}
		}
	}

	// Formulating the result data set to be expected from ListObjects call inside the tests,
	// This will be used in testCases and used for asserting the correctness of ListObjects output in the tests.

	resultCases := []ListObjectsInfo{
		{
			IsTruncated: false,
			Prefixes:    []string{"unique/folder/"},
		},
		{
			IsTruncated: false,
			Objects: []ObjectInfo{

		}
	}
}

var long = flag.Bool("long", false, "run very long tests")

// TestFloatQuoSmoke tests all divisions x/y for values x, y in the range [-n, +n];
// it serves as a smoke test for basic correctness of division.
func TestFloatQuoSmoke(t *testing.T) {
	n := 10
	if *long {
		n = 1000
	}

	const dprec = 3         // max. precision variation

func TestObjectAPIPutObjectPart(t *testing.T) {
	ExecExtendedObjectLayerTest(t, testObjectAPIPutObjectPart)
}

// Tests validate correctness of PutObjectPart.
func testObjectAPIPutObjectPart(obj ObjectLayer, instanceType string, t TestErrHandler) {
	// Generating cases for which the PutObjectPart fails.
	bucket := "minio-bucket"
	object := "minio-object"

=== Adopting changes in the configuration cache behavior

Gradle releases bring enhancements to the configuration cache, making it detect more cases of configuration logic interacting with the environment.
Those changes improve the correctness of the cache by eliminating potential false cache hits.
On the other hand, they impose stricter rules that plugins and build logic need to follow to be cached as often as possible.

# PYCPP TESTS run a suite of Python and C++ tests to verify general correctness over
# the whole TF code base. These are usually run continuously or upon presubmit.
# CPU PYCPP:
test:linux_cpu_pycpp_test_filters --test_tag_filters=-no_oss,-oss_excluded,-oss_serial,-gpu,-tpu,-benchmark-test,-v1only

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

	// there is never more than that many arguments for a single line.
	// Note that even if we go over 64, it will still be correct - it
	// is just for efficiency, not correctness.
	args := make([]string, 64)

	// Compute total number of endpoint chains across all services
	// to get a sense of how big the cluster is.
	totalEndpoints := 0
	for svcName := range proxier.svcPortMap {

	// oblet, in which case we compute the size to scan below.
	s := spanOfUnchecked(b)
	n := s.elemsize
	if n == 0 {
		throw("scanobject n == 0")
	}
	if s.spanclass.noscan() {
		// Correctness-wise this is ok, but it's inefficient
		// if noscan objects reach here.
		throw("scanobject of a noscan object")
	}

	var tp typePointers
	if n > maxObletBytes {

				goto Error
			}
		}
		x.setConst(e.Kind, e.Value)
		if x.mode == invalid {
			// The parser already establishes syntactic correctness.
			// If we reach here it's because of number under-/overflow.
			// TODO(gri) setConst (and in turn the go/constant package)
			// should return an error describing the issue.

	//
	// Complex subexpressions (e.g. involving quantifiers)
	// are not safe to factor because that collapses their
	// distinct paths through the automaton, which affects
	// correctness in some cases.
	start = 0
	out = sub[:0]
	var first *Regexp
	for i := 0; i <= len(sub); i++ {
		// Invariant: the Regexps that were in sub[0:start] have been