case TIME_1970_SEC_32BE -> enc_uint32be((int) (date.getTime() / 1000L), dst, di);
        case TIME_1970_SEC_32LE -> enc_uint32le((int) (date.getTime() / 1000L), dst, di);
        case TIME_1904_SEC_32BE -> enc_uint32be((int) (date.getTime() / 1000L + SEC_BETWEEEN_1904_AND_1970 & 0xFFFFFFFF), dst, di);
        case TIME_1904_SEC_32LE -> enc_uint32le((int) (date.getTime() / 1000L + SEC_BETWEEEN_1904_AND_1970 & 0xFFFFFFFF), dst, di);

        assertEquals(0, new BigDecimal("1.23E-10").compareTo(BigDecimalConversionUtil.toBigDecimal(Double.valueOf(0.000000000123))));

        assertEquals(0, new BigDecimal("100.00").compareTo(BigDecimalConversionUtil.toBigDecimal("100.00")));
        assertEquals(0, new BigDecimal("0.000000123").compareTo(BigDecimalConversionUtil.toBigDecimal("1.23E-7")));

)

type warmBackendMinIO struct {
	warmBackendS3
}

var _ WarmBackend = (*warmBackendMinIO)(nil)

const (
	maxMultipartPutObjectSize = 1024 * 1024 * 1024 * 1024 * 5
	maxPartsCount             = 10000
	maxPartSize               = 1024 * 1024 * 1024 * 5
	minPartSize               = 1024 * 1024 * 128 // chosen by us to be optimal for HDDs
)

// optimalPartInfo - calculate the optimal part info for a given
// object size.

    HashTestUtils.checkAvalanche(Hashing.md5(), 100, 0.4);
    HashTestUtils.checkNo2BitCharacteristics(Hashing.md5());
    HashTestUtils.checkNoFunnels(Hashing.md5());
    HashTestUtils.assertInvariants(Hashing.md5());
    assertEquals("Hashing.md5()", Hashing.md5().toString());
  }

  public void testSha1() {
    HashTestUtils.checkAvalanche(Hashing.sha1(), 100, 0.4);
    HashTestUtils.checkNo2BitCharacteristics(Hashing.sha1());

        response.setCommand(command);
        assertEquals(command, response.getCommand());

        // Test other setter methods
        doNothing().when(response).setUid(1000);
        response.setUid(1000);
        verify(response).setUid(1000);

        doNothing().when(response).setExtendedSecurity(true);
        response.setExtendedSecurity(true);
        verify(response).setExtendedSecurity(true);

		t.Errorf("expected : %s, got : %s", expectedSource, gotSource)
	}
}

// Test lock race
func TestNSLockRace(t *testing.T) {
	t.Skip("long test skip it")

	ctx := t.Context()

	for i := range 10000 {
		nsLk := newNSLock(false)

		// lk1; ref=1
		if !nsLk.lock(ctx, "volume", "path", "source", "opsID", false, time.Second) {
			t.Fatal("failed to acquire lock")
		}

		// lk2
		lk2ch := make(chan struct{})

        if (timeout100Ns == 0) {
            return 0; // Persistent handles
        }
        // Convert from 100-nanosecond intervals to milliseconds
        // 1 ms = 10,000 * 100ns intervals
        return timeout100Ns / 10000L;
    }

    /**
     * Get the flags
     * @return the flags
     */
    public int getFlags() {
        return flags;
    }

    /**

        "box-shadow":
          "0 1px 1px 0px rgba(0, 0, 0, 0.1), 0 3px 2px 0px rgba(82, 168, 236, 0.2)",
        "background-color": "#fff",
        "z-index": "10000"
      },
      listSelectedCssInfo: {
        "background-color": "rgba(82, 168, 236, 0.1)"
      },
      listDeselectedCssInfo: {
        "background-color": "#ffffff"
      },
      minterm: 1,

        // Heartbeat interval (64-bit, in 100-nanosecond intervals)
        // Convert from FILETIME intervals to milliseconds
        long filetimeInterval = buf.dec_ndr_hyper();
        heartbeatInterval = filetimeInterval / 10000; // Convert to milliseconds
    }

            public String getFesenPassword() {
                return password;
            }

            @Override
            public long getFesenHeartbeatInterval() {
                return 10000L;
            }

            @Override
            public String getFesenHttpUrl() {
                return fesenUrl;
            }

            @Override