cd $WORK
go build -o a.out

# Varying -trimpath should cause a rebuild.
go build -x -o a.out -trimpath
stderr '(compile|gccgo)( |\.exe)'
stderr 'link( |\.exe)'

# Two distinct versions of the same module with identical content should
# still be cached separately.
# Verifies golang.org/issue/35412.
go get example.com/stack@v1.0.0
go run -trimpath printstack.go
stdout '^example.com/stack@v1.0.0/stack.go$'
go get example.com/stack@v1.0.1

// of the types and variables used in these tests.

// "x's type is identical to T"
func _[TP any](X TP) {
	b = b
	a = a
	l = l
	s = s
	p = p
	f = f
	i = i
	m = m
	c = c
	d = d

	B = B
	A = A
	L = L
	S = S
	P = P
	F = F
	I = I
	M = M
	C = C
	D = D
	X = X
}

// "x's type V and T have identical underlying types
// and at least one of V or T is not a named type."

   * A word about using {@link Equivalence}, which automatically checks for {@code null} and
   * identical inputs: This sounds like it ought to be a problem here, since the goals of this class
   * include testing that {@code equals()} is reflexive and is tolerant of {@code null}. However,
   * there's no problem. The reason: {@link EqualsTester} tests {@code null} and identical inputs
   * directly against {@code equals()} rather than through the {@code Equivalence}.

  }

  /**
   * Serializes and deserializes the specified object and verifies that the re-serialized object is
   * equal to the provided object, that the hashcodes are identical, and that the class of the
   * re-serialized object is identical to that of the original.
   *
   * <p><b>GWT warning:</b> Under GWT, this method simply returns its input, as proper GWT

# does not appear in the binary, either literally or in compressed DWARF.
# TODO(golang.org/issue/36072): ideally we should build a binary from identical
# sources in different directories and verify the binary and all intermediate
# files are identical.

[short] skip
[!cgo] skip

# Check that the source path appears when -trimpath is not used.
go build -o hello.exe .
grep -q gopath[/\\]src hello.exe

    }

    /**
     * Finish building an instance which also maps {@code x = x2} to {@code y = y2}. These values
     * must not both be identical to the values given in the first mapping. If only the {@code x}
     * values are identical, the transformation is vertical. If only the {@code y} values are
     * identical, the transformation is horizontal (i.e. the slope is zero).
     */
    public LinearTransformation and(double x2, double y2) {

operator in the script should be in the "math" category, and it will be
generated in the output file `c/experimental/ops/math_ops.cc`.

Running this script should be a no-op, generating identical code other than

   * A word about using {@link Equivalence}, which automatically checks for {@code null} and
   * identical inputs: This sounds like it ought to be a problem here, since the goals of this class
   * include testing that {@code equals()} is reflexive and is tolerant of {@code null}. However,
   * there's no problem. The reason: {@link EqualsTester} tests {@code null} and identical inputs
   * directly against {@code equals()} rather than through the {@code Equivalence}.

// type of all types in the corresponding type constraint if it exists, or
// nil otherwise. If the type set contains only unrestricted and restricted
// channel types (with identical element types), the single underlying type
// is the restricted channel type if the restrictions are always the same.
// If typ is not a type parameter, CoreType returns the underlying type.
func CoreType(t Type) Type {

// license that can be found in the LICENSE file.

package json

import (
	"unicode"
	"unicode/utf8"
)

// foldName returns a folded string such that foldName(x) == foldName(y)
// is identical to bytes.EqualFold(x, y).
func foldName(in []byte) []byte {
	// This is inlinable to take advantage of "function outlining".
	var arr [32]byte // large enough for most JSON names
	return appendFoldedName(arr[:0], in)
}