fi

	(cd "${MC_BUILD_DIR}" && go build -o "$WORK_DIR/mc")

	# remove mc source.
	purge "${MC_BUILD_DIR}"

	"${WORK_DIR}/mc" cp --quiet -r "buildscripts/cicd-corpus/" "${WORK_DIR}/cicd-corpus/"

	"${MINIO[@]}" --address ":$start_port" "${WORK_DIR}/cicd-corpus/disk{1...5}" >"${WORK_DIR}/server1.log" 2>&1 &
	pid=$!
	disown $pid
	sleep 5

	if ! ps -p ${pid} 1>&2 >/dev/null; then
		echo "server1 log:"

[!fuzz] skip
[short] skip
env GOCACHE=$WORK/cache

# This test checks that cached corpus loading properly handles duplicate entries (this can
# happen when a f.Add value has a duplicate entry in the cached corpus.) Duplicate entries
# should be discarded, and the rest of the cache should be loaded as normal.

env GOCACHE=$WORK/cache
env GODEBUG=fuzzdebug=1

mkdir -p $GOCACHE/fuzz/fuzztest/FuzzTarget
go run ./populate $GOCACHE/fuzz/fuzztest/FuzzTarget

# of the mutator finding a crash while fuzzing, adding it as a regression test
# to the seed corpus in testdata, and failing the next time the test is run.

[short] skip
env GOCACHE=$WORK/cache

# Running the seed corpus for all of the targets should pass the first
# time, since nothing in the seed corpus will cause a crash.
go test

# Running the fuzzer should find a crashing input quickly.

# by 'go test', so we can't distinguish that crasher from some other panic.
! go test -run=FuzzMutate -fuzz=FuzzMutate
exists testdata/fuzz/FuzzMutate

# Testdata should now contain a corpus entry which will fail FuzzMutate.
# Run the test without fuzzing, setting -parallel to different values to make
# sure it fails, and doesn't hang.
! go test -run=FuzzMutate -parallel=1
! go test -run=FuzzMutate -parallel=2

! go test -run=FuzzTargetGoexit
stdout cleanup

# Cleanup should run after panic.
! go test -run=FuzzTargetPanic
stdout cleanup

# Cleanup should run in fuzz function on seed corpus.
go test -v -run=FuzzFunction
stdout '(?s)inner.*outer'

# TODO(jayconrod): test cleanup while fuzzing. For now, the worker process's
# stdout and stderr is connected to the coordinator's, but it should eventually

				os.Exit(1)
			}
		}
		if !containsVal {
			fmt.Fprintln(os.Stderr, "corpus file contained no values")
			os.Exit(1)
		}
	}
}

var valRe = regexp.MustCompile(`^\[\]byte\(([^)]+)\)$`)

-- check_cache/check_cache.go --
//go:build ignore
// +build ignore

// check_cache.go checks that each file in the cached corpus has a []byte

go clean -fuzzcache
! exists $GOCACHE/fuzz
go build -x ./empty
! stderr '(compile|gccgo)( |\.exe).*empty.go'

# Fuzzing indicates that one new interesting value was found with an empty
# corpus, and the total size of the cache is now 1.
go clean -fuzzcache
go test -fuzz=FuzzEmpty -fuzztime=10000x .
stdout 'new interesting: 1'
stdout 'total: 1'

are not marked with `//go:linkname` on their definitions.
Similarly, the linker disallows references to such symbols from assembly
code.
For backward compatibility, existing usages of `//go:linkname` found in
a large open-source code corpus remain supported.
Any new references to standard library internal symbols will be disallowed.

A linker command line flag `-checklinkname=0` can be used to disable
this check, for debugging and experimenting purposes.

				return
			}
			if err != nil {
				t.Fatalf("unmarshal unexpected error: %v", err)
			}
			newB := marshalCorpusFile(vals...)
			if newB[len(newB)-1] != '\n' {
				t.Error("didn't write final newline to corpus file")
			}

			want := test.want
			if want == "" {
				want = test.in
			}
			want += "\n"
			got := string(newB)
			if got != want {

	return func(collect func(string)) {
		for i := 0; i <= max; i++ {
			genRepeat(i, g)(collect)
		}
	}
}

func BenchmarkMultiConflicts(b *testing.B) {
	// How fast is indexing if the corpus is all multis?
	const nMultis = 1000
	var pats []*pattern
	for i := 0; i < nMultis; i++ {
		pats = append(pats, mustParsePattern(b, fmt.Sprintf("/a/b/{x}/d%d/", i)))
	}
	b.ResetTimer()