//
// For some arguments, such as a string literal or a simple array expression, the
// result can be a constant. See the Go language specification's "Length and
// capacity" section for details.
func len(v Type) int

// The cap built-in function returns the capacity of v, according to its type:
//
//	Array: the number of elements in v (same as len(v)).
//	Pointer to array: the number of elements in *v (same as len(v)).

should be used instead.
</li>
</ol>

<h4 id="Conversions_from_slice_to_array_or_array_pointer">Conversions from slice to array or array pointer</h4>

<p>
Converting a slice to an array yields an array containing the elements of the underlying array of the slice.
Similarly, converting a slice to an array pointer yields a pointer to the underlying array of the slice.

	// into the file, so we can't warn here.
	//
	// The most common case is union types, which begin with
	// _Ctype_union and for which typedef[name] is a Go byte
	// array of the appropriate size (such as [4]byte).
	// Substitute those union types with byte arrays.
	for name, id := range goIdent {
		if id.Name == name && strings.Contains(name, "_Ctype_union") {
			if def := typedef[name]; def != nil {
				id.Name = gofmt(def)
			}

		}
	}

	// Round ModTime and ignore AccessTime and ChangeTime unless
	// the format is explicitly chosen.
	// This ensures nominal usage of WriteHeader (without specifying the format)
	// does not always result in the PAX format being chosen, which
	// causes a 1KiB increase to every header.
	if tw.hdr.Format == FormatUnknown {
		tw.hdr.ModTime = tw.hdr.ModTime.Round(time.Second)
		tw.hdr.AccessTime = time.Time{}

		// should not happen
		t.Fatal(err)
	}
	if err := buf.UnreadByte(); err == nil {
		t.Fatal("UnreadByte: expected error, got nil")
	}
}

// verify that copying from an empty reader always has the same results,
// regardless of the presence of a WriteTo method.
func TestReaderCopyNothing(t *testing.T) {
	type nErr struct {
		n   int64
		err error
	}
	type justReader struct {
		io.Reader

		argMap[macro.args[i]] = arg
	}
	return argMap
}

// collectArgument returns the actual tokens for a single argument of a macro.
// It also returns the token that terminated the argument, which will always
// be either ',' or ')'. The starting '(' has been scanned.
func (in *Input) collectArgument(macro *Macro) ([]Token, ScanToken) {
	nesting := 0
	var tokens []Token
	for {
		tok := in.Stack.Next()

// returns a slice of subslices of s. If all code points in s satisfy f(c), or
// len(s) == 0, an empty slice is returned.
//
// FieldsFunc makes no guarantees about the order in which it calls f(c)
// and assumes that f always returns the same value for a given c.
func FieldsFunc(s []byte, f func(rune) bool) [][]byte {
	// A span is used to record a slice of s of the form s[start:end].
	// The start index is inclusive and the end index is exclusive.

			}
			if !bytes.Equal(buf, all[i:i+j]) {
				t.Errorf("ReadAt(%d, %d) = %q; want %q", i, j, buf, all[i:i+j])
			}
		}
	}
}

// fakeHash32 is a dummy Hash32 that always returns 0.
type fakeHash32 struct {
	hash.Hash32
}

func (fakeHash32) Write(p []byte) (int, error) { return len(p), nil }
func (fakeHash32) Sum32() uint32               { return 0 }

			} else {
				abi = theabi
			}
		}
	}
	p.get('>')
	return isStatic, abi
}

// funcAddress parses an external function address. This is a
// constrained form of the operand syntax that's always SB-based,
// non-static, and has at most a simple integer offset:
//
//	[$|*]sym[<abi>][+Int](SB)
func (p *Parser) funcAddress() (string, obj.ABI, bool) {
	switch p.peek() {
	case '$', '*':
		// Skip prefix.

pkg debug/elf, const DT_FINI = 13
pkg debug/elf, const DT_FINI_ARRAY = 26
pkg debug/elf, const DT_FINI_ARRAYSZ = 28
pkg debug/elf, const DT_FLAGS = 30
pkg debug/elf, const DT_HASH = 4
pkg debug/elf, const DT_HIOS = 1879044096
pkg debug/elf, const DT_HIPROC = 2147483647
pkg debug/elf, const DT_INIT = 12
pkg debug/elf, const DT_INIT_ARRAY = 25
pkg debug/elf, const DT_INIT_ARRAYSZ = 27
pkg debug/elf, const DT_JMPREL = 23