pi := len(l.payloads)
	pp := l.allocPayload()
	pp.name = name
	pp.ver = ver
	l.payloads = append(l.payloads, pp)
	l.growExtAttrBitmaps()
	return pi
}

// getPayload returns a pointer to the extSymPayload struct for an
// external symbol if the symbol has a payload. Will panic if the
// symbol in question is bogus (zero or not an external sym).
func (l *Loader) getPayload(i Sym) *extSymPayload {

// public key is a SubjectPublicKeyInfo structure (see RFC 5280, Section 4.1).
//
// It returns a *[rsa.PublicKey], *[dsa.PublicKey], *[ecdsa.PublicKey],
// [ed25519.PublicKey] (not a pointer), or *[ecdh.PublicKey] (for X25519).
// More types might be supported in the future.
//
// This kind of key is commonly encoded in PEM blocks of type "PUBLIC KEY".
func ParsePKIXPublicKey(derBytes []byte) (pub any, err error) {

	tg.tempFile("src/p1/p1.go", `//go:binary-only-package

		package p1
	`)
	tg.wantStale("p1", "binary-only packages are no longer supported", "p1 is binary-only, and this message should always be printed")
	tg.runFail("install", "p1")
	tg.grepStderr("binary-only packages are no longer supported", "did not report attempt to compile binary-only package")

	tg.tempFile("src/p1/p1.go", `
		package p1

	ports []v1.EndpointPort, ips []string, addrType discovery.AddressType,
) {
	esps := make([]discovery.EndpointPort, 0)
	for _, name := range ports {
		n := name // Create a stable reference to take the pointer from
		esps = append(esps, discovery.EndpointPort{
			Name:        &n.Name,
			Protocol:    &n.Protocol,
			Port:        &n.Port,
			AppProtocol: n.AppProtocol,
		})
	}

=== Potential breaking changes

==== Kotlin DSL scripts emit compilation warnings

Compilation warnings from Kotlin DSL scripts are printed to the console output.
For example, the use of deprecated APIs in Kotlin DSL will emit warnings each time the script is compiled.

This is a potentially breaking change if you are consuming the console output of Gradle builds.

				continue
			}

			if asDec {
				got.AsDec()
			}

			for _, format := range []Format{DecimalSI, BinarySI, DecimalExponent} {
				// ensure we are not simply checking pointer equality by creating a new inf.Dec
				var copied inf.Dec
				copied.Add(inf.NewDec(0, inf.Scale(0)), got.AsDec())
				q := NewDecimalQuantity(copied, format)
				if c := q.Cmp(got); c != 0 {

	go pconn.readLoop()
	go pconn.writeLoop()
	return pconn, nil
}

// persistConnWriter is the io.Writer written to by pc.bw.
// It accumulates the number of bytes written to the underlying conn,
// so the retry logic can determine whether any bytes made it across
// the wire.
// This is exactly 1 pointer field wide so it can go into an interface
// without allocation.
type persistConnWriter struct {
	pc *persistConn

		// You might be tempted to simplify this by just passing &outBuf to Put,
		// but that would make the local copy of the outBuf slice header escape
		// to the heap, causing an allocation. Instead, we keep around the
		// pointer to the slice header returned by Get, which is already on the
		// heap, and overwrite and return that.
		*outBufPtr = outBuf
		outBufPool.Put(outBufPtr)
	}()

	var n int
	for len(data) > 0 {

// frameworkImpl.
type extensionPoint struct {
	// the set of plugins to be configured at this extension point.
	plugins *config.PluginSet
	// a pointer to the slice storing plugins implementations that will run at this
	// extension point.
	slicePtr interface{}
}

func (f *frameworkImpl) getExtensionPoints(plugins *config.Plugins) []extensionPoint {

	// nested module back into a parent module).
	direct map[string]bool

	graphOnce sync.Once // guards writes to (but not reads from) graph
	graph     atomic.Pointer[cachedGraph]
}

// A cachedGraph is a non-nil *ModuleGraph, together with any error discovered
// while loading that graph.
type cachedGraph struct {
	mg  *ModuleGraph