default:
		// Search for rune r using the last byte of its UTF-8 encoded form.
		// The distribution of the last byte is more uniform compared to the
		// first byte which has a 78% chance of being [240, 243, 244].
		var b [utf8.UTFMax]byte
		n := utf8.EncodeRune(b[:], r)
		last := n - 1
		i := last
		fails := 0
		for i < len(s) {
			if s[i] != b[last] {
				o := IndexByte(s[i+1:], b[last])
				if o < 0 {
					return -1

	b := make([]byte, 0, len(s))
	for _, c := range s {
		if c < 0x80 && c != 0x00 {
			b = append(b, byte(c))
		}
	}
	return string(b)
}

type parser struct {
	err error // Last error seen
}

type formatter struct {
	err error // Last error seen
}

// parseString parses bytes as a NUL-terminated C-style string.
// If a NUL byte is not found then the whole slice is returned as a string.

	buf          []byte
	rd           io.Reader // reader provided by the client
	r, w         int       // buf read and write positions
	err          error
	lastByte     int // last byte read for UnreadByte; -1 means invalid
	lastRuneSize int // size of last rune read for UnreadRune; -1 means invalid
}

const minReadBufferSize = 16
const maxConsecutiveEmptyReads = 100

			if result.Pets[i-1].Name > result.Pets[i].Name {
				t.Fatalf("Preload user %v pets not ordered correctly, last %v, cur %v", result.Name, result.Pets[i-1], result.Pets[i])
			}
		}
		for i := 1; i < len(result.Pets); i++ {
			if result.Pets[i-1].Name > result.Pets[i].Name {
				t.Fatalf("Preload user %v friends not ordered correctly, last %v, cur %v", result.Name, result.Pets[i-1], result.Pets[i])
			}
		}
	}
}

}

func (g execG[T]) Scan(ctx context.Context, result interface{}) error {
	var r T
	err := g.g.apply(ctx).Model(r).Find(result).Error
	return err
}

func (g execG[T]) Last(ctx context.Context) (T, error) {
	var r T
	err := g.g.apply(ctx).Last(&r).Error
	return r, err
}

func (g execG[T]) Take(ctx context.Context) (T, error) {
	var r T
	err := g.g.apply(ctx).Take(&r).Error
	return r, err
}

        assertEquals("middle", rules.get(1).getRuleId());
        assertEquals("rule2", rules.get(2).getRuleId());
    }

    /**
     * Test register method with last index
     */
    public void test_register_lastIndex() {
        testRule.setRuleId("lastRule");

        // Pre-add some rules
        TestAbstractRule rule1 = new TestAbstractRule();

	RebalancedBuckets []string      `json:"rebalancedBuckets" msg:"rbs"` // buckets rebalanced
	Bucket            string        `json:"bucket" msg:"bu"`             // Last rebalanced bucket
	Object            string        `json:"object" msg:"ob"`             // Last rebalanced object
	NumObjects        uint64        `json:"numObjects" msg:"no"`         // Number of objects rebalanced

        assertEquals(2, rules.size());
        assertEquals("rule2", rules.get(0).getRuleId());
        assertEquals("rule1", rules.get(1).getRuleId());
    }

    /**
     * Test adding rule at last index
     */
    public void test_addRule_atLastIndex() {
        TestRule rule1 = new TestRule("rule1", true);
        TestRule rule2 = new TestRule("rule2", false);
        TestRule rule3 = new TestRule("rule3", true);

            assertNotNull(currentResult);
            assertEquals(transformer.getName(), currentResult.getTransformerName());
        }

        // Final result should be from last transformer
        assertEquals("third", currentResult.getTransformerName());
    }

    /**
     * Test null name handling
     */
    public void test_nullNameHandling() {

						ExpETag:    "<nil>",
						GotETag:    err.Error(),
					}
				}
			}
			checksumCombined = append(checksumCombined, cs.Raw...)
		}

		// All parts except the last part has to be at least 5MB.
		if (i < len(parts)-1) && !isMinAllowedPartSize(currentFI.Parts[partIdx].ActualSize) {
			return oi, PartTooSmall{
				PartNumber: part.PartNumber,
				PartSize:   expPart.ActualSize,