this.totalCount = elemCount + totalCount(left) + totalCount(right);
    }

    private void recomputeHeight() {
      this.height = 1 + Math.max(height(left), height(right));
    }

    private void recompute() {
      recomputeMultiset();
      recomputeHeight();
    }

    private AvlNode<E> rebalance() {
      switch (balanceFactor()) {
        case -2:

				switch st.kind {
				case abiStepIntReg:
					offset := add(s, st.offset, "precomputed value offset")
					intFromReg(&regArgs, st.ireg, st.size, offset)
				case abiStepPointer:
					s := add(s, st.offset, "precomputed value offset")
					*((*unsafe.Pointer)(s)) = regArgs.Ptrs[st.ireg]
				case abiStepFloatReg:
					offset := add(s, st.offset, "precomputed value offset")
					floatFromReg(&regArgs, st.freg, st.size, offset)

		return nil
	}

	key := loggingKey{
		telemetryKey: ct.telemetryKey,
		Class:        class,
	}
	t.mu.Lock()
	defer t.mu.Unlock()
	precomputed, ok := t.computedLoggingConfig[key]
	if ok {
		return precomputed
	}

	providers := mergeLogs(ct.Logging, t.meshConfig, workloadMode(class))
	cfgs := make([]LoggingConfig, 0, len(providers))
	for p, v := range providers {

      this.totalCount = elemCount + totalCount(left) + totalCount(right);
    }

    private void recomputeHeight() {
      this.height = 1 + Math.max(height(left), height(right));
    }

    private void recompute() {
      recomputeMultiset();
      recomputeHeight();
    }

    private AvlNode<E> rebalance() {
      switch (balanceFactor()) {
        case -2:

		if strings.HasPrefix(key, bootstrapapi.JWSSignatureKeyPrefix) {
			tokenID := strings.TrimPrefix(key, bootstrapapi.JWSSignatureKeyPrefix)
			sigs[tokenID] = value
			delete(newCM.Data, key)
		}
	}

	// Now recompute signatures and store them on the new map
	tokens := e.getTokens(ctx)
	for tokenID, tokenValue := range tokens {
		sig, err := jws.ComputeDetachedSignature(content, tokenID, tokenValue)
		if err != nil {

			// this can happen when an immediate delete after update
			// the delete event can be handled later
			return nil
		}
		return handler(prev, curr, event)
	}
	// Pre-build our metric types to avoid recompute them on each event
	adds := k8sEvents.With(typeTag.Value(otype), eventTag.Value("add"))
	updatesames := k8sEvents.With(typeTag.Value(otype), eventTag.Value("updatesame"))

    private List<? extends ModuleDependencyMetadata> calculatedDependencies;
    private ImmutableList<? extends ModuleComponentArtifactMetadata> calculatedArtifacts;

    // Could be precomputed, but we avoid doing so if attributes are never requested
    private ImmutableAttributes computedAttributes;
    private ImmutableCapabilities computedCapabilities;

		}
	}
	h.log.Debugf("event size %v, impacts %v objects", len(events), len(changedInputKeys))

	toRun := make([]Event[I], 0, len(changedInputKeys))
	// Now we have the set of input keys that changed. We need to recompute all of these.
	// While we could just do that manually, to re-use code, we will convert these into Event[I] and use the same logic as
	// we would if the input itself changed.
	for i := range changedInputKeys {

	for i := 0; i <= 64; i++ {
		t.Run(fmt.Sprintf("%d", i), func(t *testing.T) {
			checkScalar(t, big.NewInt(int64(i)).FillBytes(make([]byte, byteLen)))
		})
	}
	// Test N-64...N+64 since they risk overlapping with precomputed table values
	// in the final additions.
	for i := int64(-64); i <= 64; i++ {
		t.Run(fmt.Sprintf("N%+d", i), func(t *testing.T) {
			checkScalar(t, new(big.Int).Add(c.Params().N, big.NewInt(i)).Bytes())
		})
	}

      }
    }
  }

  for (Node* n : post_order) {
    if (nodes_to_partially_decluster.count(n)) {
      TF_RETURN_IF_ERROR(PartiallyDeclusterNode(graph, n));
    }
  }

  // Recompute post order since PartiallyDeclusterNode may have deleted nodes.
  post_order.clear();
  GetPostOrder(*graph, &post_order, /*stable_comparator=*/NodeComparatorName(),
               /*edge_filter=*/NotBackedge);