static expression *
get_expression(const char *selector)
{
freesasa_yyscan_t scanner;
YY_BUFFER_STATE state;
int err;
expression *expression = NULL;
if (freesasa_yylex_init(&scanner)) {
fail_msg("lexer failed");
} else {
state = freesasa_yy_scan_string(selector, scanner);
err = freesasa_yyparse(&expression, scanner);
if (err) {
if (err == 1) fail_msg("parser failed");
if (err == 2) mem_fail();
expression_free(expression);
expression = NULL;
}
freesasa_yy_delete_buffer(state, scanner);
freesasa_yylex_destroy(scanner);
}
return expression;
}
static int
k4ping(krb5_context ctx, const char *host, krb5_principal princ,
const char *passwd, krb5_principal sprinc)
{
krb5_error_code kerr;
int ret;
char name[ANAME_SZ];
char instance[INST_SZ];
char realm[REALM_SZ];
VERBOSE(1, (stderr, "initiating kerberos4/udp ping to %s\n", host));
parse_kdc(host);
kerr = krb5_524_conv_principal(ctx, princ, name, instance, realm);
if (kerr) {
fail_msg("kerberos4", SOCK_DGRAM, host, error_message(kerr));
ret = 1;
goto bail;
}
ret = krb_get_pw_in_tkt(name, instance, realm, "krbtgt",
realm, 3600 /* seconds */, (char *)passwd);
if (ret) {
fail_msg("kerberos4", SOCK_DGRAM, host, krb_get_err_text(ret));
goto bail;
}
ret = kvno4(ctx, host, sprinc);
/* XXXrcd */
k_logout_k4(ctx, NULL, K_OPT_NONE);
bail:
return ret;
}
static int
kvno4(krb5_context ctx, const char *host, krb5_principal sprinc)
{
krb5_error_code kerr;
KTEXT_ST req;
CREDENTIALS creds;
int err = 0;
char name[ANAME_SZ];
char instance[INST_SZ];
char realm[REALM_SZ];
VERBOSE(1, (stderr, "initiating kvno4/udp ping to %s\n", host));
kerr = krb5_524_conv_principal(ctx, sprinc, name, instance, realm);
if (kerr) {
fail_msg("kvno4", SOCK_DGRAM, host, error_message(kerr));
goto bail;
}
err = krb_mk_req(&req, name, instance, realm, 0);
if (err)
goto bail;
err = krb_get_cred(name, instance, realm, &creds);
if (err)
goto bail;
VERBOSE(2, (stderr, "%s.%s@%s kvno = %d\n", name, instance, realm,
creds.kvno));
bail:
if (err)
fail_msg("kvno4", SOCK_DGRAM, host, krb_get_err_text(err));
return err;
}
/**
Read a line specifying an atom, store it in the config. Use
supplied types to add assign radius and class. Returns
FREESASA_WARN for duplicates. Returns FREESASA_FAIL for syntax
errors or memory allocation errors. FREESASA_SUCCESS else.
*/
static int
read_atoms_line(struct classifier_config *config,
const struct classifier_types *types,
const char* line)
{
size_t blen=100;
char buf1[blen], buf2[blen], buf3[blen];
int res, type, atom;
if (sscanf(line,"%s %s %s",buf1,buf2,buf3) == 3) {
type = find_string(types->name, buf3, types->n_types);
if (type < 0)
return freesasa_fail("Unknown atom type '%s' in line '%s'",buf3,line);
res = add_residue(config,buf1);
if (res == FREESASA_FAIL) return fail_msg("");
atom = add_atom(config->residue[res],
buf2,
types->type_radius[type],
types->type_class[type]);
if (atom == FREESASA_FAIL) return fail_msg("");
if (atom == FREESASA_WARN) return FREESASA_WARN;
} else {
return freesasa_fail("in %s(): Could not parse line '%s', expecting triplet of type "
"'RESIDUE ATOM CLASS', for example 'ALA CB C_ALI'.",
__func__, line);
}
return FREESASA_SUCCESS;
}
void CDBConnection::execute(const TUpdateReservationTxnInput* pIn, TUpdateReservationTxnOutput* pOut){
pOut->status = CBaseTxnErr::SUCCESS;
char query[4096];
sql_result_t result;
int length;
char* val;
int r = 0;
uint64_t r_f_id = pIn->flight_id;
uint64_t r_seat = pIn->seat;
uint64_t c_id = pIn->customer_id;
uint64_t r_id;
string attr_val("random attr");
TIMESTAMP cur_dts;
char cur_dts_string[100];
uint64_t new_r_f_id, new_r_id, new_r_seat;
sprintf(cur_dts_string, "%hd-%hd-%hd %hd:%hd:%hd.%*d",
&cur_dts.year,
&cur_dts.month,
&cur_dts.day,
&cur_dts.hour,
&cur_dts.minute,
&cur_dts.second);
sprintf(query, CHECK_SEAT, r_f_id, r_seat);
r = dbt5_sql_execute(query, &result, "CHECK_SEAT");
if(r==1 && result.result_set){
dbt5_sql_fetchrow(&result);
r_id = atol(dbt5_sql_getvalue(&result, 0, length));
dbt5_sql_close_cursor(&result);
}else{
string fail_msg("check seats failed");
throw fail_msg.c_str();
}
sprintf(query, CHECK_CUSTOMER, r_f_id, c_id);
r = dbt5_sql_execute(query, &result, "CHECK_CUSTOMER");
if(r==1 && result.result_set){
dbt5_sql_fetchrow(&result);
new_r_id = atol(dbt5_sql_getvalue(&result, 0, length));
dbt5_sql_close_cursor(&result);
}else{
string fail_msg("check customer failed");
throw fail_msg.c_str();
}
sprintf(query, UPDATE_RESERVATION, r_seat, cur_dts_string, attr_val.c_str(), r_id, c_id, f_id);
r = dbt5_sql_execute(query, &result, "UPDATE_RESERVATION");
if (!r){
string fail_msg("update reservation failed");
throw fail_msg.c_str();
}
}
static int
sr_do_threads(int n_threads,
sr_data *sr)
{
pthread_t thread[n_threads];
sr_data srt[n_threads];
int thread_block_size = sr->n_atoms/n_threads;
int res, return_value = FREESASA_SUCCESS;
int threads_created = 0;
// divide atoms evenly over threads
for (int t = 0; t < n_threads; ++t) {
srt[t] = *sr;
srt[t].i1 = t*thread_block_size;
if (t == n_threads-1) srt[t].i2 = sr->n_atoms;
else srt[t].i2 = (t+1)*thread_block_size;
res = pthread_create(&thread[t], NULL, sr_thread, (void *) &srt[t]);
if (res) {
return_value = fail_msg(freesasa_thread_error(res));
break;
}
++threads_created;
}
for (int t = 0; t < threads_created; ++t) {
int res = pthread_join(thread[t], NULL);
if (res) {
return_value = fail_msg(freesasa_thread_error(res));
}
}
return return_value;
}
VOID
Security_Tests_Validate_Interface(
void **state
)
{
PSECURITY_TEST_STATE pState = *state;
if (!pState->pInterface)
{
fail_msg("Interface not loaded. pInterface = NULL\n");
goto error;
}
if (!pState->pInterface->pFnInitialize ||
!pState->pInterface->pFnGetCaps ||
!pState->pInterface->pFnCapOverride ||
!pState->pInterface->pFnAddKeyPair ||
!pState->pInterface->pFnCreateKeyPair ||
!pState->pInterface->pFnSign ||
!pState->pInterface->pFnVerify ||
!pState->pInterface->pFnCloseHandle ||
!pState->pInterface->pFnFreeMemory)
{
fail_msg("Interface table is not valid. missing entries\n");
}
error:
return;
}
int
main (int argc, char *argv[])
{
int rc;
npth_attr_t tattr;
int state;
npth_t tid1, tid2;
void *retval;
if (argc >= 2 && !strcmp (argv[1], "--verbose"))
opt_verbose = 1;
rc = npth_init ();
fail_if_err (rc);
rc = npth_mutex_init (&counter_mutex, NULL);
fail_if_err (rc);
rc = npth_attr_init (&tattr);
fail_if_err (rc);
rc = npth_attr_getdetachstate (&tattr, &state);
fail_if_err (rc);
if ( state != NPTH_CREATE_JOINABLE )
fail_msg ("new tattr is not joinable");
info_msg ("creating thread-one");
rc = npth_create (&tid1, &tattr, thread_one, NULL);
fail_if_err (rc);
npth_setname_np (tid1, "thread-one");
info_msg ("creating thread-two");
rc = npth_create (&tid2, &tattr, thread_two, NULL);
fail_if_err (rc);
npth_setname_np (tid2, "thread-two");
rc = npth_attr_destroy (&tattr);
fail_if_err (rc);
info_msg ("waiting for thread-one to terminate");
rc = npth_join (tid1, &retval);
fail_if_err (rc);
if (retval != (void*)4711)
fail_msg ("thread-one returned an unexpected value");
info_msg ("waiting for thread-two to terminate");
rc = npth_join (tid2, &retval);
fail_if_err (rc);
if (retval != (void*)4722)
fail_msg ("thread-two returned an unexpected value");
if (counter != 100)
fail_msg ("counter value not as expected");
return 0;
}
/* Root is not converted to xmlNodePtr, we skip immediately to children */
static int
node2xml(xmlNodePtr *xml_node,
freesasa_node *node,
int exclude_type,
int options)
{
freesasa_node *child;
xmlNodePtr xml_child = NULL;
assert(xml_node);
assert(node);
child = freesasa_node_children(node);
*xml_node = NULL;
if (freesasa_node_type(node) == exclude_type) return FREESASA_SUCCESS;
switch (freesasa_node_type(node)) {
case FREESASA_NODE_STRUCTURE:
*xml_node = structure2xml(node, options);
break;
case FREESASA_NODE_CHAIN:
*xml_node = chain2xml(node, options);
break;
case FREESASA_NODE_RESIDUE:
*xml_node = residue2xml(node, options);
break;
case FREESASA_NODE_ATOM:
*xml_node = atom2xml(node, options);
break;
case FREESASA_NODE_ROOT:
default:
assert(0 && "tree illegal");
}
if (*xml_node == NULL)
return fail_msg("error creating XML-node");
/* simplify? */
while (child != NULL) {
if (node2xml(&xml_child, child, exclude_type, options) == FREESASA_FAIL) {
return fail_msg("");
}
if (xml_child != NULL &&
xmlAddChild(*xml_node, xml_child) == NULL) {
xmlFreeNode(*xml_node);
xmlFreeNode(xml_child);
return fail_msg("");
}
child = freesasa_node_next(child);
}
return FREESASA_SUCCESS;
}
static int
select_list(expression_type parent_type,
struct selection *selection,
const freesasa_structure *structure,
const expression *expr)
{
int resr, resl;
expression *left, *right;
if (expr == NULL)
return fail_msg("NULL expression");
left = expr->left;
right = expr->right;
switch(expr->type) {
case E_PLUS:
if (left == NULL || right == NULL)
return fail_msg("NULL expression");
resl = select_list(parent_type, selection, structure, left);
resr = select_list(parent_type, selection, structure, right);
if (resl == FREESASA_WARN || resr == FREESASA_WARN)
return FREESASA_WARN;
break;
case E_RANGE:
if (left == NULL || right == NULL)
return fail_msg("NULL expression");
return select_range(E_RANGE, parent_type, selection, structure, left, right);
case E_RANGE_OPEN_L:
if (left != NULL || right == NULL)
return fail_msg("NULL expression");
return select_range(E_RANGE_OPEN_L, parent_type, selection, structure, left, right);
case E_RANGE_OPEN_R:
if (left == NULL || right != NULL)
return fail_msg("NULL expression");
return select_range(E_RANGE_OPEN_R, parent_type, selection, structure, left, right);
case E_ID:
case E_NUMBER:
if (is_valid_id(parent_type, expr) == FREESASA_SUCCESS)
select_id(parent_type, selection, structure, expr->value);
else return freesasa_warn("select: %s: '%s' invalid %s",
e_str(parent_type), expr->value, e_str(expr->type));
break;
default:
return freesasa_fail("select: parse error (expression: '%s %s')",
e_str(parent_type), e_str(expr->type));
}
return FREESASA_SUCCESS;
}
static int
kvno5(krb5_context ctx, const char *host, int socktype, krb5_principal princ,
krb5_principal sprinc, krb5_ccache ccache)
{
krb5_error_code kerr = 0;
krb5_creds increds;
krb5_creds *outcreds = NULL;
krb5_ticket *ticket = NULL;
VERBOSE(1, (stderr, "initiating kvno5/%s ping to %s\n",
socktype == SOCK_DGRAM ? "udp" : "tcp", host));
memset(&increds, 0x0, sizeof(increds));
increds.client = princ;
increds.server = sprinc;
kerr = krb5_get_credentials(ctx, 0, ccache, &increds, &outcreds);
if (kerr)
goto bail;
kerr = krb5_decode_ticket(&outcreds->ticket, &ticket);
if (kerr)
goto bail;
VERBOSE(2, (stderr, "kvno5 says kvno = %d\n", ticket->enc_part.kvno));
bail:
if (kerr)
fail_msg("kvno5", socktype, host, error_message(kerr));
if (ticket)
krb5_free_ticket(ctx, ticket);
if (outcreds)
krb5_free_creds(ctx, outcreds);
return kerr;
}
freesasa_selection *
freesasa_selection_new(const char *command,
const freesasa_structure *structure,
const freesasa_result *result)
{
char name[FREESASA_MAX_SELECTION_NAME];
double area;
freesasa_selection *selection;
int n_atoms;
n_atoms = select_area_impl(command, name, &area, structure, result);
if (n_atoms == FREESASA_FAIL) {
fail_msg("");
return NULL;
}
selection = freesasa_selection_alloc(name, command);
if (selection == NULL) {
mem_fail();
return NULL;
}
selection->area = area;
selection->n_atoms = n_atoms;
return selection;
}
static int
selection_join(struct selection *target,
const struct selection *s1,
const struct selection *s2,
int type)
{
int n, i;
if (s1 == NULL || s2 == NULL || target == NULL)
return fail_msg("trying to join NULL selections");
assert(s1->size == s2->size);
assert(s1->size == target->size);
n = target->size;
switch (type) {
case E_AND:
for (i = 0; i < n; ++i)
target->atom[i] = s1->atom[i] && s2->atom[i];
break;
case E_OR:
for (i = 0; i < n; ++i)
target->atom[i] = s1->atom[i] || s2->atom[i];
break;
default:
assert(0);
}
return FREESASA_SUCCESS;
}
static coord_t *
test_points(int N)
{
// Golden section spiral on a sphere
// from http://web.archive.org/web/20120421191837/http://www.cgafaq.info/wiki/Evenly_distributed_points_on_sphere
double dlong = M_PI*(3-sqrt(5)), dz = 2.0/N, longitude = 0, z = 1-dz/2, r;
coord_t *coord = freesasa_coord_new();
double *tp = malloc(3*N*sizeof(double));
if (tp == NULL || coord == NULL) {
freesasa_coord_free(coord);
free(tp);
mem_fail();
return NULL;
}
for (double *p = tp; p-tp < 3*N; p += 3) {
r = sqrt(1-z*z);
p[0] = cos(longitude)*r;
p[1] = sin(longitude)*r;
p[2] = z;
z -= dz;
longitude += dlong;
}
if (freesasa_coord_append(coord,tp,N) == FREESASA_FAIL) {
fail_msg("");
freesasa_coord_free(coord);
coord = NULL;
}
free(tp);
return coord;
}
/******************************************************************************
* *
* Function: zbx_mock_str_to_return_code *
* *
* Purpose: converts common function return code from text format *
* *
******************************************************************************/
int zbx_mock_str_to_return_code(const char *str)
{
if (0 == strcmp(str, "SUCCEED"))
return SUCCEED;
if (0 == strcmp(str, "FAIL"))
return FAIL;
if (0 == strcmp(str, "NOTSUPPORTED"))
return NOTSUPPORTED;
if (0 == strcmp(str, "NETWORK_ERROR"))
return NETWORK_ERROR;
if (0 == strcmp(str, "TIMEOUT_ERROR"))
return TIMEOUT_ERROR;
if (0 == strcmp(str, "AGENT_ERROR"))
return AGENT_ERROR;
if (0 == strcmp(str, "GATEWAY_ERROR"))
return GATEWAY_ERROR;
if (0 == strcmp(str, "CONFIG_ERROR"))
return CONFIG_ERROR;
if (0 == strcmp(str, "SYSINFO_RET_OK"))
return SYSINFO_RET_OK;
if (0 == strcmp(str, "SYSINFO_RET_FAIL"))
return SYSINFO_RET_FAIL;
fail_msg("Unknown return code \"%s\"", str);
return 0;
}
int main(VOID)
{
int ret = 0;
const struct CMUnitTest VMCASrvPlugin_Tests[] =
{
cmocka_unit_test_setup_teardown(
VMCAPluginInitialize_Valid,
NULL,
NULL),
cmocka_unit_test_setup_teardown(
VMCAPluginInitialize_NoEntryPoint,
NULL,
NULL),
cmocka_unit_test_setup_teardown(
VMCAPluginInitialize_InvalidVTable,
NULL,
NULL),
};
ret = cmocka_run_group_tests(VMCASrvPlugin_Tests, NULL, NULL);
if (ret)
{
fail_msg("%s", "VMCA plugin tests failed");
}
return ret;
}
int main(VOID)
{
int ret = 0;
const struct CMUnitTest tests[] = {
cmocka_unit_test(Test_LwCAInitCA_Valid),
cmocka_unit_test(Test_LwCAInitCA_Invalid),
cmocka_unit_test(Test_LwCACreateRootCA_Valid),
cmocka_unit_test(Test_LwCACreateRootCA_Invalid),
cmocka_unit_test(Test_LwCAGetCACertificates_Valid),
cmocka_unit_test(Test_LwCAGetCACertificates_Invalid),
cmocka_unit_test(Test_LwCAGetSignedCertificate_Valid),
cmocka_unit_test(Test_LwCAGetSignedCertificate_Invalid),
cmocka_unit_test(Test_LwCACreateIntermediateCA_Valid),
cmocka_unit_test(Test_LwCACreateIntermediateCA_Invalid),
cmocka_unit_test(Test_LwCARevokeCertificate_Valid),
cmocka_unit_test(Test_LwCARevokeCertificate_Invalid),
cmocka_unit_test(Test_LwCARevokeIntermediateCA_Valid),
cmocka_unit_test(Test_LwCARevokeIntermediateCA_Invalid),
cmocka_unit_test(Test_LwCAGetCACrl_Valid),
cmocka_unit_test(Test_LwCAGetCACrl_Invalid),
};
ret = cmocka_run_group_tests(tests, Test_LwCAAPITests_Setup, Test_LwCAAPI_Teardown);
if (ret)
{
fail_msg("%s", "MutentCA API tests failed");
}
return ret;
}
/******************************************************************************
* *
* Function: zbx_mock_str_to_token_type *
* *
* Purpose: converts token type from text format *
* *
******************************************************************************/
void zbx_mock_str_to_token_type(const char *str, int *out)
{
if (0 == strcmp(str, "ZBX_TOKEN_OBJECTID"))
*out = ZBX_TOKEN_OBJECTID;
else if (0 == strcmp(str, "ZBX_TOKEN_MACRO"))
*out = ZBX_TOKEN_MACRO;
else if (0 == strcmp(str, "ZBX_TOKEN_LLD_MACRO"))
*out = ZBX_TOKEN_LLD_MACRO;
else if (0 == strcmp(str, "ZBX_TOKEN_USER_MACRO"))
*out = ZBX_TOKEN_USER_MACRO;
else if (0 == strcmp(str, "ZBX_TOKEN_FUNC_MACRO"))
*out = ZBX_TOKEN_FUNC_MACRO;
else if (0 == strcmp(str, "ZBX_TOKEN_SIMPLE_MACRO"))
*out = ZBX_TOKEN_SIMPLE_MACRO;
else if (0 == strcmp(str, "ZBX_TOKEN_REFERENCE"))
*out = ZBX_TOKEN_REFERENCE;
else if (0 == strcmp(str, "ZBX_TOKEN_LLD_FUNC_MACRO"))
*out = ZBX_TOKEN_LLD_FUNC_MACRO;
else
fail_msg("Unknown token type \"%s\"", str);
}
void CDBConnection::execute(const TSendPaymentTxnInput* pIn, TSendPaymentTxnOutput* pOut){
pOut->status = CBaseTxnErr::SUCCESS;
char query[1024];
sql_result_t result;
int length;
char* val;
int r = 0;
uint64_t send_acct = pIn->send_acct;
uint64_t dest_acct = pIn->dest_acct;
float balance = 0;
float amount = pIn->amount;
sprintf(query, SP_GET_SENDACCOUNT, send_acct);
r = dbt5_sql_execute(query, &result, "GET_SENDACCOUNT");
if(r==1 && result.result_set){
dbt5_sql_fetchrow(&result);
dbt5_sql_close_cursor(&result);
}else{
string fail_msg("get sendaccount fails");
throw fail_msg.c_str();
}
sprintf(query, SP_GET_DESTACCOUNT, dest_acct);
r = dbt5_sql_execute(query, &result, "GET_DEST_ACCOUNT");
if(r==1 && result.result_set){
dbt5_sql_fetchrow(&result);
dbt5_sql_close_cursor(&result);
}else{
string fail_msg("get destaccount fails");
throw fail_msg.c_str();
}
sprintf(query, SP_GET_CHECKINGBALANCE, send_acct);
r = dbt5_sql_execute(query, &result, "GET_CHECKING_BALANCE");
if(r==1 && result.result_set){
dbt5_sql_fetchrow(&result);
dbt5_sql_close_cursor(&result);
}else{
string fail_msg("get checking balance fails");
throw fail_msg.c_str();
}
sprintf(query, SP_UPDATE_CHECKINGBALANCE, amount*(-1), sned_acct);
r = dbt5_sql_execute
}
static xmlNodePtr
parameters2xml(const freesasa_parameters *p)
{
xmlNodePtr xml_node = xmlNewNode(NULL, BAD_CAST "parameters");
char buf[20];
if (xml_node == NULL) {
fail_msg("");
return NULL;
}
if (xmlNewProp(xml_node, BAD_CAST "algorithm", BAD_CAST freesasa_alg_name(p->alg)) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%f", p->probe_radius);
if (xmlNewProp(xml_node, BAD_CAST "probeRadius", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
switch(p->alg) {
case FREESASA_SHRAKE_RUPLEY:
sprintf(buf, "%d", p->shrake_rupley_n_points);
break;
case FREESASA_LEE_RICHARDS:
sprintf(buf, "%d", p->lee_richards_n_slices);
break;
default:
assert(0);
break;
}
if (xmlNewProp(xml_node, BAD_CAST "resolution", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
return xml_node;
cleanup:
xmlFreeNode(xml_node);
return NULL;
}
static xmlNodePtr
chain2xml(const freesasa_node *node,
int options)
{
xmlNodePtr xml_node = NULL, xml_area = NULL;
char buf[20];
xml_node = xmlNewNode(NULL, BAD_CAST "chain");
if (xml_node == NULL) {
fail_msg("");
return NULL;
}
if (xmlNewProp(xml_node, BAD_CAST "label",
BAD_CAST freesasa_node_name(node)) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%d", freesasa_node_chain_n_residues(node));
if (xmlNewProp(xml_node, BAD_CAST "nResidues", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
xml_area = nodearea2xml(freesasa_node_area(node), "area");
if (xml_area == NULL) {
fail_msg("");
goto cleanup;
}
if (xmlAddChild(xml_node, xml_area) == NULL) {
fail_msg("");
xmlFreeNode(xml_area);
goto cleanup;
}
return xml_node;
cleanup:
xmlFreeNode(xml_node);
return NULL;
}
static xmlNodePtr
nodearea2xml(const freesasa_nodearea *area,
const char *name)
{
xmlNodePtr xml_node = xmlNewNode(NULL, BAD_CAST name);
char buf[20];
sprintf(buf, "%.3f", area->total);
if (xmlNewProp(xml_node, BAD_CAST "total", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%.3f", area->polar);
if (xmlNewProp(xml_node, BAD_CAST "polar", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%.3f", area->apolar);
if (xmlNewProp(xml_node, BAD_CAST "apolar", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%.3f", area->main_chain);
if (xmlNewProp(xml_node, BAD_CAST "mainChain", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
sprintf(buf, "%.3f", area->side_chain);
if (xmlNewProp(xml_node, BAD_CAST "sideChain", BAD_CAST buf) == NULL) {
fail_msg("");
goto cleanup;
}
return xml_node;
cleanup:
xmlFreeNode(xml_node);
return NULL;
}
zbx_mock_handle_t zbx_mock_get_object_member_handle(zbx_mock_handle_t object, const char *name)
{
zbx_mock_error_t err;
zbx_mock_handle_t member;
if (ZBX_MOCK_SUCCESS != (err = zbx_mock_object_member(object, name, &member)))
fail_msg("Cannot read object member \"%s\": %s", name, zbx_mock_error_string(err));
return member;
}
zbx_mock_handle_t zbx_mock_get_parameter_handle(const char *path)
{
zbx_mock_error_t err;
zbx_mock_handle_t parameter;
if (ZBX_MOCK_SUCCESS != (err = zbx_mock_parameter(path, ¶meter)))
fail_msg("Cannot read parameter at \"%s\": %s", path, zbx_mock_error_string(err));
return parameter;
}
/******************************************************************************
* *
* Function: zbx_mock_str_to_value_type *
* *
* Purpose: converts item value type from text format *
* *
******************************************************************************/
int zbx_mock_str_to_family(const char *str)
{
if (0 == strcmp(str, "AF_INET"))
return AF_INET;
if (0 == strcmp(str, "AF_INET6"))
return AF_INET6;
fail_msg("Unknown family \"%s\"", str);
return AF_UNSPEC;
}
freesasa_classifier*
freesasa_classifier_from_file(FILE *file)
{
assert(file);
struct classifier_config *config = read_config(file);
if (config == NULL) {
fail_msg("");
return NULL;
}
return init_classifier(config);
}
static xmlNodePtr
selection2xml(const freesasa_selection *selection)
{
xmlNodePtr xml_selection = xmlNewNode(NULL, BAD_CAST "selection");
char buf[20];
sprintf(buf, "%.3f", freesasa_selection_area(selection));
if (xml_selection == NULL) {
fail_msg("");
} else {
if (xmlNewProp(xml_selection, BAD_CAST "name", BAD_CAST freesasa_selection_name(selection)) == NULL ||
xmlNewProp(xml_selection, BAD_CAST "area", BAD_CAST buf) == NULL) {
fail_msg("");
xmlFreeNode(xml_selection);
xml_selection = NULL;
}
}
return xml_selection;
}
static xmlNodePtr
add_selections_to_xmlNode(const freesasa_selection **selections,
xmlNodePtr parent)
{
xmlNodePtr xml_selection;
while (*selections) {
xml_selection = selection2xml(*selections);
if (xml_selection == NULL) {
fail_msg("");
return NULL;
}
if (xmlAddChild(parent, xml_selection) == NULL) {
fail_msg("");
xmlFreeNode(xml_selection);
return NULL;
}
++selections;
}
return parent;
}
static int
selection_not(struct selection *s)
{
int i;
if (s == NULL) return fail_msg("NULL selection");
for (i = 0; i < s->size; ++i) {
s->atom[i] = ! s->atom[i];
}
return FREESASA_SUCCESS;
}
static void test_match(const char *prefix, zbx_mock_handle_t hmatch, zbx_prometheus_condition_test_t *match)
{
char buffer[MAX_STRING_LEN];
zbx_mock_handle_t hkey;
if (-1 != hmatch && NULL == match)
fail_msg("expected to parse %s filter", prefix);
if (-1 == hmatch && NULL != match)
fail_msg("did not expect to parse %s filter", prefix);
if (-1 == hmatch)
return;
zbx_snprintf(buffer, sizeof(buffer), "%s filter key", prefix);
if (ZBX_MOCK_SUCCESS != zbx_mock_object_member(hmatch, "key", &hkey))
hkey = -1;
if (-1 != hkey && NULL == match->key)
fail_msg("expected to parse %s", buffer);
if (-1 == hkey && NULL != match->key)
fail_msg("did not expect to parse %s", buffer);
if (-1 != hkey)
{
const char *key;
zbx_mock_string(hkey, &key);
zbx_mock_assert_str_eq(buffer, key, match->key);
}
zbx_snprintf(buffer, sizeof(buffer), "%s filter pattern", prefix);
zbx_mock_assert_str_eq(buffer, zbx_mock_get_object_member_string(hmatch, "pattern"), match->pattern);
zbx_snprintf(buffer, sizeof(buffer), "%s filter operation", prefix);
zbx_mock_assert_str_eq(buffer, zbx_mock_get_object_member_string(hmatch, "op"), match->op);
}