val linkedHashMapCodec: Codec<LinkedHashMap<Any?, Any?>> = mapCodec { LinkedHashMap(it) }


val concurrentHashMapCodec: Codec<ConcurrentHashMap<Any?, Any?>> = mapCodec { ConcurrentHashMap<Any?, Any?>(it) }


/*
 * Cannot rely on Java serialization as
 * Hashtable's readObject() calls unsupported ObjectInputStream#readFields().
 */
val hashtableCodec: Codec<Hashtable<Any?, Any?>> = mapCodec { Hashtable(it) }


/*

	// This trips client-go and the kubelet, creating problems on Windows nodes.
	// Fixing it in client-go or the kubelet is a breaking change to existing Windows
	// users that rely on relative paths:
	//   https://github.com/kubernetes/kubernetes/pull/77710#issuecomment-491989621
	//
	// Thus, a workaround here is to adapt the KubeletConfiguration paths for Windows.

        registerApplicationServices(application, pluginRelativePath, application.classLoader)
    }

    /**
     * TODO (KT-68186): This is a workaround for [KT-68186](https://youtrack.jetbrains.com/issue/KT-68186). We cannot rely on the
     * application's class loader for now, so we have to use the configured class loader manually.
     */

		// Place b after p.
		for _, b := range after[p.ID] {
			move[b.ID] = struct{}{}
		}
	}

	// Move blocks to their destinations in a single pass.
	// We rely here on the fact that loop headers must come
	// before the rest of the loop.  And that relies on the
	// fact that we only identify reducible loops.
	j := 0
	// Some blocks that are not part of a loop may be placed

            .map(ClassPathTransformedArtifact::ofTransformedArtifact)
            // We sort based on the original classpath to we keep the original order,
            // we also rely on the fact that for ordered streams `sorted()` method has stable sort.
            .sorted((first, second) -> ordering.compare(first.originalIdentifier, second.originalIdentifier))
            .map(artifact -> artifact.file)

	storageError             error
	cidr                     string
	healthChecks             []*healthCheck
	rtHandlers               []kubecontainer.RuntimeHandler
}

// A health check function should be efficient and not rely on external
// components (e.g., container runtime).
type healthCheckFnType func() (bool, error)

type healthCheck struct {
	name string
	fn   healthCheckFnType
}

	MULH	R4, R5	   		// a5901c00
	MULH	R4, R5, R6	   	// a6901c00
	MULHU	R4, R5			// a5101d00
	MULHU	R4, R5, R6		// a6101d00
	REM	R4, R5	  		// a5902000
	REM	R4, R5, R6	  	// a6902000
	REMU	R4, R5	   		// a5902100
	REMU	R4, R5, R6	   	// a6902100
	DIV	R4, R5	  		// a5102000
	DIV	R4, R5, R6	  	// a6102000
	DIVU	R4, R5	   		// a5102100
	DIVU	R4, R5, R6	   	// a6102100
	SRLV	R4, R5 			// a5101900

// Declares pure virtual member functions for a python-side derived class to
// override. This allows calling python implementations from the C++ layer.
// Member functions should be pure not stateful; they should not access or rely
// on member fields.
class PyFunctionLibrary {
 public:
  virtual ~PyFunctionLibrary() = default;

  // Saves `exported_model` to `dst_saved_model_path` as SavedModel.

	}

	klog.V(6).InfoS("Function IsUnixDomainSocket starts", "filePath", filePath)
	// As detailed in https://github.com/kubernetes/kubernetes/issues/104584 we cannot rely
	// on the Unix Domain socket working on the very first try, hence the potential need to
	// dial multiple times
	var lastSocketErr error
	err := wait.PollImmediate(socketDialRetryPeriod, socketDialTimeout,

// in a pod, we cannot just access any arbitrary file they happen to bind mount in, as we don't know ahead of time where
// it might be.
//
// Instead, we rely directly on the procfs.
// This rules out two possible methods:
// * use crictl to inspect the pod; this returns the bind-mounted network namespace file.