LDORLB	R5, (R6), R7                         // c7306538
	LDORLB	R5, (RSP), R7                        // e7336538
	CASD	R1, (R2), ZR                         // 5f7ca1c8
	CASW	R1, (RSP), ZR                        // ff7fa188
	CASB	ZR, (R5), R3                         // a37cbf08
	CASH	R3, (RSP), ZR                        // ff7fa348
	CASW	R5, (R7), R6                         // e67ca588
	CASLD	ZR, (RSP), R8                        // e8ffbfc8

// available in cmd/internal/obj/ppc64/asm9.go with
// their valid instruction encodings.

#include "../../../../../runtime/textflag.h"

// In case of index mode instructions, usage of
// (Rx)(R0) is equivalent to (Rx+R0)
// In case of base+displacement mode instructions if
// the offset is 0, usage of (Rx) is equivalent to 0(Rx)
TEXT asmtest(SB),DUPOK|NOSPLIT,$0
	// move constants

        if (type3.isMICRequired()) {
            assertNotNull(type3.getMic());
            assertEquals(16, type3.getMic().length); // MIC is 16 bytes
        }
    }

    @Test
    @DisplayName("Should handle case sensitivity correctly")
    void testCaseSensitivity() throws Exception {
        // Given
        Type2Message type2 = createMockType2Message();
        String mixedCaseDomain = "TestDomain";

        // Read in chunks
        byte[] buffer = new byte[10];

        // The read will either:
        // 1. Successfully read all 5 bytes
        // 2. Throw IOException if it tries to read past the message
        try {
            int read = sis.read(buffer, 0, 10);

            // Should read all 5 available bytes
            assertEquals(5, read);

            // Verify correct data

		partNumString := strconv.Itoa(testCase.partNum)
		fi.AddObjectPart(testCase.partNum, "etag."+partNumString, int64(testCase.partNum+humanize.MiByte), ActualSize, UTCNow(), nil, nil)
	}

	// Add failure test case.
	testCases = append(testCases, struct {
		partNum       int
		expectedIndex int
	}{6, -1})

	// Test them.
	for _, testCase := range testCases {

		} else {
			preparedStmt = NewPreparedStmtDB(db.ConnPool, db.PrepareStmtMaxSize, db.PrepareStmtTTL)
			db.cacheStore.Store(preparedStmtDBKey, preparedStmt)
		}

		switch t := tx.Statement.ConnPool.(type) {
		case Tx:
			tx.Statement.ConnPool = &PreparedStmtTX{
				Tx:             t,
				PreparedStmtDB: preparedStmt,
			}
		default:
			tx.Statement.ConnPool = &PreparedStmtDB{
				ConnPool: db.Config.ConnPool,

            current = current.getCause();
        }
        return buf.toString();
    }

    /**
     * Checks if a checkbox value represents an enabled state.
     * This method considers "on" and "true" (case-insensitive) as enabled values.
     *
     * @param value the checkbox value to check
     * @return true if the value represents an enabled checkbox, false otherwise
     */

    @Override
    public SID getDomainSid() {
        return new SID(this, SID_TYPE_DOMAIN, this.domainName, null, getType() != SID_TYPE_DOMAIN);
    }

    /**
     * Get the RID
     *
     * This is the last subauthority identifier
     *
     * @return the RID
     */
    @Override
    public int getRid() {
        if (getType() == SID_TYPE_DOMAIN) {

///

## Hashing de senhas

"Hashing" significa converter algum conteúdo (uma senha neste caso) em uma sequência de bytes (apenas uma string) que parece um monte de caracteres sem sentido.

Sempre que você passar exatamente o mesmo conteúdo (exatamente a mesma senha), você obterá exatamente o mesmo resultado.

            String result = notification.toString();
            assertTrue(result.contains("oplockLevel=" + oplockLevel));
        }
    }

    @Nested
    @DisplayName("Edge Case Tests")
    class EdgeCaseTests {

        @Test
        @DisplayName("Should handle minimum valid buffer size")
        void testMinimumBufferSize() throws Exception {