},
		{
			name: "integer overflow bounds check",
			schema: []*apiextensions.JSONSchemaProps{
				withMaxItems(genArraySchema(), int64ptr(math.MaxInt)),
				withMaxItems(genArraySchema(), int64ptr(100)),
			},
			expectedMaxCardinality: uint64ptr(math.MaxUint),
		},
	}
	for _, tt := range tests {
		t.Run(tt.name, func(t *testing.T) {
			// simulate the recursive validation calls

	}

	// mantissa
	var fcount int // fractional digit count; valid if <= 0
	z.mant, b, fcount, err = z.mant.scan(r, base, true)
	if err != nil {
		return
	}

	// exponent
	var exp int64
	var ebase int
	exp, ebase, err = scanExponent(r, true, base == 0)
	if err != nil {
		return
	}

	// special-case 0
	if len(z.mant) == 0 {
		z.prec = prec
		z.acc = Exact
		z.form = zero
		f = z
		return
	}

	d.Shift(int(1 + flt.mantbits))
	mant = d.RoundedInteger()

	// Rounding might have added a bit; shift down.
	if mant == 2<<flt.mantbits {
		mant >>= 1
		exp++
		if exp-flt.bias >= 1<<flt.expbits-1 {
			goto overflow
		}
	}

	// Denormalized?
	if mant&(1<<flt.mantbits) == 0 {
		exp = flt.bias
	}
	goto out

overflow:
	// ±Inf
	mant = 0
	exp = 1<<flt.expbits - 1 + flt.bias

	z.Mul(x, sqi)
}

// newFloat returns a new *Float with space for twice the given
// precision.
func newFloat(prec2 uint32) *Float {
	z := new(Float)
	// nat.make ensures the slice length is > 0
	z.mant = z.mant.make(int(prec2/_W) * 2)
	return z

type codeNode struct {
	Name     string      `json:"name"`
	Kids     []*codeNode `json:"kids"`
	CLWeight float64     `json:"cl_weight"`
	Touches  int         `json:"touches"`
	MinT     int64       `json:"min_t"`
	MaxT     int64       `json:"max_t"`
	MeanT    int64       `json:"mean_t"`
}

var codeJSON []byte
var codeStruct codeResponse

func codeInit() {
	f, err := os.Open("testdata/code.json.gz")
	if err != nil {
		panic(err)
	}

		},
		{
			name: "uint16 max",
			obj:  uint16(math.MaxUint16),
		},
		{
			name: "uint16 zero",
			obj:  uint16(0),
		},
		{
			name: "int8 max",
			obj:  int8(math.MaxInt8),
		},
		{
			name: "int8 min",
			obj:  int8(math.MinInt8),
		},
		{
			name: "int8 zero",
			obj:  int8(math.MinInt8),
		},
		{
			name: "uint8 max",
			obj:  uint8(math.MaxUint8),

      }
    }
  }

  private static final BigInteger MAX_INT = BigInteger.valueOf(Integer.MAX_VALUE);
  private static final BigInteger MIN_INT = BigInteger.valueOf(Integer.MIN_VALUE);

  private static int saturatedCast(BigInteger big) {
    if (big.compareTo(MAX_INT) > 0) {
      return Integer.MAX_VALUE;
    }
    if (big.compareTo(MIN_INT) < 0) {

pkg math (freebsd-riscv64), const MaxInt = 9223372036854775807 #53466
pkg math (freebsd-riscv64), const MaxUint = 18446744073709551615 #53466
pkg math (freebsd-riscv64), const MinInt = -9223372036854775808 #53466
pkg math (freebsd-riscv64-cgo), const MaxInt = 9223372036854775807 #53466
pkg math (freebsd-riscv64-cgo), const MaxUint = 18446744073709551615 #53466

	io.ReadFull(&r.declReader, b)
	x.SetBytes(b)
	if signed && n&1 != 0 {
		x.Neg(x)
	}
}

func (r *importReader) mpfloat(typ *types.Basic) constant.Value {
	var mant big.Int
	r.mpint(&mant, typ)
	var f big.Float
	f.SetInt(&mant)
	if f.Sign() != 0 {
		f.SetMantExp(&f, int(r.int64()))
	}
	return constant.Make(&f)
}

func (r *importReader) ident() string {
	return r.string()
}

		}
	}
}

// actualPrec returns the number of actually used mantissa bits.
func actualPrec(x float64) uint {
	if mant := math.Float64bits(x); x != 0 && mant&(0x7ff<<52) == 0 {
		// x is denormalized
		return 64 - uint(bits.LeadingZeros64(mant&(1<<52-1)))
	}
	return 53
}

func TestFloatText(t *testing.T) {
	const defaultRound = ^RoundingMode(0)

	for _, test := range []struct {