{"R7", "R7"},
	{"R8", "R8"},
	{"R9", "R9"},
	{"R10", "R10"},
	{"R11", "R11"},
	{"R12", "R12"},
	// {"R13", "R13"}, R13 is g
	{"R14", "R14"},
	{"R15", "R15"},
	{"F0", "F0"},
	{"F1", "F1"},
	{"F2", "F2"},
	{"F3", "F3"},
	{"F4", "F4"},
	{"F5", "F5"},
	{"F6", "F6"},
	{"F7", "F7"},
	{"F8", "F8"},
	{"F9", "F9"},
	{"F10", "F10"},
	{"F11", "F11"},
	{"F12", "F12"},

0000070 2e 4c 6e a5 60 45 02 62 81 95 b6 94 9e 9e 77 e7
0000080 d0 43 b6 f8 71 df 96 3c e7 a4 69 ce bf cf e9 79
0000090 ce ef 79 3f bf f1 31 db b6 bb 31 76 92 e7 f3 07
00000a0 8b fc 9c ca cc 08 cc cb cc 5e d2 1c 88 d9 7e bb
00000b0 4f bb 3a 3f 75 f1 5d 7f 8f c2 68 67 77 8f 25 ff
00000c0 84 e2 93 2d ef a4 95 3d 71 4e 2c b9 b0 87 c3 be
00000d0 3d f8 a7 60 24 61 c5 ef ae 9e c8 6c 6d 4e 69 c8

	LDP.W	8(R3), (R2, R3)                                  // ERROR "constrained unpredictable behavior"
	LDP	(R1), (R2, R2)                                   // ERROR "constrained unpredictable behavior"
	LDP	(R0), (F0, F1)                                   // ERROR "invalid register pair"
	LDXPW	(RSP), (R2, R2)                                  // ERROR "constrained unpredictable behavior"

  EXPECT_EQ(op_def.output_arg_size(), 1);
  EXPECT_TRUE(op_def.is_stateful());

  TF_DeleteBuffer(buffer);
}

void AssertEqual(TF_Function* f1, TF_Function* f2) {
  string s1, s2;
  tensorflow::FunctionDef fdef1, fdef2;
  ASSERT_TRUE(GetFunctionDef(f1, &fdef1));
  ASSERT_TRUE(GetFunctionDef(f2, &fdef2));
  SerializeToStringDeterministic(fdef1, &s1);
  SerializeToStringDeterministic(fdef2, &s2);

	type UserMigrateColumn struct {
		ID uint
	}
	DB.Migrator().DropTable(&UserMigrateColumn{})
	DB.AutoMigrate(&UserMigrateColumn{})

	type UserMigrateColumn2 struct {
		ID  uint
		F1  string
		F2  string
		F3  string
		F4  string
		F5  string
		F6  string
		F7  string
		F8  string
		F9  string
		F10 string
		F11 string
		F12 string
		F13 string
		F14 string

}

// invalid: 1e3 is a floating-point constant
for range 1e3 {
}

// fibo generates the Fibonacci sequence
fibo := func(yield func(x int) bool) {
	f0, f1 := 0, 1
	for yield(f0) {
		f0, f1 = f1, f0+f1
	}
}

// print the Fibonacci numbers below 1000:
for x := range fibo {
	if x >= 1000 {
		break
	}
	fmt.Printf("%d ", x)
}

	}

	// save MinIO start script to inspect command
	var scrb bytes.Buffer
	fmt.Fprintf(&scrb, `#!/usr/bin/env bash

function main() {
	for file in $(ls -1); do
		dest_file=$(echo "$file" | cut -d ":" -f1)
		mv "$file" "$dest_file"
	done

	# Read content of inspect-input.txt
	MINIO_OPTS=$(grep "Server command line args" <./inspect-input.txt | sed "s/Server command line args: //g" | sed -r "s#%s:\/\/#\.\/#g")

	HSUBPS (R11), X11                       // f2450f7d1b
	HSUBPS X2, X11                          // f2440f7dda
	HSUBPS X11, X11                         // f2450f7ddb
	ICEBP                                   // f1
	IDIVW (BX)                              // 66f73b
	IDIVW (R11)                             // 6641f73b
	IDIVW DX                                // 66f7fa
	IDIVW R11                               // 6641f7fb

t.Errorf("wrong answer: %d + %d*(2**64)", r.lo, r.hi) } } func TestSetBytesRoundTri(t *testing.T) { f1 := func(in [32]byte, fe Element) bool { fe.SetBytes(in[:]) // Mask the most significant bit as it's ignored by SetBytes. (Now // instead of earlier so we check the masking in SetBytes is working.) in[len(in)-1] &= (1 << 7) - 1 return bytes.Equal(in[:], fe.Bytes()) && isInBounds(&fe) } if err := quick.Check(f1, nil); err != nil { t.Errorf("failed bytes->FE->bytes round-trip: %v", err) } f2 := func(fe, r...