const llvm::SetVector<Operation*>& merged_set,
    func::FuncOp loop_body_func) {
  // Find all of the Ops that are part of the forward/backward pass but aren't
  // targeting the SparseCore. Note that we need to include some non-TPU ops
  // that flow out of the forward pass function. Otherwise, they would get
  // absorbed into the non_tpu function which breaks the pipelining

        if (!role.isSubjectViewAvailable() && !subjectReference.isUntyped()) {
            throw new IllegalStateException(String.format("Cannot bind subject '%s' to role '%s' because it is targeting a type and subject types are not yet available in that role", subjectReference, role));
        }
        return new BindingPredicate(subjectReference.atState(role.getTargetState()));
    }

		// API installation happens before we start listening on the handlers,
		// therefore it is safe to register ResourceInfos here. The handler will block
		// write requests until the storage versions of the targeting resources are updated.
		s.StorageVersionManager.AddResourceInfo(resourceInfos...)
	}

	return nil
}

// InstallLegacyAPIGroup exposes the given legacy api group in the API.

One example *all* pom-based libraries already have are the _runtime_ and _compile_ variants, where Gradle can choose only one depending on the task at hand.
Another of such alternatives discovered often in the Java ecosystems are jars targeting different Java versions.

As example, we look at version 0.7.9 of the asynchronous programming library Quasar published on link:https://repo1.maven.org/maven2/co/paralleluniverse/quasar-core/0.7.9[Maven central].

					return true
				})
				if #state3 == abi.RF_PANIC {
					panic(runtime.panicrangestate(abi.RF_MISSING_PANIC))
				}
				#state3 = abi.RF_EXHAUSTED
				if #next != 0 {
					// no breaks or continues targeting this loop
					#state2 = abi.RF_DONE
					return false
				}
				return true
			})
	    	if #state2 == abi.RF_PANIC {
	       		panic(runtime.panicrangestate(abi.RF_MISSING_PANIC))
	   		}

		if ss.Sym != 0 && ss.Size > limit {
			addLabelSyms(ss.Sym, limit, ss.Size)
		}
	}
}

// offsetLabelName returns the name of the "label" symbol used for a
// relocation targeting s+off. The label symbols is used on Darwin/Windows
// when external linking, so that the addend fits in a Mach-O/PE relocation.
func offsetLabelName(ldr *loader.Loader, s loader.Sym, off int64) string {

		p.Write(esc)
		last = i
	}
	p.WriteString(s[last:])
}

// Escape is like [EscapeText] but omits the error return value.
// It is provided for backwards compatibility with Go 1.0.
// Code targeting Go 1.1 or later should use [EscapeText].
func Escape(w io.Writer, s []byte) {
	EscapeText(w, s)
}

var (
	cdataStart  = []byte("<![CDATA[")
	cdataEnd    = []byte("]]>")

type AMQPTarget struct {
	initOnce once.Init

	id         event.TargetID
	args       AMQPArgs
	conn       *amqp091.Connection
	connMutex  sync.Mutex
	store      store.Store[event.Event]
	loggerOnce logger.LogOnce

	quitCh chan struct{}
}

// ID - returns TargetID.
func (target *AMQPTarget) ID() event.TargetID {
	return target.id
}

// Name - returns the Name of the target.

			break
		}
		if err != nil {
			t.Fatalf("failed to process trace %s: %v", testPath, err)
		}
		events = append(events, ev)
	}

	// Test the function.
	targetg := trace.GoID(86)
	got := trace.RelatedGoroutinesV2(events, targetg)
	want := map[trace.GoID]struct{}{
		trace.GoID(86):  struct{}{}, // N.B. Result includes target.
		trace.GoID(71):  struct{}{},
		trace.GoID(25):  struct{}{},

	gotoolchainModule  = "golang.org/toolchain"
	gotoolchainVersion = "v0.0.1"

	// targetEnv is a special environment variable set to the expected
	// toolchain version during the toolchain switch by the parent
	// process and cleared in the child process. When set, that indicates
	// to the child to confirm that it provides the expected toolchain version.
	targetEnv = "GOTOOLCHAIN_INTERNAL_SWITCH_VERSION"

	// countEnv is a special environment variable