// goroutine needs another span, it first attempts to reclaim that much memory
// by sweeping. When a goroutine needs to allocate a new small-object span, it
// sweeps small-object spans for the same object size until it frees at least
// one object. When a goroutine needs to allocate large-object span from heap,
// it sweeps spans until it frees at least that many pages into heap. There is

// rounded to one of about 70 size classes, each of which
// has its own free set of objects of exactly that size.
// Any free page of memory can be split into a set of objects
// of one size class, which are then managed using a free bitmap.
//
// The allocator's data structures are:
//
//	fixalloc: a free-list allocator for fixed-size off-heap objects,
//		used to manage storage used by the allocator.

  // NamespaceSelector decides whether to run the webhook on an object based
  // on whether the namespace for that object matches the selector. If the
  // object itself is a namespace, the matching is performed on
  // object.metadata.labels. If the object is another cluster scoped resource,
  // it never skips the webhook.
  //
  // For example, to run the webhook on any objects whose namespace is not

	// NamespaceSelector decides whether to run the webhook on an object based
	// on whether the namespace for that object matches the selector. If the
	// object itself is a namespace, the matching is performed on
	// object.metadata.labels. If the object is another cluster scoped resource,
	// it never skips the webhook.
	//
	// For example, to run the webhook on any objects whose namespace is not

				return fi, nil
			}
			// Data exists on disk, remove the version from metadata.
			fi.Data = nil
		}

		// Reading data for small objects when
		// - object has not yet transitioned
		// - object size lesser than 128KiB
		// - object has maximum of 1 parts
		if fi.TransitionStatus == "" &&
			fi.DataDir != "" && fi.Size <= smallFileThreshold &&
			len(fi.Parts) == 1 {

        return this.fileLocator.hashCode();
    }


    /**
     * Tests to see if two <code>SmbFile</code> objects are equal. Two
     * SmbFile objects are equal when they reference the same SMB
     * resource. More specifically, two <code>SmbFile</code> objects are
     * equals if their server IP addresses are equal and the canonicalized
     * representation of their URLs, minus authentication parameters, are

			key:         fooKey,
			recursive:   false,
			expectedOut: []example.Pod{*fooObj},
		},
		{
			name:        "Recursive on object key (prefix) doesn't return anything",
			key:         fooKey,
			recursive:   true,
			expectedOut: []example.Pod{},
		},
		{
			name:        "NonRecursive on object key (no-prefix) return object",

        return project;
    }

    @Override
    public Object configure(Object object, Closure configureClosure) {
        return ConfigureUtil.configure(configureClosure, object);
    }

    @Override
    public Iterable<?> configure(Iterable<?> objects, Closure configureClosure) {
        for (Object object : objects) {
            configure(object, configureClosure);
        }
        return objects;
    }

				return false
			}
		}

		// Check that the typedef is either:
		// 1:
		//     	struct _jobject;
		//     	typedef struct _jobject *jobject;
		// 2: (in NDK16 in C++)
		//     	class _jobject {};
		//     	typedef _jobject* jobject;
		// 3: (in NDK16 in C)
		//     	typedef void* jobject;
		if ptr, ok := w.Type.(*dwarf.PtrType); ok {
			switch v := ptr.Type.(type) {
			case *dwarf.VoidType:

// 4. handy for constants, objects, functions, extension functions
// 5. perfect for Gradle Tasks, Gradle Plugins and DSL Extensions


[[kotdsl:containers]]
== Working with container objects

The Gradle build model makes heavy use of container objects (or just "containers").
For example, both `configurations` and `tasks` are container objects that contain `Configuration` and `Task` objects respectively.