* **Irọrun**: A kọ kí ó le rọrun láti lo àti láti kọ ẹkọ nínú rè. Ó máa fún ọ ní àkókò díẹ̀ látı ka àkọsílẹ.
* **Ó kúkurú ní kikọ**: Ó dín àtúnkọ àti àtúntò kóòdù kù. Ìkéde àṣàyàn kọ̀ọ̀kan nínú rẹ̀ ní ọ̀pọ̀lọpọ̀ àwọn ìlò. O ṣe iranlọwọ láti má ṣe ní ọ̀pọ̀lọpọ̀ àṣìṣe.

					},
				},
			},
		},
	}

	ni := fakeNodeInfo()
	gen := ni.Generation
	for _, pod := range pods {
		ni.AddPod(pod)
		if ni.Generation <= gen {
			t.Errorf("Generation is not incremented. Prev: %v, current: %v", gen, ni.Generation)
		}
		gen = ni.Generation
	}

	expected.Generation = ni.Generation
	if !reflect.DeepEqual(expected, ni) {
		t.Errorf("expected: %#v, got: %#v", expected, ni)
	}

		return
	}

	if ni.prev != nil {
		ni.prev.next = ni.next
	}
	if ni.next != nil {
		ni.next.prev = ni.prev
	}
	// if the removed item was at the head, we must update the head.
	if ni == cache.headNode {
		cache.headNode = ni.next
	}
	delete(cache.nodes, name)
}

// Dump produces a dump of the current scheduler cache. This is used for

		i := 1
		if last := len(sample.Location) - 1; last < i {
			i = last
		}
		for ; i >= 0; i-- {
			l := sample.Location[i]
			locNodes := locationMap.get(l.ID)
			for ni := len(locNodes) - 1; ni >= 0; ni-- {
				n := locNodes[ni]
				if n == nil {
					residual = true
					continue
				}
				// Add cum weight to all nodes in stack, avoiding double counting.
				_, sawNode := seenNode[n]
				if !sawNode {

// to that type. 2 Otherwise, set the type for both brackets in the pair to
// the embedding direction.
//
// o [ o ] e -> o o o o e
//
// o [ o NI ] o -> o o o NI o o
//
// e [ o ] o -> e e o e o
//
// e [ o ] e -> e e o e e
//
// e ( o [ o ] NI ) e -> e e o o o o NI e e
//
// d Otherwise, do not set the type for the current bracket pair. Note that
// if the enclosed text contains no strong types the paired brackets will

		Name:     line.Function.Name,
	}
	if fname := line.Function.Filename; fname != "" {
		ni.File = filepath.Clean(fname)
	}
	if o.OrigFnNames {
		ni.OrigName = line.Function.SystemName
	}
	if o.ObjNames || (ni.Name == "" && ni.OrigName == "") {
		ni.Objfile = objfile
		ni.StartLine = int(line.Function.StartLine)
	}
	return ni
}

type tags struct {
	t    []*Tag
	flat bool
}

  }

  public void testComposition() {
    Map<String, Integer> mJapaneseToInteger = Maps.newHashMap();
    mJapaneseToInteger.put("Ichi", 1);
    mJapaneseToInteger.put("Ni", 2);
    mJapaneseToInteger.put("San", 3);
    Function<String, Integer> japaneseToInteger = Functions.forMap(mJapaneseToInteger);

    Map<Integer, String> mIntegerToSpanish = Maps.newHashMap();

func (fm functionMap) findOrAdd(ni graph.NodeInfo) (*profile.Function, bool) {
	fName := fmt.Sprintf("%q%q%q%d", ni.Name, ni.OrigName, ni.File, ni.StartLine)

	if f := fm[fName]; f != nil {
		return f, false
	}

	f := &profile.Function{
		ID:         uint64(len(fm) + 1),
		Name:       ni.Name,
		SystemName: ni.OrigName,
		Filename:   ni.File,
		StartLine:  int64(ni.StartLine),
	}
	fm[fName] = f

		}
		hashShift -= nChildrenLog2 // hashShift is for the level parent is at. We need to go deeper.
		oi := (oldHash >> hashShift) & nChildrenMask
		ni := (newHash >> hashShift) & nChildrenMask
		if oi != ni {
			newIndirect.children[oi].Store(&oldEntry.node)
			newIndirect.children[ni].Store(&newEntry.node)
			break
		}
		nextIndirect := newIndirectNode(newIndirect)
		newIndirect.children[oi].Store(&nextIndirect.node)

	}

	for _, tt := range tests {
		t.Run(tt.name, func(t *testing.T) {
			var nodeInfos []*framework.NodeInfo
			for _, name := range nodeNames {
				ni := framework.NewNodeInfo()
				ni.SetNode(st.MakeNode().Name(name).Obj())
				nodeInfos = append(nodeInfos, ni)
			}
			nodes, _ := nodesWherePreemptionMightHelp(nodeInfos, tt.nodesStatuses)
			if len(tt.expected) != len(nodes) {