},
		{
			callbacks: []callback{{h: c1, before: "c4", after: "c3"}, {h: c2, before: "c4", after: "c5"}, {h: c3, before: "c5"}, {h: c4}, {h: c5}},
			results:   []string{"c3", "c1", "c5", "c2", "c4"},
		},
		{
			callbacks: []callback{{h: c1, before: "c3", after: "c4"}, {h: c2, before: "c4", after: "c5"}, {h: c3, before: "c5"}, {h: c4}, {h: c5}},
			err:       "conflicting",
		},
		{

to the remote tier in entirety, leaving only the object metadata on MinIO.

The data on the backend is stored under the `bucket/prefix` specified in the tier configuration with a custom name derived from a randomly generated uuid - e.g. `0b/c4/0bc4fab7-2daf-4d2f-8e39-5c6c6fb7e2d3`. The first two prefixes are characters 1-2,3-4 from the uuid. This format allows tiering to any cloud irrespective of whether the cloud in question supports versioning. The reference to the transitioned object name...

		Address:         &EmbeddedAddress{Name: "a3", Country: &Country{Name: "c3"}},
		NestedAddress: NestedAddress{
			EmbeddedAddress: EmbeddedAddress{Name: "a4", Country: &Country{Name: "c4"}},
		},
	}
	if err := DB.Create(&org).Error; err != nil {
		t.Errorf("failed to create org, got err: %v", err)
	}

	tests := []struct {
		name     string
		preloads map[string][]interface{}

  public void testTryParseHex() {
    for (String signChar : ImmutableList.of("", "+", "-")) {
      for (String hexPrefix : ImmutableList.of("0x", "0X")) {
        for (String iPart : ImmutableList.of("", "0", "1", "F", "f", "c4", "CE")) {
          for (String fPart : ImmutableList.of("", ".", ".F", ".52", ".a")) {
            for (String expMarker : ImmutableList.of("p", "P")) {

<pre>
var a []int
var c, c1, c2, c3, c4 chan int
var i1, i2 int
select {
case i1 = &lt;-c1:
	print("received ", i1, " from c1\n")
case c2 &lt;- i2:
	print("sent ", i2, " to c2\n")
case i3, ok := (&lt;-c3):  // same as: i3, ok := &lt;-c3
	if ok {
		print("received ", i3, " from c3\n")
	} else {
		print("c3 is closed\n")
	}
case a[f()] = &lt;-c4:
	// same as:
	// case t := &lt;-c4

Moreover, the top coefficient (r4) is at most 107 bits, so c4 is at most // 56 bits, and c4 * 19 is at most 61 bits, which again fits in a uint64 and // allows us to easily apply the reduction identity. // // r4 = a0×b4 + a1×b3 + a2×b2 + a3×b1 + a4×b0 // r4 < 5 × 2⁵² × 2⁵² // r4 < 2¹⁰⁷ // c0 := shiftRightBy51(r0) c1 := shiftRightBy51(r1) c2 := shiftRightBy51(r2) c3 := shiftRightBy51(r3) c4 := shiftRightBy51(r4) rr0 := r0.lo&maskLow51Bits + mul19(c4) rr1 := r1.lo&maskLow51Bits + c0 rr2 := r2.lo&maskLow51Bits...