4371       semantics->precision,  in toString()
4372       ArrayRef(significandParts(), partCountForBits(semantics->precision)));  in toString()
4386   if (significandLSB() != semantics->precision - 1)  in getExactInverse()
4400          reciprocal.significandLSB() == reciprocal.semantics->precision - 1);  in getExactInverse()
4413   const int PartCount = partCountForBits(semantics->precision);  in getExactLog2Abs()
4429       return exponent - semantics->precision + CountrParts +  in getExactLog2Abs()
4446   return !APInt::tcExtractBit(significandParts(), semantics->precision - 2);  in isSignaling()
4545         APInt::tcSetBit(Parts, semantics->precision - 1);  in next()
4562         APInt::tcSetBit(Parts, semantics->precision - 1);  in next()
4622     APInt::tcSetBit(significandParts(), semantics->precision - 2);  in makeQuiet()
4636   int SignificandBits = Arg.getSemantics().precision - 1;  in ilogb()
4653   int SignificandBits = X.getSemantics().precision - 1;  in scalbn()