}
			}

			match = true
			if dest.Weight > 0 {
				fact := fmt.Sprintf("Route to host \"%s\"", dest.Destination.Host)
				if dest.Destination.Subset != "" {
					fact = fmt.Sprintf("%s subset \"%s\"", fact, dest.Destination.Subset)
				}
				fact = fmt.Sprintf("%s with weight %d%%", fact, dest.Weight)
				facts = append(facts, fact)
			}

			r = reverseBits[r]
		}

		p := pair{v, w, d}
		oldR, ok := ft.facts[p]
		if !ok {
			if v == w {
				oldR = eq
			} else {
				oldR = lt | eq | gt
			}
		}
		// No changes compared to information already in facts table.
		if oldR == r {
			return
		}
		ft.stack = append(ft.stack, fact{p, oldR})
		ft.facts[p] = oldR & r
		// If this relation is not satisfiable, mark it and exit right away

	{abcd, "", -1, []string{"a", "b", "c", "d"}},
	{commas, ",", -1, []string{"1,", "2,", "3,", "4"}},
	{dots, "...", -1, []string{"1...", ".2...", ".3...", ".4"}},
	{faces, "☹", -1, []string{"☺☻☹", ""}},
	{faces, "~", -1, []string{faces}},
	{faces, "", -1, []string{"☺", "☻", "☹"}},
	{"1 2 3 4", " ", 3, []string{"1 ", "2 ", "3 4"}},
	{"1 2 3", " ", 3, []string{"1 ", "2 ", "3"}},
	{"1 2", " ", 3, []string{"1 ", "2"}},

	{abcd, "", -1, []string{"a", "b", "c", "d"}},
	{commas, ",", -1, []string{"1", "2", "3", "4"}},
	{dots, "...", -1, []string{"1", ".2", ".3", ".4"}},
	{faces, "☹", -1, []string{"☺☻", ""}},
	{faces, "~", -1, []string{faces}},
	{faces, "", -1, []string{"☺", "☻", "☹"}},
	{"1 2 3 4", " ", 3, []string{"1", "2", "3 4"}},
	{"1 2", " ", 3, []string{"1", "2"}},
	{"123", "", 2, []string{"1", "23"}},

	}
	*out = uint64(hi)<<32 | uint64(lo)
	return true
}

// readUint8LengthPrefixed acts like s.ReadUint8LengthPrefixed, but targets a
// []byte instead of a cryptobyte.String.
func readUint8LengthPrefixed(s *cryptobyte.String, out *[]byte) bool {
	return s.ReadUint8LengthPrefixed((*cryptobyte.String)(out))
}

// readUint16LengthPrefixed acts like s.ReadUint16LengthPrefixed, but targets a
// []byte instead of a cryptobyte.String.

    // candidate and we stop clustering when it hits zero.  This means the
    // initial value for this variable (via --tf_xla_clustering_fuel=N)
    // effectively acts as a "cap" for how much we cluster and we can bisect
    // over this initial value to discover clustering decisions that cause a
    // miscompile or a performance regression.
    std::atomic<int64_t>* fuel;

		// aka MIPS_FPABI_ANY. If we mark the object as FPXX, the kernel may use FR=1 mode,
		// then we meet some problem.
		// Note: MIPS_FPABI_ANY is bad naming: in fact it is MIPS I style FPR usage.
		//       It is not for 'ANY'.
		// TODO: switch to FPXX after be sure that no odd-number-fpr is used.
		ctxt.Out.Write8(MIPS_FPABI_ANY) // fpAbi
	}
	ctxt.Out.Write32(0) // isaExt

        // We also need to add the implicit capability if it was seen before as an explicit
        // capability in order to detect the conflict between the two.
        // Note that the fact that the implicit capability is not included in other cases
        // is not a bug but a performance optimization.

		}
		return i, pallocChunkPages - 1
	}
	// Clear searchAddr, because we've exhausted the heap.
	cursor.Clear()
	return 0, 0
}

// alloc updates metadata for chunk at index ci with the fact that
// an allocation of npages occurred. It also eagerly attempts to collapse
// the chunk's memory into hugepage if the chunk has become sufficiently
// dense and we're not allocating the whole chunk at once (which suggests

	"internal/bytealg"
	"internal/goarch"
	"internal/stringslite"
	"runtime/internal/sys"
	"unsafe"
)

// The code in this file implements stack trace walking for all architectures.
// The most important fact about a given architecture is whether it uses a link register.
// On systems with link registers, the prologue for a non-leaf function stores the
// incoming value of LR at the bottom of the newly allocated stack frame.