*rp = x;
	return q;
}

u32 tests[] = {
	0,
	1,
	2,
	3,
	4,
	5,
	6,
	7,
	8,
	9,
	10,
	11,
	31,
	0xFFF,
	0x1000,
	0x1001,
	0xF0F0F0,
	0xFFFFFF,
	0x1000000,
	0xF0F0F0F0,
	0xFFFFFFFF,
};

int
main(void)
{
	for(int i=0; i<nelem(tests); i++)
	for(int j=0; j<nelem(tests); j++) {
		u32 n = tests[i];
		u32 d = tests[j];
		if(d == 0)
			continue;

app = Flask(__name__)


@app.route('/hello')
def hello():
    version = os.environ.get('SERVICE_VERSION')

    # do some cpu intensive computation
    x = 0.0001
    for i in range(0, 1000000):
        x = x + math.sqrt(x)

    return 'Hello version: %s, instance: %s\n' % (version, os.environ.get('HOSTNAME'))


@app.route('/health')
def health():
    return 'Helloworld is healthy', 200

	// current PerCallLimit gives roughly 0.1 second for each expression validation call
	PerCallLimit = 1000000

	// RuntimeCELCostBudget is the overall cost budget for runtime CEL validation cost per ValidatingAdmissionPolicyBinding or CustomResource
	// current RuntimeCELCostBudget gives roughly 1 seconds for the validation
	RuntimeCELCostBudget = 10000000

	// DI = nano/100/1e9 = nano/1e11 = sec/100, DX = SI = nano/100%1e9
	// split DX into seconds and nanoseconds by div 1e7 magic multiply.
	MOVL	DX, AX
	MOVL	$1801439851, CX
	MULL	CX
	SHRL	$22, DX
	MOVL	DX, BX
	IMULL	$10000000, DX
	MOVL	SI, CX
	SUBL	DX, CX

	// DI = sec/100 (still)
	// BX = (nano/100%1e9)/1e7 = (nano/1e9)%100 = sec%100
	// CX = (nano/100%1e9)%1e7 = (nano%1e9)/100 = nsec/100
	// store nsec for return
	IMULL	$100, CX

func BenchmarkGCD10x100000(b *testing.B)     { runGCD(b, 10, 100000) }
func BenchmarkGCD100x100(b *testing.B)       { runGCD(b, 100, 100) }
func BenchmarkGCD100x1000(b *testing.B)      { runGCD(b, 100, 1000) }
func BenchmarkGCD100x10000(b *testing.B)     { runGCD(b, 100, 10000) }
func BenchmarkGCD100x100000(b *testing.B)    { runGCD(b, 100, 100000) }
func BenchmarkGCD1000x1000(b *testing.B)     { runGCD(b, 1000, 1000) }

	_EV_DISABLE   = 0x8
	_EV_CLEAR     = 0x20
	_EV_RECEIPT   = 0
	_EV_ERROR     = 0x4000
	_EV_EOF       = 0x8000
	_EVFILT_READ  = 0x0
	_EVFILT_WRITE = 0x1
	_EVFILT_USER  = 0x8

	_NOTE_TRIGGER = 0x1000000
)

type sigset struct {
	__bits [4]uint32
}

type siginfo struct {
	_signo   int32
	_code    int32
	_errno   int32
	_reason  uintptr
	_reasonx [16]byte
}

	IN_MOVED_TO                      = 0x80
	IN_MOVE_SELF                     = 0x800
	IN_NONBLOCK                      = 0x800
	IN_ONESHOT                       = 0x80000000
	IN_ONLYDIR                       = 0x1000000
	IN_OPEN                          = 0x20
	IN_Q_OVERFLOW                    = 0x4000
	IN_UNMOUNT                       = 0x2000
	IPPROTO_AH                       = 0x33
	IPPROTO_COMP                     = 0x6c

	SO_TIMESTAMP                      = 0x2000
	SO_TYPE                           = 0x1008
	SO_USELOOPBACK                    = 0x40
	SYSCTL_VERSION                    = 0x1000000
	SYSCTL_VERS_0                     = 0x0
	SYSCTL_VERS_1                     = 0x1000000
	SYSCTL_VERS_MASK                  = 0xff000000
	S_ARCH1                           = 0x10000
	S_ARCH2                           = 0x20000

	_EV_ENABLE    = 0x4
	_EV_DISABLE   = 0x8
	_EV_CLEAR     = 0x20
	_EV_ERROR     = 0x4000
	_EV_EOF       = 0x8000
	_EVFILT_READ  = -0x1
	_EVFILT_WRITE = -0x2
	_EVFILT_USER  = -0x9

	_NOTE_TRIGGER = 0x1000000
)

type rtprio struct {
	_type uint16
	prio  uint16
}

type lwpparams struct {
	start_func uintptr
	arg        unsafe.Pointer
	stack      uintptr
	tid1       unsafe.Pointer // *int32

	_EV_DISABLE   = 0x8
	_EV_CLEAR     = 0x20
	_EV_RECEIPT   = 0
	_EV_ERROR     = 0x4000
	_EV_EOF       = 0x8000
	_EVFILT_READ  = 0x0
	_EVFILT_WRITE = 0x1
	_EVFILT_USER  = 0x8

	_NOTE_TRIGGER = 0x1000000
)

type sigset struct {
	__bits [4]uint32
}

type siginfo struct {
	_signo   int32
	_code    int32
	_errno   int32
	_reason  uintptr
	_reasonx [16]byte
}