if (incomingEdges.isEmpty()) {
            return;
        }
        // Cleaning has to be done on a copied collection because of the recompute happening on selector removal
        List<EdgeState> remainingIncomingEdges = ImmutableList.copyOf(incomingEdges);
        clearIncomingEdges();
        for (EdgeState incomingEdge : remainingIncomingEdges) {

		// rounding and fewer than p mantissa bits of precision available
		// (the exponent remains fixed but the mantissa gets shifted right).
		p := mbits + 1 // precision of normal float
		if e < emin {
			// recompute precision
			p = mbits + 1 - emin + int(e)
			// If p == 0, the mantissa of x is shifted so much to the right
			// that its msb falls immediately to the right of the float32

	0x17, 0x2b, 0x04, 0x7e, 0xba, 0x77, 0xd6, 0x26, 0xe1, 0x69, 0x14, 0x63, 0x55, 0x21, 0x0c, 0x7d,
}

// Lookup tables for encryption.
// These can be recomputed by adapting the tests in aes_test.go.

var te0 = [256]uint32{
	0xc66363a5, 0xf87c7c84, 0xee777799, 0xf67b7b8d, 0xfff2f20d, 0xd66b6bbd, 0xde6f6fb1, 0x91c5c554,

				AddRunFunction(func(leaderStop <-chan struct{}) {
					log.Infof("Starting gateway status writer")
					gwc.SetStatusWrite(true, s.statusManager)

					// Trigger a push so we can recompute status
					s.XDSServer.ConfigUpdate(&model.PushRequest{
						Full:   true,
						Reason: model.NewReasonStats(model.GlobalUpdate),
					})
					<-leaderStop
					log.Infof("Stopping gateway status writer")

	choices      []string            // Name Of variables in group
	defaultValue string              // Default value for this field.
}

var (
	configFields []configField // Precomputed metadata per config field

	// configFieldMap holds an entry for every config field as well as an
	// entry for every valid choice for a multi-choice field.
	configFieldMap map[string]configField
)

	//            l0l4 19×l4l4 19×l3l4 19×l2l4 19×l1l4  =
	//           --------------------------------------
	//              r4      r3      r2      r1      r0
	//
	// With precomputed 2×, 19×, and 2×19× terms, we can compute each limb with
	// only three Mul64 and four Add64, instead of five and eight.

	l0_2 := l0 * 2
	l1_2 := l1 * 2

	l1_38 := l1 * 38
	l2_38 := l2 * 38

// stored at an index offset of -1 like in p256Table, and [0]P is not stored.
type p256AffineTable [32]p256AffinePoint

// p256Precomputed is a series of precomputed multiples of G, the canonical
// generator. The first p256AffineTable contains multiples of G. The second one
// multiples of [2⁶]G, the third one of [2¹²]G, and so on, where each successive

				// refill conservatively counted unallocated slots in gcController.heapLive.
				// Undo this.
				//
				// If this span was cached before sweep, then gcController.heapLive was totally
				// recomputed since caching this span, so we don't do this for stale spans.
				dHeapLive -= int64(s.nelems-s.allocCount) * int64(s.elemsize)
			}

			// Release the span to the mcentral.
			mheap_.central[i].mcentral.uncacheSpan(s)

	// should not add new dependencies on module paths that nothing else in the
	// updated module graph even requires.
	//
	// In order to eliminate those spurious dependencies, we recompute the build
	// list with the actual versions of the downgraded modules as selected by MVS,
	// instead of our initial downgrades.
	// (See the downhiddenartifact and downhiddencross test cases).

func (r *tileHashReader) ReadHashes(indexes []int64) ([]Hash, error) {
	h := r.tr.Height()

	tileOrder := make(map[Tile]int) // tileOrder[tileKey(tiles[i])] = i
	var tiles []Tile

	// Plan to fetch tiles necessary to recompute tree hash.
	// If it matches, those tiles are authenticated.
	stx := subTreeIndex(0, r.tree.N, nil)
	stxTileOrder := make([]int, len(stx))
	for i, x := range stx {
		tile, _, _ := tileForIndex(h, x)