lastSegStart = i
		case ssOverflow:
			return lastSegStart, false
		case ssSuccess:
			if lastCC > info.ccc {
				return lastSegStart, false
			}
		}
		if f.composing {
			if !info.isYesC() {
				break
			}
		} else {
			if !info.isYesD() {
				break
			}
		}
		lastCC = info.ccc
		i += int(info.size)
	}
	if i == n {
		if !atEOF {
			n = lastSegStart
		}
		return n, true

			lastSegStart = i
		case ssOverflow:
			return lastSegStart, false
		case ssSuccess:
			if lastCC > info.ccc {
				return lastSegStart, false
			}
		}
		if f.composing {
			if !info.isYesC() {
				break
			}
		} else {
			if !info.isYesD() {
				break
			}
		}
		lastCC = info.ccc
		i += int(info.size)
	}
	if i == n {
		if !atEOF {
			n = lastSegStart
		}
		return n, true

		},

		{
			desc:         "valid: 7 search paths",
			hostNames:    []string{"testNS.svc.TEST", "svc.TEST", "TEST", "AAA", "BBB", "CCC", "DDD"},
			resultSearch: []string{"testNS.svc.TEST", "svc.TEST", "TEST", "AAA", "BBB", "CCC", "DDD"},
			events:       []string{},
		},

		{
			desc:         "valid: 32 search paths",

    assertThat(publicSuffixDatabase.getEffectiveTldPlusOne("aaa")).isNull()
    assertThat(publicSuffixDatabase.getEffectiveTldPlusOne("ggg")).isNull()
    assertThat(publicSuffixDatabase.getEffectiveTldPlusOne("ccc")).isNull()
    assertThat(publicSuffixDatabase.getEffectiveTldPlusOne("eee")).isNull()
  }

  @Test fun exceptionRule() {
    val exception =
      Buffer()
        .writeUtf8("my.square.jp\n")
    val buffer =

E	abaa|abbaa|abbbaa|abbbbaa	ababbabbbabbbabbbbabbbbaa	(18,25)
E	abaa|abbaa|abbbaa|abbbbaa	ababbabbbabbbabbbbabaa	(18,22)
E	aaac|aabc|abac|abbc|baac|babc|bbac|bbbc	baaabbbabac	(7,11)
BE$	.*			\x01\xff	(0,2)
E	aaaa|bbbb|cccc|ddddd|eeeeee|fffffff|gggg|hhhh|iiiii|jjjjj|kkkkk|llll		XaaaXbbbXcccXdddXeeeXfffXgggXhhhXiiiXjjjXkkkXlllXcbaXaaaa	(53,57)

		if !DB.Migrator().HasTable(m) {
			t.Fatalf("Failed to create table for %#v", m)
		}
	}

	DB.Scopes(func(db *gorm.DB) *gorm.DB {
		return db.Table("ccc")
	}).Migrator().CreateTable(&Company{})

	if !DB.Migrator().HasTable("ccc") {
		t.Errorf("failed to create table ccc")
	}

	for _, indexes := range [][2]string{
		{"user_speaks", "fk_user_speaks_user"},
		{"user_speaks", "fk_user_speaks_language"},

    width:315px;
    top:0;
    left:0;
    height:30%;
    border-right:6px solid #ccc;
    border-bottom:6px solid #ccc;
}
.leftBottom {
    position:relative;
    float:left;
    width:315px;
    bottom:0;
    left:0;
    height:70%;
    border-right:6px solid #ccc;
    border-top:1px solid #000;
}
.rightContainer {
    position:absolute;
    left:320px;

		testCase{inc, "brad", "csbe"},
		testCase{inc, "\x00\xff", "\x01\x00"},
		testCase{inc, "", ""},

		testCase{NewReplacer("a", "1", "a", "2"), "brad", "br1d"},
	)

	// repeat maps "a"->"a", "b"->"bb", "c"->"ccc", ...
	s = nil
	for i := 0; i < 256; i++ {
		n := i + 1 - 'a'
		if n < 1 {
			n = 1
		}
		s = append(s, str(byte(i)), Repeat(str(byte(i)), n))
	}
	repeat := NewReplacer(s...)

// forms a cell but that cell is not part of an aligned column.
// For instance, in this example (where | stands for a horizontal tab):
//
//	aaaa|bbb|d
//	aa  |b  |dd
//	a   |
//	aa  |cccc|eee
//
// the b and c are in distinct columns (the b column is not contiguous
// all the way). The d and e are not in a column at all (there's no
// terminating tab, nor would the column be contiguous).
//

			pod: st.MakePod().Name("anaffi-antiaffiti").PodAffinityExists("aaa", "hostname", st.PodAffinityWithRequiredReq).
				PodAffinityExists("ccc", "hostname", st.PodAffinityWithRequiredReq).
				PodAntiAffinityExists("aaa", "hostname", st.PodAntiAffinityWithRequiredReq).
				PodAntiAffinityExists("ccc", "hostname", st.PodAntiAffinityWithRequiredReq).Obj(),
			wantAffinityPodsMap: make(topologyToMatchedTermCount),