Sweden-Number/dlls/rpcrt4/tests/server.c

/*
 * Tests for WIDL and RPC server/clients.
 *
 * Copyright (C) Google 2007 (Dan Hipschman)
 *
 * This library is free software; you can redistribute it and/or
 * modify it under the terms of the GNU Lesser General Public
 * License as published by the Free Software Foundation; either
 * version 2.1 of the License, or (at your option) any later version.
 *
 * This library is distributed in the hope that it will be useful,
 * but WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the GNU
 * Lesser General Public License for more details.
 *
 * You should have received a copy of the GNU Lesser General Public
 * License along with this library; if not, write to the Free Software
 * Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301, USA
 */

#include <windows.h>
#include "wine/test.h"
#include "server.h"
#include "server_defines.h"

#include <stddef.h>
#include <stdio.h>
#include <stdlib.h>

#define PORT "4114"
#define PIPE "\\pipe\\wine_rpcrt4_test"

#define INT_CODE 4198

static const char *progname;

static HANDLE stop_event;

void __RPC_FAR *__RPC_USER
midl_user_allocate(size_t n)
{
  return malloc(n);
}

void __RPC_USER
midl_user_free(void __RPC_FAR *p)
{
  free(p);
}

static char *
xstrdup(const char *s)
{
  char *d = HeapAlloc(GetProcessHeap(), 0, strlen(s) + 1);
  strcpy(d, s);
  return d;
}

int
s_int_return(void)
{
  return INT_CODE;
}

int
s_square(int x)
{
  return x * x;
}

int
s_sum(int x, int y)
{
  return x + y;
}

void
s_square_out(int x, int *y)
{
  *y = s_square(x);
}

void
s_square_ref(int *x)
{
  *x = s_square(*x);
}

int
s_str_length(const char *s)
{
  return strlen(s);
}

int
s_cstr_length(const char *s, int n)
{
  int len = 0;
  while (0 < n-- && *s++)
    ++len;
  return len;
}

int
s_dot_self(vector_t *v)
{
  return s_square(v->x) + s_square(v->y) + s_square(v->z);
}

double
s_square_half(double x, double *y)
{
  *y = x / 2.0;
  return x * x;
}

float
s_square_half_float(float x, float *y)
{
  *y = x / 2.0f;
  return x * x;
}

long
s_square_half_long(long x, long *y)
{
  *y = x / 2;
  return x * x;
}

int
s_sum_fixed_array(int a[5])
{
  return a[0] + a[1] + a[2] + a[3] + a[4];
}

int
s_pints_sum(pints_t *pints)
{
  return *pints->pi + **pints->ppi + ***pints->pppi;
}

double
s_ptypes_sum(ptypes_t *pt)
{
  return *pt->pc + *pt->ps + *pt->pl + *pt->pf + *pt->pd;
}

int
s_dot_pvectors(pvectors_t *p)
{
  return p->pu->x * (*p->pv)->x + p->pu->y * (*p->pv)->y + p->pu->z * (*p->pv)->z;
}

int
s_sum_sp(sp_t *sp)
{
  return sp->x + sp->s->x;
}

double
s_square_sun(sun_t *su)
{
  switch (su->s)
  {
  case SUN_I: return su->u.i * su->u.i;
  case SUN_F1:
  case SUN_F2: return su->u.f * su->u.f;
  case SUN_PI: return (*su->u.pi) * (*su->u.pi);
  default:
    return 0.0;
  }
}

int
s_test_list_length(test_list_t *list)
{
  return (list->t == TL_LIST
          ? 1 + s_test_list_length(list->u.tail)
          : 0);
}

int
s_sum_fixed_int_3d(int m[2][3][4])
{
  int i, j, k;
  int sum = 0;

  for (i = 0; i < 2; ++i)
    for (j = 0; j < 3; ++j)
      for (k = 0; k < 4; ++k)
        sum += m[i][j][k];

  return sum;
}

int
s_sum_conf_array(int x[], int n)
{
  int *p = x, *end = p + n;
  int sum = 0;

  while (p < end)
    sum += *p++;

  return sum;
}

int
s_sum_unique_conf_array(int x[], int n)
{
  return s_sum_conf_array(x, n);
}

int
s_sum_unique_conf_ptr(int *x, int n)
{
  return x ? s_sum_conf_array(x, n) : 0;
}

int
s_sum_var_array(int x[20], int n)
{
  ok(0 <= n, "RPC sum_var_array\n");
  ok(n <= 20, "RPC sum_var_array\n");

  return s_sum_conf_array(x, n);
}

int
s_dot_two_vectors(vector_t vs[2])
{
  return vs[0].x * vs[1].x + vs[0].y * vs[1].y + vs[0].z * vs[1].z;
}

int
s_sum_cs(cs_t *cs)
{
  return s_sum_conf_array(cs->ca, cs->n);
}

int
s_sum_cps(cps_t *cps)
{
  int sum = 0;
  int i;

  for (i = 0; i < *cps->pn; ++i)
    sum += cps->ca1[i];

  for (i = 0; i < 2 * cps->n; ++i)
    sum += cps->ca2[i];

  return sum;
}

int
s_sum_cpsc(cpsc_t *cpsc)
{
  int sum = 0;
  int i;
  for (i = 0; i < (cpsc->c ? cpsc->a : cpsc->b); ++i)
    sum += cpsc->ca[i];
  return sum;
}

int
s_square_puint(puint_t p)
{
  int n = atoi(p);
  return n * n;
}

int
s_sum_puints(puints_t *p)
{
  int sum = 0;
  int i;
  for (i = 0; i < p->n; ++i)
    sum += atoi(p->ps[i]);
  return sum;
}

int
s_sum_cpuints(cpuints_t *p)
{
  int sum = 0;
  int i;
  for (i = 0; i < p->n; ++i)
    sum += atoi(p->ps[i]);
  return sum;
}

int
s_dot_copy_vectors(vector_t u, vector_t v)
{
  return u.x * v.x + u.y * v.y + u.z * v.z;
}

int
s_square_test_us(test_us_t *tus)
{
  int n = atoi(tus->us.x);
  return n * n;
}

double
s_square_encu(encu_t *eu)
{
  switch (eu->t)
  {
  case ENCU_I: return eu->tagged_union.i * eu->tagged_union.i;
  case ENCU_F: return eu->tagged_union.f * eu->tagged_union.f;
  default:
    return 0.0;
  }
}

int
s_sum_parr(int *a[3])
{
  return s_sum_pcarr(a, 3);
}

int
s_sum_pcarr(int *a[], int n)
{
  int i, s = 0;
  for (i = 0; i < n; ++i)
    s += *a[i];
  return s;
}

int
s_enum_ord(e_t e)
{
  switch (e)
  {
  case E1: return 1;
  case E2: return 2;
  case E3: return 3;
  case E4: return 4;
  default:
    return 0;
  }
}

double
s_square_encue(encue_t *eue)
{
  switch (eue->t)
  {
  case E1: return eue->tagged_union.i1 * eue->tagged_union.i1;
  case E2: return eue->tagged_union.f2 * eue->tagged_union.f2;
  default:
    return 0.0;
  }
}

int
s_sum_toplev_conf_2n(int *x, int n)
{
  int sum = 0;
  int i;
  for (i = 0; i < 2 * n; ++i)
    sum += x[i];
  return sum;
}

int
s_sum_toplev_conf_cond(int *x, int a, int b, int c)
{
  int sum = 0;
  int n = c ? a : b;
  int i;
  for (i = 0; i < n; ++i)
    sum += x[i];
  return sum;
}

double
s_sum_aligns(aligns_t *a)
{
  return a->c + a->i + a->s + a->d;
}

int
s_sum_padded(padded_t *p)
{
  return p->i + p->c;
}

int
s_sum_padded2(padded_t ps[2])
{
  return s_sum_padded(&ps[0]) + s_sum_padded(&ps[1]);
}

int
s_sum_padded_conf(padded_t *ps, int n)
{
  int sum = 0;
  int i;
  for (i = 0; i < n; ++i)
    sum += s_sum_padded(&ps[i]);
  return sum;
}

int
s_sum_bogus(bogus_t *b)
{
  return *b->h.p1 + *b->p2 + *b->p3 + b->c;
}

void
s_check_null(int *null)
{
  ok(!null, "RPC check_null\n");
}

int
s_str_struct_len(str_struct_t *s)
{
  return lstrlenA(s->s);
}

int
s_wstr_struct_len(wstr_struct_t *s)
{
  return lstrlenW(s->s);
}

int
s_sum_doub_carr(doub_carr_t *dc)
{
  int i, j;
  int sum = 0;
  for (i = 0; i < dc->n; ++i)
    for (j = 0; j < dc->a[i]->n; ++j)
      sum += dc->a[i]->a[j];
  return sum;
}

void
s_make_pyramid_doub_carr(unsigned char n, doub_carr_t **dc)
{
  doub_carr_t *t;
  int i, j;
  t = MIDL_user_allocate(FIELD_OFFSET(doub_carr_t, a[n]));
  t->n = n;
  for (i = 0; i < n; ++i)
  {
    int v = i + 1;
    t->a[i] = MIDL_user_allocate(FIELD_OFFSET(doub_carr_1_t, a[v]));
    t->a[i]->n = v;
    for (j = 0; j < v; ++j)
      t->a[i]->a[j] = j + 1;
  }
  *dc = t;
}

unsigned
s_hash_bstr(bstr_t b)
{
  short n = b[-1];
  short *s = b;
  unsigned hash = 0;
  short i;
  for (i = 0; i < n; ++i)
    hash = 5 * hash + (unsigned) s[i];
  return hash;
}

void
s_stop(void)
{
  ok(RPC_S_OK == RpcMgmtStopServerListening(NULL), "RpcMgmtStopServerListening\n");
  ok(RPC_S_OK == RpcServerUnregisterIf(NULL, NULL, FALSE), "RpcServerUnregisterIf\n");
  ok(SetEvent(stop_event), "SetEvent\n");
}

static void
make_cmdline(char buffer[MAX_PATH], const char *test)
{
  sprintf(buffer, "%s server %s", progname, test);
}

static int
run_client(const char *test)
{
  char cmdline[MAX_PATH];
  PROCESS_INFORMATION info;
  STARTUPINFOA startup;
  DWORD exitcode;

  memset(&startup, 0, sizeof startup);
  startup.cb = sizeof startup;

  make_cmdline(cmdline, test);
  ok(CreateProcessA(NULL, cmdline, NULL, NULL, FALSE, 0L, NULL, NULL, &startup, &info), "CreateProcess\n");
  ok(WaitForSingleObject(info.hProcess, 30000) == WAIT_OBJECT_0, "Child process termination\n");
  ok(GetExitCodeProcess(info.hProcess, &exitcode), "GetExitCodeProcess\n");
  ok(CloseHandle(info.hProcess), "CloseHandle\n");
  ok(CloseHandle(info.hThread), "CloseHandle\n");

  return exitcode == 0;
}

static void
basic_tests(void)
{
  char string[] = "I am a string";
  WCHAR wstring[] = {'I',' ','a','m',' ','a',' ','w','s','t','r','i','n','g', 0};
  int f[5] = {1, 3, 0, -2, -4};
  vector_t a = {1, 3, 7};
  vector_t vec1 = {4, -2, 1}, vec2 = {-5, 2, 3}, *pvec2 = &vec2;
  pvectors_t pvecs = {&vec1, &pvec2};
  sp_inner_t spi = {42};
  sp_t sp = {-13, &spi};
  aligns_t aligns = {3, 4, 5, 6.0};
  pints_t pints;
  ptypes_t ptypes;
  padded_t padded;
  padded_t padded2[2];
  bogus_t bogus;
  int i1, i2, i3, *pi2, *pi3, **ppi3;
  double u, v;
  float s, t;
  long q, r;
  short h;
  char c;
  int x;
  str_struct_t ss = {string};
  wstr_struct_t ws = {wstring};

  ok(int_return() == INT_CODE, "RPC int_return\n");

  ok(square(7) == 49, "RPC square\n");
  ok(sum(23, -4) == 19, "RPC sum\n");

  x = 0;
  square_out(11, &x);
  ok(x == 121, "RPC square_out\n");

  x = 5;
  square_ref(&x);
  ok(x == 25, "RPC square_ref\n");

  ok(str_length(string) == strlen(string), "RPC str_length\n");
  ok(dot_self(&a) == 59, "RPC dot_self\n");

  ok(str_struct_len(&ss) == lstrlenA(string), "RPC str_struct_len\n");
  ok(wstr_struct_len(&ws) == lstrlenW(wstring), "RPC str_struct_len\n");

  v = 0.0;
  u = square_half(3.0, &v);
  ok(u == 9.0, "RPC square_half\n");
  ok(v == 1.5, "RPC square_half\n");

  t = 0.0f;
  s = square_half_float(3.0f, &t);
  ok(s == 9.0f, "RPC square_half_float\n");
  ok(t == 1.5f, "RPC square_half_float\n");

  r = 0;
  q = square_half_long(3, &r);
  ok(q == 9, "RPC square_half_long\n");
  ok(r == 1, "RPC square_half_long\n");

  i1 = 19;
  i2 = -3;
  i3 = -29;
  pi2 = &i2;
  pi3 = &i3;
  ppi3 = &pi3;
  pints.pi = &i1;
  pints.ppi = &pi2;
  pints.pppi = &ppi3;
  ok(pints_sum(&pints) == -13, "RPC pints_sum\n");

  c = 10;
  h = 3;
  q = 14;
  s = -5.0f;
  u = 11.0;
  ptypes.pc = &c;
  ptypes.ps = &h;
  ptypes.pl = &q;
  ptypes.pf = &s;
  ptypes.pd = &u;
  ok(ptypes_sum(&ptypes) == 33.0, "RPC ptypes_sum\n");

  ok(dot_pvectors(&pvecs) == -21, "RPC dot_pvectors\n");
  ok(dot_copy_vectors(vec1, vec2) == -21, "RPC dot_copy_vectors\n");
  ok(sum_fixed_array(f) == -2, "RPC sum_fixed_array\n");
  ok(sum_sp(&sp) == 29, "RPC sum_sp\n");

  ok(enum_ord(E1) == 1, "RPC enum_ord\n");
  ok(enum_ord(E2) == 2, "RPC enum_ord\n");
  ok(enum_ord(E3) == 3, "RPC enum_ord\n");
  ok(enum_ord(E4) == 4, "RPC enum_ord\n");

  ok(sum_aligns(&aligns) == 18.0, "RPC sum_aligns\n");

  padded.i = -3;
  padded.c = 8;
  ok(sum_padded(&padded) == 5, "RPC sum_padded\n");
  padded2[0].i = -5;
  padded2[0].c = 1;
  padded2[1].i = 3;
  padded2[1].c = 7;
  ok(sum_padded2(padded2) == 6, "RPC sum_padded2\n");
  padded2[0].i = -5;
  padded2[0].c = 1;
  padded2[1].i = 3;
  padded2[1].c = 7;
  ok(sum_padded_conf(padded2, 2) == 6, "RPC sum_padded_conf\n");

  i1 = 14;
  i2 = -7;
  i3 = -4;
  bogus.h.p1 = &i1;
  bogus.p2 = &i2;
  bogus.p3 = &i3;
  bogus.c = 9;
  ok(sum_bogus(&bogus) == 12, "RPC sum_bogus\n");

  check_null(NULL);
}

static void
union_tests(void)
{
  encue_t eue;
  encu_t eu;
  sun_t su;
  int i;

  su.s = SUN_I;
  su.u.i = 9;
  ok(square_sun(&su) == 81.0, "RPC square_sun\n");

  su.s = SUN_F1;
  su.u.f = 5.0;
  ok(square_sun(&su) == 25.0, "RPC square_sun\n");

  su.s = SUN_F2;
  su.u.f = -2.0;
  ok(square_sun(&su) == 4.0, "RPC square_sun\n");

  su.s = SUN_PI;
  su.u.pi = &i;
  i = 11;
  ok(square_sun(&su) == 121.0, "RPC square_sun\n");

  eu.t = ENCU_I;
  eu.tagged_union.i = 7;
  ok(square_encu(&eu) == 49.0, "RPC square_encu\n");

  eu.t = ENCU_F;
  eu.tagged_union.f = 3.0;
  ok(square_encu(&eu) == 9.0, "RPC square_encu\n");

  eue.t = E1;
  eue.tagged_union.i1 = 8;
  ok(square_encue(&eue) == 64.0, "RPC square_encue\n");

  eue.t = E2;
  eue.tagged_union.f2 = 10.0;
  ok(square_encue(&eue) == 100.0, "RPC square_encue\n");
}

static test_list_t *
null_list(void)
{
  test_list_t *n = HeapAlloc(GetProcessHeap(), 0, sizeof *n);
  n->t = TL_NULL;
  return n;
}

static test_list_t *
make_list(test_list_t *tail)
{
  test_list_t *n = HeapAlloc(GetProcessHeap(), 0, sizeof *n);
  n->t = TL_LIST;
  n->u.tail = tail;
  return n;
}

static void
free_list(test_list_t *list)
{
  if (list->t == TL_LIST)
    free_list(list->u.tail);
  HeapFree(GetProcessHeap(), 0, list);
}

ULONG __RPC_USER
puint_t_UserSize(ULONG *flags, ULONG start, puint_t *p)
{
  return start + sizeof(int);
}

unsigned char * __RPC_USER
puint_t_UserMarshal(ULONG *flags, unsigned char *buffer, puint_t *p)
{
  int n = atoi(*p);
  memcpy(buffer, &n, sizeof n);
  return buffer + sizeof n;
}

unsigned char * __RPC_USER
puint_t_UserUnmarshal(ULONG *flags, unsigned char *buffer, puint_t *p)
{
  int n;
  memcpy(&n, buffer, sizeof n);
  *p = HeapAlloc(GetProcessHeap(), 0, 10);
  sprintf(*p, "%d", n);
  return buffer + sizeof n;
}

void __RPC_USER
puint_t_UserFree(ULONG *flags, puint_t *p)
{
  HeapFree(GetProcessHeap(), 0, *p);
}

ULONG __RPC_USER
us_t_UserSize(ULONG *flags, ULONG start, us_t *pus)
{
  return start + sizeof(struct wire_us);
}

unsigned char * __RPC_USER
us_t_UserMarshal(ULONG *flags, unsigned char *buffer, us_t *pus)
{
  struct wire_us wus;
  wus.x = atoi(pus->x);
  memcpy(buffer, &wus, sizeof wus);
  return buffer + sizeof wus;
}

unsigned char * __RPC_USER
us_t_UserUnmarshal(ULONG *flags, unsigned char *buffer, us_t *pus)
{
  struct wire_us wus;
  memcpy(&wus, buffer, sizeof wus);
  pus->x = HeapAlloc(GetProcessHeap(), 0, 10);
  sprintf(pus->x, "%d", wus.x);
  return buffer + sizeof wus;
}

void __RPC_USER
us_t_UserFree(ULONG *flags, us_t *pus)
{
  HeapFree(GetProcessHeap(), 0, pus->x);
}

ULONG __RPC_USER
bstr_t_UserSize(ULONG *flags, ULONG start, bstr_t *b)
{
  return start + FIELD_OFFSET(wire_bstr_t, data[(*b)[-1]]);
}

unsigned char * __RPC_USER
bstr_t_UserMarshal(ULONG *flags, unsigned char *buffer, bstr_t *b)
{
  wire_bstr_t *wb = (wire_bstr_t *) buffer;
  wb->n = (*b)[-1];
  memcpy(&wb->data, *b, wb->n * sizeof wb->data[0]);
  return buffer + FIELD_OFFSET(wire_bstr_t, data[wb->n]);
}

unsigned char * __RPC_USER
bstr_t_UserUnmarshal(ULONG *flags, unsigned char *buffer, bstr_t *b)
{
  wire_bstr_t *wb = (wire_bstr_t *) buffer;
  short *data = HeapAlloc(GetProcessHeap(), 0, (wb->n + 1) * sizeof *data);
  data[0] = wb->n;
  memcpy(&data[1], wb->data, wb->n * sizeof data[1]);
  *b = &data[1];
  return buffer + FIELD_OFFSET(wire_bstr_t, data[wb->n]);
}

void __RPC_USER
bstr_t_UserFree(ULONG *flags, bstr_t *b)
{
  HeapFree(GetProcessHeap(), 0, &((*b)[-1]));
}

static void
pointer_tests(void)
{
  int a[] = {1, 2, 3, 4};
  char p1[] = "11";
  test_list_t *list = make_list(make_list(make_list(null_list())));
  test_us_t tus = {{p1}};
  int *pa[4];
  puints_t pus;
  cpuints_t cpus;
  short bstr_data[] = { 5, 'H', 'e', 'l', 'l', 'o' };
  bstr_t bstr = &bstr_data[1];

  ok(test_list_length(list) == 3, "RPC test_list_length\n");
  ok(square_puint(p1) == 121, "RPC square_puint\n");
  pus.n = 4;
  pus.ps = HeapAlloc(GetProcessHeap(), 0, pus.n * sizeof pus.ps[0]);
  pus.ps[0] = xstrdup("5");
  pus.ps[1] = xstrdup("6");
  pus.ps[2] = xstrdup("7");
  pus.ps[3] = xstrdup("8");
  ok(sum_puints(&pus) == 26, "RPC sum_puints\n");
  HeapFree(GetProcessHeap(), 0, pus.ps[0]);
  HeapFree(GetProcessHeap(), 0, pus.ps[1]);
  HeapFree(GetProcessHeap(), 0, pus.ps[2]);
  HeapFree(GetProcessHeap(), 0, pus.ps[3]);
  HeapFree(GetProcessHeap(), 0, pus.ps);
  cpus.n = 4;
  cpus.ps = HeapAlloc(GetProcessHeap(), 0, cpus.n * sizeof cpus.ps[0]);
  cpus.ps[0] = xstrdup("5");
  cpus.ps[1] = xstrdup("6");
  cpus.ps[2] = xstrdup("7");
  cpus.ps[3] = xstrdup("8");
  ok(sum_cpuints(&cpus) == 26, "RPC sum_puints\n");
  HeapFree(GetProcessHeap(), 0, cpus.ps[0]);
  HeapFree(GetProcessHeap(), 0, cpus.ps[1]);
  HeapFree(GetProcessHeap(), 0, cpus.ps[2]);
  HeapFree(GetProcessHeap(), 0, cpus.ps[3]);
  HeapFree(GetProcessHeap(), 0, cpus.ps);
  ok(square_test_us(&tus) == 121, "RPC square_test_us\n");

  pa[0] = &a[0];
  pa[1] = &a[1];
  pa[2] = &a[2];
  ok(sum_parr(pa) == 6, "RPC sum_parr\n");

  pa[0] = &a[0];
  pa[1] = &a[1];
  pa[2] = &a[2];
  pa[3] = &a[3];
  ok(sum_pcarr(pa, 4) == 10, "RPC sum_pcarr\n");

  ok(hash_bstr(bstr) == s_hash_bstr(bstr), "RPC hash_bstr_data\n");

  free_list(list);
}

static int
check_pyramid_doub_carr(doub_carr_t *dc)
{
  int i, j;
  for (i = 0; i < dc->n; ++i)
    for (j = 0; j < dc->a[i]->n; ++j)
      if (dc->a[i]->a[j] != j + 1)
        return FALSE;
  return TRUE;
}

static void
free_pyramid_doub_carr(doub_carr_t *dc)
{
  int i;
  for (i = 0; i < dc->n; ++i)
    MIDL_user_free(dc->a[i]);
  MIDL_user_free(dc);
}

static void
array_tests(void)
{
  const char str1[25] = "Hello";
  int m[2][3][4] =
  {
    {{1, 2, 3, 4}, {-1, -3, -5, -7}, {0, 2, 4, 6}},
    {{1, -2, 3, -4}, {2, 3, 5, 7}, {-4, -1, -14, 4114}}
  };
  int c[] = {0, 1, 2, 3, 4, 5, 6, 7, 8, 9};
  vector_t vs[2] = {{1, -2, 3}, {4, -5, -6}};
  cps_t cps;
  cpsc_t cpsc;
  cs_t *cs;
  int n;
  int ca[5] = {1, -2, 3, -4, 5};
  doub_carr_t *dc;

  ok(cstr_length(str1, sizeof str1) == strlen(str1), "RPC cstr_length\n");

  ok(sum_fixed_int_3d(m) == 4116, "RPC sum_fixed_int_3d\n");

  ok(sum_conf_array(c, 10) == 45, "RPC sum_conf_array\n");
  ok(sum_conf_array(&c[5], 2) == 11, "RPC sum_conf_array\n");
  ok(sum_conf_array(&c[7], 1) == 7, "RPC sum_conf_array\n");
  ok(sum_conf_array(&c[2], 0) == 0, "RPC sum_conf_array\n");

  ok(sum_unique_conf_array(ca, 4) == -2, "RPC sum_unique_conf_array\n");
  ok(sum_unique_conf_ptr(ca, 5) == 3, "RPC sum_unique_conf_array\n");
  ok(sum_unique_conf_ptr(NULL, 10) == 0, "RPC sum_unique_conf_array\n");

  ok(sum_var_array(c, 10) == 45, "RPC sum_conf_array\n");
  ok(sum_var_array(&c[5], 2) == 11, "RPC sum_conf_array\n");
  ok(sum_var_array(&c[7], 1) == 7, "RPC sum_conf_array\n");
  ok(sum_var_array(&c[2], 0) == 0, "RPC sum_conf_array\n");

  ok(dot_two_vectors(vs) == -4, "RPC dot_two_vectors\n");
  cs = HeapAlloc(GetProcessHeap(), 0, FIELD_OFFSET(cs_t, ca[5]));
  cs->n = 5;
  cs->ca[0] = 3;
  cs->ca[1] = 5;
  cs->ca[2] = -2;
  cs->ca[3] = -1;
  cs->ca[4] = -4;
  ok(sum_cs(cs) == 1, "RPC sum_cs\n");
  HeapFree(GetProcessHeap(), 0, cs);

  n = 5;
  cps.pn = &n;
  cps.ca1 = &c[2];
  cps.n = 3;
  cps.ca2 = &c[3];
  ok(sum_cps(&cps) == 53, "RPC sum_cps\n");

  cpsc.a = 4;
  cpsc.b = 5;
  cpsc.c = 1;
  cpsc.ca = c;
  ok(sum_cpsc(&cpsc) == 6, "RPC sum_cpsc\n");
  cpsc.a = 4;
  cpsc.b = 5;
  cpsc.c = 0;
  cpsc.ca = c;
  ok(sum_cpsc(&cpsc) == 10, "RPC sum_cpsc\n");

  ok(sum_toplev_conf_2n(c, 3) == 15, "RPC sum_toplev_conf_2n\n");
  ok(sum_toplev_conf_cond(c, 5, 6, 1) == 10, "RPC sum_toplev_conf_cond\n");
  ok(sum_toplev_conf_cond(c, 5, 6, 0) == 15, "RPC sum_toplev_conf_cond\n");

  dc = malloc(FIELD_OFFSET(doub_carr_t, a[2]));
  dc->n = 2;
  dc->a[0] = malloc(FIELD_OFFSET(doub_carr_1_t, a[3]));
  dc->a[0]->n = 3;
  dc->a[0]->a[0] = 5;
  dc->a[0]->a[1] = 1;
  dc->a[0]->a[2] = 8;
  dc->a[1] = malloc(FIELD_OFFSET(doub_carr_1_t, a[2]));
  dc->a[1]->n = 2;
  dc->a[1]->a[0] = 2;
  dc->a[1]->a[1] = 3;
  ok(sum_doub_carr(dc) == 19, "RPC sum_doub_carr\n");
  free(dc->a[0]);
  free(dc->a[1]);
  free(dc);

  dc = NULL;
  make_pyramid_doub_carr(4, &dc);
  ok(check_pyramid_doub_carr(dc), "RPC make_pyramid_doub_carr\n");
  free_pyramid_doub_carr(dc);
}

static void
run_tests(void)
{
  basic_tests();
  union_tests();
  pointer_tests();
  array_tests();
}

static void
client(const char *test)
{
  if (strcmp(test, "tcp_basic") == 0)
  {
    static unsigned char iptcp[] = "ncacn_ip_tcp";
    static unsigned char address[] = "127.0.0.1";
    static unsigned char port[] = PORT;
    unsigned char *binding;

    ok(RPC_S_OK == RpcStringBindingCompose(NULL, iptcp, address, port, NULL, &binding), "RpcStringBindingCompose\n");
    ok(RPC_S_OK == RpcBindingFromStringBinding(binding, &IServer_IfHandle), "RpcBindingFromStringBinding\n");

    run_tests();

    ok(RPC_S_OK == RpcStringFree(&binding), "RpcStringFree\n");
    ok(RPC_S_OK == RpcBindingFree(&IServer_IfHandle), "RpcBindingFree\n");
  }
  else if (strcmp(test, "np_basic") == 0)
  {
    static unsigned char np[] = "ncacn_np";
    static unsigned char address[] = "\\\\.";
    static unsigned char pipe[] = PIPE;
    unsigned char *binding;

    ok(RPC_S_OK == RpcStringBindingCompose(NULL, np, address, pipe, NULL, &binding), "RpcStringBindingCompose\n");
    ok(RPC_S_OK == RpcBindingFromStringBinding(binding, &IServer_IfHandle), "RpcBindingFromStringBinding\n");

    run_tests();
    stop();

    ok(RPC_S_OK == RpcStringFree(&binding), "RpcStringFree\n");
    ok(RPC_S_OK == RpcBindingFree(&IServer_IfHandle), "RpcBindingFree\n");
  }
}

static void
server(void)
{
  static unsigned char iptcp[] = "ncacn_ip_tcp";
  static unsigned char port[] = PORT;
  static unsigned char np[] = "ncacn_np";
  static unsigned char pipe[] = PIPE;

  ok(RPC_S_OK == RpcServerUseProtseqEp(iptcp, 20, port, NULL), "RpcServerUseProtseqEp\n");
  ok(RPC_S_OK == RpcServerRegisterIf(s_IServer_v0_0_s_ifspec, NULL, NULL), "RpcServerRegisterIf\n");
  ok(RPC_S_OK == RpcServerListen(1, 20, TRUE), "RpcServerListen\n");

  stop_event = CreateEvent(NULL, FALSE, FALSE, NULL);
  ok(stop_event != NULL, "CreateEvent failed\n");

  ok(run_client("tcp_basic"), "tcp_basic client test failed\n");

  ok(RPC_S_OK == RpcServerUseProtseqEp(np, 0, pipe, NULL), "RpcServerUseProtseqEp\n");
  ok(run_client("np_basic"), "np_basic client test failed\n");

  ok(WAIT_OBJECT_0 == WaitForSingleObject(stop_event, 60000), "WaitForSingleObject\n");
  todo_wine {
    ok(RPC_S_OK == RpcMgmtWaitServerListen(), "RpcMgmtWaitServerListening\n");
  }
}

START_TEST(server)
{
  int argc;
  char **argv;

  argc = winetest_get_mainargs(&argv);
  progname = argv[0];

  if (argc == 3)
  {
    RpcTryExcept
    {
      client(argv[2]);
    }
    RpcExcept(TRUE)
    {
      trace("Exception %d\n", RpcExceptionCode());
    }
    RpcEndExcept
  }
  else
    server();
}