if err := DB.AutoMigrate(&Profile{}, &Member{}); err != nil {
		t.Fatalf("Failed to migrate, got error: %v", err)
	}

	member := Member{Refer: 1, Name: "foreign_key_constraints", Profile: Profile{Name: "my_profile"}}

	DB.Create(&member)

	var profile Profile
	if err := DB.First(&profile, "id = ?", member.Profile.ID).Error; err != nil {
		t.Fatalf("failed to find profile, got error: %v", err)

	if *cpuProfile != "" {
		pprof.StopCPUProfile() // flushes profile to disk
	}
	if *memProfile != "" {
		f, err := os.Create(*memProfile)
		if err != nil {
			fmt.Fprintf(os.Stderr, "testing: %s", err)
			return
		}
		if err = pprof.WriteHeapProfile(f); err != nil {
			fmt.Fprintf(os.Stderr, "testing: can't write %s: %s", *memProfile, err)
		}
		f.Close()
	}
}

var timer *time.Timer

	flagRandLayout    = flag.Int64("randlayout", 0, "randomize function layout")
	cpuprofile        = flag.String("cpuprofile", "", "write cpu profile to `file`")
	memprofile        = flag.String("memprofile", "", "write memory profile to `file`")
	memprofilerate    = flag.Int64("memprofilerate", 0, "set runtime.MemProfileRate to `rate`")

		},
		{
			"with_memprofile",
			`
package main
import "runtime"
func main() {
	runtime.MemProfile(nil, false)
	println(runtime.MemProfileRate)
}
`,
			"524288",
		},
		{
			"with_memprofile_indirect",
			`
package main
import "runtime"
var f = runtime.MemProfile
func main() {
	if f == nil {
		panic("no f")
	}
	println(runtime.MemProfileRate)
}
`,

// memory profiles to cpu.prof and mem.prof:
//
//	go test -cpuprofile cpu.prof -memprofile mem.prof -bench .
//
// To add equivalent profiling support to a standalone program, add
// code like the following to your main function:
//
//	var cpuprofile = flag.String("cpuprofile", "", "write cpu profile to `file`")
//	var memprofile = flag.String("memprofile", "", "write memory profile to `file`")
//
//	func main() {
//	    flag.Parse()

			buf.WriteString(a.regnames[i])
		}
		r >>= 1
	}
	return buf.String()
}

var archs []arch

var cpuprofile = flag.String("cpuprofile", "", "write cpu profile to `file`")
var memprofile = flag.String("memprofile", "", "write memory profile to `file`")
var tracefile = flag.String("trace", "", "write trace to `file`")

func main() {
	flag.Parse()
	if *cpuprofile != "" {
		f, err := os.Create(*cpuprofile)

  //
  // (1) input tensors of that operation,
  // (2) output tensors of that operation,
  // (3) output tensors of preceding operations that are input tensors
  //     of subsequent operations.
  using MemProfile = std::vector<SizeT>;

  // Used for specifying memory consumption at a certain operation in the
  // computational graph.
  struct MemSpec {
    int op_index;  // The index of the operation

	cf.BoolVar(&testFailFast, "failfast", false, "")
	cf.StringVar(&testFuzz, "fuzz", "", "")
	cf.Bool("fullpath", false, "")
	cf.StringVar(&testList, "list", "", "")
	cf.StringVar(&testMemProfile, "memprofile", "", "")
	cf.String("memprofilerate", "", "")
	cf.StringVar(&testMutexProfile, "mutexprofile", "", "")
	cf.String("mutexprofilefraction", "", "")
	cf.Var(&testOutputDir, "outputdir", "")
	cf.Int("parallel", 0, "")

            [&](int i) { return i >= remat.insert; }));
      }
    }
  }
  std::sort(deltas.begin(), deltas.end(), ByOpIndex);
  return deltas;
}

Rematerializer::MemProfile Rematerializer::GetMemProfile(
    const RematSpec& remat) const {
  const auto num_inserted = remat.end - remat.begin;
  std::vector<SizeT> profile(operations_.size() + num_inserted);

		// Don't report {single,multi}checker debugging
		// flags or fix as these have no effect on unitchecker
		// (as invoked by 'go vet').
		switch f.Name {
		case "debug", "cpuprofile", "memprofile", "trace", "fix":
			return
		}

		b, ok := f.Value.(interface{ IsBoolFlag() bool })
		isBool := ok && b.IsBoolFlag()
		flags = append(flags, jsonFlag{f.Name, isBool, f.Usage})
	})