// shared between volume package and scheduler

const (
	// EBSVolumeLimitKey resource name that will store volume limits for EBS
	EBSVolumeLimitKey = "attachable-volumes-aws-ebs"
	// EBSNitroLimitRegex finds nitro instance types with different limit than EBS defaults
	EBSNitroLimitRegex = "^[cmr]5.*|t3|z1d"
	// DefaultMaxEBSVolumes is the limit for volumes attached to an instance.

		t.Fatal("leaf shortcut didn't move up to root")
	}

	key1 := make([]byte, 8)
	// set the last bit
	bitSet(key1, 63)
	keys := [][]byte{key0, key1}
	values = [][]byte{defaultLeaf, getFreshData(1)[0]}
	_, err := smt.Update(keys, values)
	assert.NoError(t, err)
}

func bitSet(bits []byte, i int) {
	bits[i/8] |= 1 << uint(7-i%8)
}

func TestSmtRaisesError(t *testing.T) {

  // with different local CPU devices settings.
  bool tf_mlir_enable_multiple_local_cpu_devices;
};

// Flags for the JitRt pipeline -- see tf_jitrt_pipeline.h for details.
struct JitRtFlags {
  bool always_specialize;
  bool cost_driven_async_parallel_for;

  // Enables tracking of the "live" JitRt queries to, on a crash, identify the
  // "query of death". See TfJitRtQueryOfDeathLogger.
  bool log_query_of_death;

    assertTrue(ArbitraryInstances.get(BitSet.class).isEmpty());
    assertTrue(ArbitraryInstances.get(TreeSet.class).isEmpty());
    assertTrue(ArbitraryInstances.get(TreeMap.class).isEmpty());
    assertFreshInstanceReturned(
        LinkedList.class,
        Deque.class,
        Queue.class,
        PriorityQueue.class,
        BitSet.class,
        TreeSet.class,
        TreeMap.class);
  }

		old1 := altBit(z1, i)
		if old != old1 {
			t.Errorf("bitset: inconsistent value for Bit(%s, %d), got %v want %v", z1, i, old, old1)
		}
		z := new(Int).SetBit(z, i, 1)
		z1 := altSetBit(new(Int), z1, i, 1)
		if z.Bit(i) == 0 {
			t.Errorf("bitset: bit %d of %s got 0 want 1", i, x)
		}
		if z.Cmp(z1) != 0 {
			t.Errorf("bitset: inconsistent value after SetBit 1, got %s want %s", z, z1)
		}

	okfor[ir.OOR] = okforand[:]
	okfor[ir.OOROR] = okforbool[:]
	okfor[ir.OSUB] = okforarith[:]
	okfor[ir.OXOR] = okforand[:]
	okfor[ir.OLSH] = okforand[:]
	okfor[ir.ORSH] = okforand[:]

	// unary
	okfor[ir.OBITNOT] = okforand[:]
	okfor[ir.ONEG] = okforarith[:]
	okfor[ir.ONOT] = okforbool[:]
	okfor[ir.OPLUS] = okforarith[:]

	// special
	okfor[ir.OCAP] = okforcap[:]
	okfor[ir.OLEN] = okforlen[:]

  - family-names: Agarwal
    given-names: Ashish
  - family-names: Barham
    given-names: Paul
  - family-names: Brevdo
    given-names: Eugene
  - family-names: Chen
    given-names: Zhifeng
  - family-names: Citro
    given-names: Craig
  - family-names: Corrado
    given-names: Greg S.
  - family-names: Davis
    given-names: Andy
  - family-names: Dean
    given-names: Jeffrey
  - family-names: Devin

		// copying more output.
		keccakF1600(&d.a)
		d.i = 0
		copyOut(d, d.storage[:d.rate])
	}
}

// pads appends the domain separation bits in dsbyte, applies
// the multi-bitrate 10..1 padding rule, and permutes the state.
func (d *state) padAndPermute() {
	// Pad with this instance's domain-separator bits. We know that there's
	// at least one byte of space in d.buf because, if it were full,

	OCALL:             "function call", // not actual syntax
	OCAP:              "cap",
	OCASE:             "case",
	OCLEAR:            "clear",
	OCLOSE:            "close",
	OCOMPLEX:          "complex",
	OBITNOT:           "^",
	OCONTINUE:         "continue",
	OCOPY:             "copy",
	ODELETE:           "delete",
	ODEFER:            "defer",
	ODIV:              "/",
	OEQ:               "==",

          bytes[15], bytes[14], bytes[13], bytes[12], bytes[11], bytes[10], bytes[9], bytes[8]);
    }
  };

  /**
   * Models a lock-free array of bits.
   *
   * <p>We use this instead of java.util.BitSet because we need access to the array of longs and we
   * need compare-and-swap.
   */
  static final class LockFreeBitArray {
    private static final int LONG_ADDRESSABLE_BITS = 6;
    final AtomicLongArray data;