//--------------------------------------------------------------------------------------------------
bool proc_IsRealtime
(
proc_Ref_t procRef ///< [IN] The process reference.
)
{
// Read the priority setting from the config tree.
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
char priorStr[LIMIT_MAX_PRIORITY_NAME_BYTES];
le_result_t result = le_cfg_GetString(procCfg,
CFG_NODE_PRIORITY,
priorStr,
sizeof(priorStr),
"medium");
le_cfg_CancelTxn(procCfg);
if ( (result == LE_OK) &&
(priorStr[0] == 'r') && (priorStr[1] == 't') )
{
return true;
}
return false;
}
//--------------------------------------------------------------------------------------------------
void userAddRemove_Add
(
const char* appName
)
//--------------------------------------------------------------------------------------------------
{
le_result_t result;
uid_t uid;
gid_t gid;
char userName[256] = "app";
result = le_utf8_Append(userName, appName, sizeof(userName), NULL);
LE_FATAL_IF(result != LE_OK, "App name '%s' is too long.", appName);
LE_INFO("Creating user '%s' for application '%s'.", userName, appName);
// Start a read transaction and go to node /apps/app-name
le_cfg_ConnectService();
le_cfg_IteratorRef_t i = le_cfg_CreateReadTxn("/apps");
le_cfg_GoToNode(i, appName);
// If the node doesn't exist, bail out.
if (!le_cfg_NodeExists(i, ""))
{
fprintf(stderr, "** ERROR: App '%s' doesn't exist in the system configuration.\n", appName);
}
else
{
result = user_Create(userName, &uid, &gid);
if (result == LE_OK)
{
printf("Created user '%s' (uid %u, gid %u).\n", userName, uid, gid);
// TODO: Groups configuration.
le_cfg_CancelTxn(i);
exit(EXIT_SUCCESS);
}
else if (result == LE_DUPLICATE)
{
// TODO: Verify correct groups configuration.
printf("User '%s' already exists (uid %u, gid %u).\n", userName, uid, gid);
le_cfg_CancelTxn(i);
exit(EXIT_SUCCESS);
}
else
{
fprintf(stderr, "** ERROR: user_Create() failed for user '%s'.\n", userName);
}
}
le_cfg_CancelTxn(i);
exit(EXIT_FAILURE);
}
// -------------------------------------------------------------------------------------------------
static int HandleExport
(
void
)
// -------------------------------------------------------------------------------------------------
{
le_result_t result;
// Check required format.
if (UseJson)
{
result = HandleGetJSON(NodePath, FilePath);
}
else
{
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(NodePath);
result = le_cfgAdmin_ExportTree(iterRef, FilePath, "");
le_cfg_CancelTxn(iterRef);
}
if (result != LE_OK)
{
ReportImportExportFail(result, "Export", NodePath, FilePath);
return EXIT_FAILURE;
}
return EXIT_SUCCESS;
}
//--------------------------------------------------------------------------------------------------
rlim_t resLim_GetSandboxedAppTmpfsLimit
(
app_Ref_t appRef ///< [IN] The application to set resource limits for.
)
{
// Create a config iterator to get the file system limit from the config tree.
le_cfg_IteratorRef_t appCfg = le_cfg_CreateReadTxn(app_GetConfigPath(appRef));
// Get the resource limit from the config tree.
int fileSysLimit = GetCfgResourceLimit(appCfg,
CFG_NODE_LIMIT_MAX_FILE_SYSTEM_BYTES,
DEFAULT_LIMIT_MAX_FILE_SYSTEM_BYTES);
if (fileSysLimit == 0)
{
// Zero means unlimited for tmpfs mounts and is not allowed. Use the default limit.
LE_ERROR("Configured resource limit %s is zero, which is invalid. Assuming the default value %d.",
CFG_NODE_LIMIT_MAX_FILE_SYSTEM_BYTES,
DEFAULT_LIMIT_MAX_FILE_SYSTEM_BYTES);
fileSysLimit = DEFAULT_LIMIT_MAX_FILE_SYSTEM_BYTES;
}
le_cfg_CancelTxn(appCfg);
return (rlim_t)fileSysLimit;
}
//--------------------------------------------------------------------------------------------------
static void LoadECallSettings
(
int32_t* hMinAccuracyPtr,
int32_t* dirMinAccuracyPtr
)
{
char psapStr[LE_MDMDEFS_PHONE_NUM_MAX_BYTES] = {0};
LE_DEBUG("Start reading eCall app settings in Configuration Tree");
le_cfg_IteratorRef_t eCallCfgRef = le_cfg_CreateReadTxn(CFG_ECALL_APP_PATH);
// Get PSAP
if (le_cfg_NodeExists(eCallCfgRef, CFG_NODE_PSAP))
{
if ( le_cfg_GetString(eCallCfgRef, CFG_NODE_PSAP, psapStr, sizeof(psapStr), "") != LE_OK )
{
LE_FATAL("No node value set for '%s', exit the app!", CFG_NODE_PSAP);
}
LE_DEBUG("eCall settings, PSAP number is %s", psapStr);
if (le_ecall_SetPsapNumber(psapStr) != LE_OK)
{
LE_FATAL("Cannot set PSAP number, exit the app!");
}
}
else
{
LE_FATAL("No value set for '%s', restart the app!", CFG_NODE_PSAP);
}
// Get minimum horizontal accuracy
if (le_cfg_NodeExists(eCallCfgRef, CFG_NODE_H_MIN_ACCURACY))
{
*hMinAccuracyPtr = le_cfg_GetInt(eCallCfgRef, CFG_NODE_H_MIN_ACCURACY, DEFAULT_H_ACCURACY);
LE_DEBUG("eCall app settings, horizontal accuracy is %d meter(s)", *hMinAccuracyPtr);
}
else
{
*hMinAccuracyPtr = DEFAULT_H_ACCURACY;
}
// Get minimum direction accuracy
if (le_cfg_NodeExists(eCallCfgRef, CFG_NODE_DIR_MIN_ACCURACY))
{
*dirMinAccuracyPtr = le_cfg_GetInt(eCallCfgRef, CFG_NODE_DIR_MIN_ACCURACY, DEFAULT_DIR_ACCURACY);
LE_DEBUG("eCall app settings, direction accuracy is %d degree(s)", *dirMinAccuracyPtr);
}
else
{
*dirMinAccuracyPtr = DEFAULT_DIR_ACCURACY;
}
le_cfg_CancelTxn(eCallCfgRef);
}
//--------------------------------------------------------------------------------------------------
static int GetRebootCount
(
void
)
{
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(BOOT_COUNT_CFG);
int bootCount = le_cfg_GetInt(iterRef, BOOT_COUNT_CFG_VAR, -1);
le_cfg_CancelTxn(iterRef);
return bootCount;
}
//--------------------------------------------------------------------------------------------------
LE_SHARED appCfg_Iter_t appCfg_CreateAppsIter
(
void
)
{
AppsIter_t* iterPtr = le_mem_ForceAlloc(AppIterPool);
iterPtr->type = ITER_TYPE_APP;
iterPtr->cfgIter = le_cfg_CreateReadTxn(CFG_APPS_LIST);
iterPtr->atFirst = true;
return iterPtr;
}
//--------------------------------------------------------------------------------------------------
static le_result_t LoadRatList
(
const char *ratPath,
uint32_t *ratMaskPtr
)
{
uint32_t idx=0;
LE_DEBUG("Load Rat Preference <%s>",ratPath);
le_cfg_IteratorRef_t ratCfg = le_cfg_CreateReadTxn(ratPath);
*ratMaskPtr = 0;
do {
// Get the node name.
char ratNodeName[LIMIT_MAX_PATH_BYTES] = {0};
char ratNodeValue[LIMIT_MAX_PATH_BYTES] = {0};
sprintf(ratNodeName,PATTERN_RAT"%d",idx);
// This is the exist state for the loop
if (le_cfg_IsEmpty(ratCfg, ratNodeName))
{
LE_DEBUG("'%s' does not exist. stop reading configuration", ratNodeName);
break;
}
if ( le_cfg_GetString(ratCfg,ratNodeName,ratNodeValue,sizeof(ratNodeValue), "") != LE_OK )
{
LE_WARN("Node value string for '%s' too large.",ratNodeName);
le_cfg_CancelTxn(ratCfg);
return LE_NOT_POSSIBLE;
}
if ( strncmp(ratNodeName,"",sizeof(ratNodeName)) == 0 )
{
LE_WARN("No node value set for '%s'",ratNodeName);
le_cfg_CancelTxn(ratCfg);
return LE_NOT_POSSIBLE;
}
*ratMaskPtr |= ConvertRatValue(ratNodeValue);
++idx;
} while (true);
le_cfg_CancelTxn(ratCfg);
return LE_OK;
}
static void ClearTree()
{
LE_INFO("---- Clearing Out Current Tree -----------------------------------------------------");
le_cfg_IteratorRef_t iterRef = le_cfg_CreateWriteTxn(TestRootDir);
LE_FATAL_IF(iterRef == NULL, "Test: %s - Could not create iterator.", TestRootDir);
DumpTree(iterRef, 0);
le_cfg_DeleteNode(iterRef, "");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateReadTxn(TestRootDir);
DumpTree(iterRef, 0);
le_cfg_CancelTxn(iterRef);
}
//--------------------------------------------------------------------------------------------------
static le_result_t GetEnvironmentVariables
(
proc_Ref_t procRef, ///< [IN] The process to get the environment variables for.
EnvVar_t envVars[], ///< [IN] The list of environment variables.
size_t maxNumEnvVars ///< [IN] The maximum number of items envVars can hold.
)
{
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
le_cfg_GoToNode(procCfg, CFG_NODE_ENV_VARS);
if (le_cfg_GoToFirstChild(procCfg) != LE_OK)
{
LE_WARN("No environment variables for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_NOT_FOUND;
}
int i;
for (i = 0; i < maxNumEnvVars; i++)
{
if ( (le_cfg_GetNodeName(procCfg, "", envVars[i].name, LIMIT_MAX_ENV_VAR_NAME_BYTES) != LE_OK) ||
(le_cfg_GetString(procCfg, "", envVars[i].value, LIMIT_MAX_PATH_BYTES, "") != LE_OK) )
{
LE_ERROR("Error reading environment variables for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
if (le_cfg_GoToNextSibling(procCfg) != LE_OK)
{
break;
}
else if (i >= maxNumEnvVars-1)
{
LE_ERROR("There were too many environment variables for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
}
le_cfg_CancelTxn(procCfg);
return i + 1;
}
//--------------------------------------------------------------------------------------------------
wdog_action_WatchdogAction_t proc_GetWatchdogAction
(
proc_Ref_t procRef ///< [IN] The process reference.
)
{
// No actions are performed here. This just looks up the action for this process.
// The result is passed back up to app to handle as with fault action.
wdog_action_WatchdogAction_t watchdogAction = WATCHDOG_ACTION_NOT_FOUND;
{
if (procRef->paused)
{
return WATCHDOG_ACTION_HANDLED;
};
// Read the process's fault action from the config tree.
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
char watchdogActionStr[LIMIT_MAX_FAULT_ACTION_NAME_BYTES];
le_result_t result = le_cfg_GetString(procCfg, wdog_action_GetConfigNode(),
watchdogActionStr, sizeof(watchdogActionStr), "");
le_cfg_CancelTxn(procCfg);
// Set the watchdog action based on the fault action string.
if (result == LE_OK)
{
LE_WARN("%s watchdogAction '%s' in proc section", procRef->name, watchdogActionStr);
watchdogAction = wdog_action_EnumFromString(watchdogActionStr);
if (WATCHDOG_ACTION_ERROR == watchdogAction)
{
LE_WARN("%s watchdogAction '%s' unknown", procRef->name, watchdogActionStr);
}
}
else
{
LE_CRIT("Watchdog action string for process '%s' is too long.",
procRef->name);
watchdogAction = WATCHDOG_ACTION_ERROR;
}
}
return watchdogAction;
}
// -------------------------------------------------------------------------------------------------
static int HandleGetUserFriendly
(
const char* nodePathPtr ///< Path to the node in the tree.
)
// -------------------------------------------------------------------------------------------------
{
// Start a read transaction at the specified node path. Then dump the value, (if any.)
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(nodePathPtr);
switch (le_cfg_GetNodeType(iterRef, ""))
{
case LE_CFG_TYPE_EMPTY:
// Nothing to do here.
break;
case LE_CFG_TYPE_STEM:
DumpTree(iterRef, 0);
break;
case LE_CFG_TYPE_BOOL:
if (le_cfg_GetBool(iterRef, "", false))
{
printf("true\n");
}
else
{
printf("false\n");
}
break;
default:
{
char nodeValue[LE_CFG_STR_LEN_BYTES] = "";
le_cfg_GetString(iterRef, "", nodeValue, LE_CFG_STR_LEN_BYTES, "");
printf("%s\n", nodeValue);
}
break;
}
le_cfg_CancelTxn(iterRef);
return EXIT_SUCCESS;
}
//--------------------------------------------------------------------------------------------------
LE_SHARED appCfg_Iter_t appCfg_CreateAppProcIter
(
appCfg_Iter_t appIterRef ///< [IN] Apps iterator
)
{
CheckFor(appIterRef, ITER_TYPE_APP);
char pathStr[LE_CFG_STR_LEN_BYTES] = "";
le_cfg_GetPath(appIterRef->cfgIter, "", pathStr, sizeof(pathStr));
AppsIter_t* iterPtr = le_mem_ForceAlloc(AppIterPool);
iterPtr->type = ITER_TYPE_PROC;
iterPtr->cfgIter = le_cfg_CreateReadTxn(pathStr);
le_cfg_GoToNode(iterPtr->cfgIter, CFG_PROCS_LIST);
iterPtr->atFirst = true;
return iterPtr;
}
static void DeleteTest()
{
static char pathBuffer[STR_SIZE] = { 0 };
snprintf(pathBuffer, STR_SIZE, "%s/deleteTest/", TestRootDir);
le_cfg_IteratorRef_t iterRef = le_cfg_CreateWriteTxn(pathBuffer);
le_cfg_SetString(iterRef, "valueA", "aNewValue");
le_cfg_SetString(iterRef, "valueB", "aNewValue");
le_cfg_SetString(iterRef, "valueC", "aNewValue");
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "aNewValue");
TestValue(iterRef, "valueC", "aNewValue");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateWriteTxn(pathBuffer);
le_cfg_DeleteNode(iterRef, "valueB");
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "");
TestValue(iterRef, "valueC", "aNewValue");
le_cfg_CommitTxn(iterRef);
iterRef = le_cfg_CreateReadTxn(pathBuffer);
TestValue(iterRef, "valueA", "aNewValue");
TestValue(iterRef, "valueB", "");
TestValue(iterRef, "valueC", "aNewValue");
DumpTree(iterRef, 0);
le_cfg_CancelTxn(iterRef);
}
//--------------------------------------------------------------------------------------------------
rlim_t resLim_GetSandboxedAppTmpfsLimit
(
app_Ref_t appRef ///< [IN] The application to set resource limits for.
)
{
// Get the resource limit from the config tree. Zero means unlimited for tmpfs mounts and is
// not allowed.
// Determine the file system limit to set.
rlim_t fileSysLimit = DEFAULT_LIMIT_FILE_SYSTEM_SIZE;
// Create a config iterator to get the file system limit from the config tree.
le_cfg_IteratorRef_t appCfg = le_cfg_CreateReadTxn(app_GetConfigPath(appRef));
le_cfg_GoToNode(appCfg, CFG_NODE_LIMIT_FILE_SYSTEM_SIZE);
if (le_cfg_NodeExists(appCfg, "") == false)
{
LE_WARN("No resource limit %s. Assuming the default value %d.",
CFG_NODE_LIMIT_FILE_SYSTEM_SIZE,
DEFAULT_LIMIT_FILE_SYSTEM_SIZE);
}
else if ( (GetCfgResourceLimit(appCfg, &fileSysLimit) != LE_OK) ||
(fileSysLimit == 0) )
{
// Use the default limit.
LE_ERROR("Configured resource limit %s is invalid. Assuming the default value %d.",
CFG_NODE_LIMIT_FILE_SYSTEM_SIZE,
DEFAULT_LIMIT_FILE_SYSTEM_SIZE);
fileSysLimit = DEFAULT_LIMIT_FILE_SYSTEM_SIZE;
}
le_cfg_CancelTxn(appCfg);
return fileSysLimit;
}
//--------------------------------------------------------------------------------------------------
static void Load
(
void
)
//--------------------------------------------------------------------------------------------------
{
le_result_t result;
// Connect to the Configuration API server.
le_cfg_ConnectService();
// Initialize the "User API".
user_Init();
// Start a read transaction on the root of the "system" configuration tree.
le_cfg_IteratorRef_t i = le_cfg_CreateReadTxn("system:");
// Tell the Service Directory to delete all existing bindings.
SendUnbindAllRequest();
// Iterate over the users collection.
le_cfg_GoToNode(i, "/users");
result = le_cfg_GoToFirstChild(i);
while (result == LE_OK)
{
uid_t uid;
if (GetUserUid(i, &uid) == LE_OK)
{
// For each user, iterate over the bindings collection, sending the binding to
// the Service Directory.
le_cfg_GoToNode(i, "bindings");
result = le_cfg_GoToFirstChild(i);
while (result == LE_OK)
{
SendBindRequest(uid, i);
result = le_cfg_GoToNextSibling(i);
}
// Go back up to the user name node.
le_cfg_GoToNode(i, "../..");
}
// Move on to the next user.
result = le_cfg_GoToNextSibling(i);
}
// Iterate over the apps collection.
le_cfg_GoToNode(i, "/apps");
result = le_cfg_GoToFirstChild(i);
while (result == LE_OK)
{
uid_t uid;
if (GetAppUid(i, &uid) == LE_OK)
{
// For each app, iterate over the bindings collection, sending the binding to
// the Service Directory.
le_cfg_GoToNode(i, "bindings");
result = le_cfg_GoToFirstChild(i);
while (result == LE_OK)
{
SendBindRequest(uid, i);
result = le_cfg_GoToNextSibling(i);
}
// Go back up to the app's node.
le_cfg_GoToNode(i, "../..");
}
// Move on to the next app.
result = le_cfg_GoToNextSibling(i);
}
exit(EXIT_SUCCESS);
}
//--------------------------------------------------------------------------------------------------
static le_result_t GetArgs
(
proc_Ref_t procRef, ///< [IN] The process to get the args for.
char argsBuffers[LIMIT_MAX_NUM_CMD_LINE_ARGS][LIMIT_MAX_ARGS_STR_BYTES], ///< [OUT] A pointer to
/// an array of buffers
/// used to store
/// arguments.
char* argsPtr[NUM_ARGS_PTRS] ///< [OUT] An array of pointers that will point to the valid
/// arguments list. The list is terminated by NULL.
)
{
// Get a config iterator to the arguments list.
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
le_cfg_GoToNode(procCfg, CFG_NODE_ARGS);
if (le_cfg_GoToFirstChild(procCfg) != LE_OK)
{
LE_ERROR("No arguments for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
size_t ptrIndex = 0;
size_t bufIndex = 0;
// Record the executable path.
if (le_cfg_GetString(procCfg, "", argsBuffers[bufIndex], LIMIT_MAX_ARGS_STR_BYTES, "") != LE_OK)
{
LE_ERROR("Error reading argument '%s...' for process '%s'.",
argsBuffers[bufIndex],
procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
argsPtr[ptrIndex++] = argsBuffers[bufIndex++];
// Record the process name in the list.
argsPtr[ptrIndex++] = procRef->name;
// Record the arguments in the caller's list of buffers.
while(1)
{
if (le_cfg_GoToNextSibling(procCfg) != LE_OK)
{
// Terminate the list.
argsPtr[ptrIndex] = NULL;
break;
}
else if (bufIndex >= LIMIT_MAX_NUM_CMD_LINE_ARGS)
{
LE_ERROR("Too many arguments for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
if (le_cfg_IsEmpty(procCfg, ""))
{
LE_ERROR("Empty node in argument list for process '%s'.", procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
if (le_cfg_GetString(procCfg, "", argsBuffers[bufIndex],
LIMIT_MAX_ARGS_STR_BYTES, "") != LE_OK)
{
LE_ERROR("Argument too long '%s...' for process '%s'.",
argsBuffers[bufIndex],
procRef->name);
le_cfg_CancelTxn(procCfg);
return LE_FAULT;
}
// Point to the string.
argsPtr[ptrIndex++] = argsBuffers[bufIndex++];
}
le_cfg_CancelTxn(procCfg);
return LE_OK;
}
//--------------------------------------------------------------------------------------------------
static void LoadPreferredList
(
)
{
uint32_t idx = 0;
le_dls_List_t preferredNetworkList = LE_DLS_LIST_INIT;
// Check that the modemRadioControl has a configuration value for preferred list.
le_cfg_IteratorRef_t mrcCfg = le_cfg_CreateReadTxn(CFG_MODEMSERVICE_MRC_PATH"/"CFG_NODE_PREFERREDLIST);
if (le_cfg_NodeExists(mrcCfg,"") == false)
{
LE_DEBUG("'%s' does not exist. Stop reading configuration",
CFG_MODEMSERVICE_MRC_PATH"/"CFG_NODE_PREFERREDLIST);
le_cfg_CancelTxn(mrcCfg);
return;
}
// Read all network from configDB
do
{
uint32_t ratMask;
char mccNodePath[LIMIT_MAX_PATH_BYTES] = {0};
char mncNodePath[LIMIT_MAX_PATH_BYTES] = {0};
char ratNodePath[LIMIT_MAX_PATH_BYTES] = {0};
char mccStr[LIMIT_MAX_PATH_BYTES] = {0};
char mncStr[LIMIT_MAX_PATH_BYTES] = {0};
// Get the node name.
char nodeName[LIMIT_MAX_PATH_BYTES] = {0};
sprintf(nodeName,PATTERN_NETWORK"%d",idx);
if (le_cfg_IsEmpty(mrcCfg, nodeName))
{
LE_DEBUG("'%s' does not exist. stop reading configuration", nodeName);
break;
}
snprintf(mccNodePath, sizeof(mccNodePath), "%s/%s",nodeName,CFG_NODE_MCC);
snprintf(mncNodePath, sizeof(mncNodePath), "%s/%s",nodeName,CFG_NODE_MNC);
snprintf(ratNodePath, sizeof(ratNodePath),
CFG_MODEMSERVICE_MRC_PATH"/"CFG_NODE_PREFERREDLIST"/%s/%s",nodeName,CFG_NODE_RAT);
if ( le_cfg_GetString(mrcCfg,mccNodePath,mccStr,sizeof(mccStr),"") != LE_OK )
{
LE_WARN("String value for '%s' too large.",mccNodePath);
break;
}
if ( strcmp(mccStr,"") == 0 )
{
LE_WARN("No node value set for '%s'",mccNodePath);
break;
}
if ( le_cfg_GetString(mrcCfg,mncNodePath,mncStr,sizeof(mncStr),"") != LE_OK )
{
LE_WARN("String value for '%s' too large.",mncNodePath);
break;
}
if ( strcmp(mncStr,"") == 0 )
{
LE_WARN("No node value set for '%s'",mncNodePath);
break;
}
if ( LoadRatList(ratNodePath,&ratMask) != LE_OK )
{
LE_WARN("Could not read rat information in '%s'",ratNodePath);
break;
}
if ( pa_mrc_AddPreferredNetwork(&preferredNetworkList,mccStr,mncStr,ratMask) != LE_OK )
{
LE_WARN("Could not add [%s,%s] into the preferred list",mccStr,mncStr);
}
++idx;
}
while (true);
le_cfg_CancelTxn(mrcCfg);
if ( pa_mrc_SavePreferredList(&preferredNetworkList) != LE_OK )
{
LE_WARN("Could not save the preferred list");
}
pa_mrc_ClearPreferedList(&preferredNetworkList);
}
//--------------------------------------------------------------------------------------------------
static void LoadScanMode
(
)
{
char configPath[LIMIT_MAX_PATH_BYTES];
snprintf(configPath, sizeof(configPath), "%s/%s",CFG_MODEMSERVICE_MRC_PATH,CFG_NODE_SCANMODE);
LE_DEBUG("Start reading MRC scanMode information in ConfigDB");
le_cfg_IteratorRef_t mrcCfg = le_cfg_CreateReadTxn(configPath);
do
{
if ( le_cfg_GetBool(mrcCfg,CFG_NODE_MANUAL,false) )
{
char mccStr[LIMIT_MAX_PATH_BYTES] = {0};
char mncStr[LIMIT_MAX_PATH_BYTES] = {0};
if ( le_cfg_GetString(mrcCfg,CFG_NODE_MCC,mccStr,sizeof(mccStr),"") != LE_OK )
{
LE_WARN("String value for '%s' too large.",CFG_NODE_MCC);
break;
}
if ( strcmp(mccStr,"") == 0 )
{
LE_WARN("No node value set for '%s'",CFG_NODE_MCC);
break;
}
if ( le_cfg_GetString(mrcCfg,CFG_NODE_MNC,mncStr,sizeof(mncStr),"") != LE_OK )
{
LE_WARN("String value for '%s' too large.",CFG_NODE_MNC);
break;
}
if ( strcmp(mncStr,"") == 0 )
{
LE_WARN("No node value set for '%s'",CFG_NODE_MNC);
break;
}
if ( le_mrc_ConnectCellularNetwork(mccStr,mncStr) != LE_OK )
{
LE_WARN("Could not connect to Network [%s,%s]",mccStr ,mncStr);
break;
}
}
else
{
if ( pa_mrc_SetAutomaticNetworkRegistration() != LE_OK )
{
LE_WARN("Could not set the Automatic Network Registration");
break;
}
}
} while (false);
le_cfg_CancelTxn(mrcCfg);
}
static void StringSizeTest()
{
le_result_t result;
static char pathBuffer[STR_SIZE] = { 0 };
static char parentPathBuffer[STR_SIZE] = { 0 };
static char smallPathBuffer[SMALL_STR_SIZE + 1] = { 0 };
static char smallParentPathBuffer[SMALL_STR_SIZE + 1] = { 0 };
snprintf(pathBuffer, STR_SIZE, "%s/stringSizeTest/strVal", TestRootDir);
snprintf(parentPathBuffer, STR_SIZE, "%s/stringSizeTest/", TestRootDir);
strncpy(smallPathBuffer, pathBuffer, SMALL_STR_SIZE);
strncpy(smallParentPathBuffer, parentPathBuffer, SMALL_STR_SIZE);
le_cfg_QuickSetString(pathBuffer, "This is a bigger string than may be usual for this test.");
static char buffer[STR_SIZE];
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(pathBuffer);
result = le_cfg_GetPath(iterRef, "", buffer, SMALL_STR_SIZE);
LE_FATAL_IF(result != LE_OVERFLOW,
"Test: %s - The buffer should have been too small.",
TestRootDir);
LE_FATAL_IF(strcmp(buffer, smallPathBuffer) == 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
result = le_cfg_GetString(iterRef, "", buffer, SMALL_STR_SIZE, "");
LE_FATAL_IF(result != LE_OVERFLOW,
"Test: %s - The buffer should have been too small.",
TestRootDir);
LE_FATAL_IF(strcmp(buffer, "This ") == 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
result = le_cfg_GetPath(iterRef, "", buffer, STR_SIZE);
LE_FATAL_IF(result != LE_OK,
"Test: %s - The buffer should have been big enough.",
TestRootDir);
LE_FATAL_IF(strcmp(buffer, pathBuffer) != 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
result = le_cfg_GetString(iterRef, "", buffer, STR_SIZE, "");
LE_FATAL_IF(result != LE_OK, "Test: %s - The buffer should have been big enough.", TestRootDir);
LE_FATAL_IF(strcmp(buffer, "This is a bigger string than may be usual for this test.") != 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
le_cfg_CancelTxn(iterRef);
result = le_cfg_QuickGetString(pathBuffer, buffer, SMALL_STR_SIZE, "");
LE_FATAL_IF(result != LE_OVERFLOW,
"Test: %s - The buffer should have been too small.",
TestRootDir);
LE_FATAL_IF(strcmp(buffer, "This ") == 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
result = le_cfg_QuickGetString(pathBuffer, buffer, STR_SIZE, "");
LE_FATAL_IF(result != LE_OK,
"Test: %s - The buffer should have been big enough.",
TestRootDir);
LE_FATAL_IF(strcmp(buffer, "This is a bigger string than may be usual for this test.") != 0,
"Test: %s - Unexpected value returned, %s",
TestRootDir,
buffer);
}
// -------------------------------------------------------------------------------------------------
static int HandleGetJSON
(
const char* nodePathPtr, ///< Path to the node in the configTree.
const char* filePathPtr ///< Path to the file in the file system. If NULL STDOUT is used
///< instead of a file.
)
// -------------------------------------------------------------------------------------------------
{
json_t* nodePtr = NULL;
// Get the node path from our command line arguments.
if (strcmp("*", nodePathPtr) == 0)
{
// Dump all trees
// Create JSON root item
json_t* rootPtr = CreateJsonNode("root", "root");
json_t* treeListPtr = json_array();
// Loop through the trees in the system.
le_cfgAdmin_IteratorRef_t iteratorRef = le_cfgAdmin_CreateTreeIterator();
while (le_cfgAdmin_NextTree(iteratorRef) == LE_OK)
{
// Allocate space for the tree name, plus space for a trailing :/ used when we create a
// transaction for that tree.
char treeName[MAX_TREE_NAME_BYTES + 2] = "";
if (le_cfgAdmin_GetTreeName(iteratorRef, treeName, MAX_TREE_NAME_BYTES) != LE_OK)
{
continue;
}
// JSON node for the tree.
json_t* treeNodePtr = CreateJsonNode(treeName, "tree");
strcat(treeName, ":/");
// Start a read transaction at the specified node path. Then dump the value, (if any.)
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(treeName);
le_cfg_GoToFirstChild(iterRef);
// Dump tree to JSON
DumpTreeJSON(iterRef, treeNodePtr);
le_cfg_CancelTxn(iterRef);
json_array_append(treeListPtr, treeNodePtr);
}
le_cfgAdmin_ReleaseTreeIterator(iteratorRef);
// Finalize root object...
json_object_set_new(rootPtr, "trees", treeListPtr);
nodePtr = rootPtr;
}
else
{
// Start a read transaction at the specified node path. Then dump the value, (if any.)
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(nodePathPtr);
le_cfg_nodeType_t type = le_cfg_GetNodeType(iterRef, "");
switch (type)
{
case LE_CFG_TYPE_STEM:
{
char strBuffer[LE_CFG_STR_LEN_BYTES] = "";
char nodeType[LE_CFG_STR_LEN_BYTES] = "";
le_cfg_GetNodeName(iterRef, "", strBuffer, sizeof(strBuffer));
// If no name, we are dumping a complete tree.
if (strlen(strBuffer) == 0)
{
strcpy(nodeType, "tree");
}
else
{
strcpy(nodeType, NodeTypeStr(type));
}
nodePtr = CreateJsonNode(strBuffer, nodeType);
le_cfg_GoToFirstChild(iterRef);
DumpTreeJSON(iterRef, nodePtr);
le_cfg_GoToParent(iterRef);
}
break;
default:
nodePtr = CreateJsonNodeFromIterator(iterRef);
break;
}
le_cfg_CancelTxn(iterRef);
}
if (nodePtr == NULL)
{
// Empty node
nodePtr = json_object();
}
// Dump Json content
// stdout mode?
int result = EXIT_SUCCESS;
if (filePathPtr == NULL)
{
printf("%s\n", json_dumps(nodePtr, JSON_COMPACT));
}
else if (json_dump_file(nodePtr, filePathPtr, JSON_COMPACT) != 0)
{
result = EXIT_FAILURE;
}
json_decref(nodePtr);
return result;
}
//--------------------------------------------------------------------------------------------------
static proc_FaultAction_t GetFaultAction
(
proc_Ref_t procRef ///< [IN] The process reference.
)
{
if (procRef->cmdKill)
{
// The cmdKill flag was set which means the process died because we killed it so
// it was not a fault. Reset the cmdKill flag so that if this process is restarted
// faults will still be caught.
procRef->cmdKill = false;
return PROC_FAULT_ACTION_NO_FAULT;
}
// Record the fault time.
procRef->faultTime = (le_clk_GetAbsoluteTime()).sec;
// Read the process's fault action from the config tree.
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
char faultActionStr[LIMIT_MAX_FAULT_ACTION_NAME_BYTES];
le_result_t result = le_cfg_GetString(procCfg, CFG_NODE_FAULT_ACTION,
faultActionStr, sizeof(faultActionStr), "");
le_cfg_CancelTxn(procCfg);
// Set the fault action based on the fault action string.
if (result != LE_OK)
{
LE_CRIT("Fault action string for process '%s' is too long. Assume fault action is 'ignore'.",
procRef->name);
return PROC_FAULT_ACTION_IGNORE;
}
if (strcmp(faultActionStr, RESTART_STR) == 0)
{
return PROC_FAULT_ACTION_RESTART;
}
if (strcmp(faultActionStr, RESTART_APP_STR) == 0)
{
return PROC_FAULT_ACTION_RESTART_APP;
}
if (strcmp(faultActionStr, STOP_APP_STR) == 0)
{
return PROC_FAULT_ACTION_STOP_APP;
}
if (strcmp(faultActionStr, REBOOT_STR) == 0)
{
return PROC_FAULT_ACTION_REBOOT;
}
if (strcmp(faultActionStr, IGNORE_STR) == 0)
{
return PROC_FAULT_ACTION_IGNORE;
}
LE_WARN("Unrecognized fault action for process '%s'. Assume fault action is 'ignore'.",
procRef->name);
return PROC_FAULT_ACTION_IGNORE;
}
//--------------------------------------------------------------------------------------------------
le_result_t proc_SetPriority
(
const char* priorStr, ///< [IN] Priority level string.
pid_t pid ///< [IN] PID of the process to set the priority for.
)
{
// Declare these varialbes with the default values.
struct sched_param priority = {.sched_priority = 0};
int policy = SCHED_OTHER;
int niceLevel = MEDIUM_PRIORITY_NICE_LEVEL;
if (strcmp(priorStr, "idle") == 0)
{
policy = SCHED_IDLE;
}
else if (strcmp(priorStr, "low") == 0)
{
niceLevel = LOW_PRIORITY_NICE_LEVEL;
}
else if (strcmp(priorStr, "high") == 0)
{
niceLevel = HIGH_PRIORITY_NICE_LEVEL;
}
else if ( (priorStr[0] == 'r') && (priorStr[1] == 't') )
{
// Get the realtime level from the characters following "rt".
char *endPtr;
errno = 0;
int level = strtol(&(priorStr[2]), &endPtr, 10);
if ( (*endPtr != '\0') || (level < MIN_RT_PRIORITY) ||
(level > MAX_RT_PRIORITY) )
{
LE_WARN("Unrecognized priority level (%s) for process '%d'. Using default priority.",
priorStr, pid);
}
else
{
policy = SCHED_RR;
priority.sched_priority = level;
}
}
else if (strcmp(priorStr, "medium") != 0)
{
LE_WARN("Unrecognized priority level for process '%d'. Using default priority.", pid);
}
// Set the policy and priority.
if (sched_setscheduler(pid, policy, &priority) == -1)
{
LE_ERROR("Could not set the scheduling policy. %m.");
return LE_FAULT;
}
// Set the nice level.
errno = 0;
if (setpriority(PRIO_PROCESS, pid, niceLevel) == -1)
{
LE_ERROR("Could not set the nice level. %m.");
return LE_FAULT;
}
return LE_OK;
}
//--------------------------------------------------------------------------------------------------
/**
* Sets the scheduling policy, priority and/or nice level for the specified process based on the
* process' configuration settings in the config tree.
*
* @note This function kills the specified process if there is an error.
*/
//--------------------------------------------------------------------------------------------------
static void SetSchedulingPriority
(
proc_Ref_t procRef ///< [IN] The process to set the priority for.
)
{
// Read the priority setting from the config tree.
le_cfg_IteratorRef_t procCfg = le_cfg_CreateReadTxn(procRef->cfgPathRoot);
char priorStr[LIMIT_MAX_PRIORITY_NAME_BYTES];
if (le_cfg_GetString(procCfg, CFG_NODE_PRIORITY, priorStr, sizeof(priorStr), "medium") != LE_OK)
{
LE_CRIT("Priority string for process %s is too long. Using default priority.", procRef->name);
LE_ASSERT(le_utf8_Copy(priorStr, "medium", sizeof(priorStr), NULL) == LE_OK);
}
le_cfg_CancelTxn(procCfg);
if (proc_SetPriority(priorStr, procRef->pid) != LE_OK)
{
kill_Hard(procRef->pid);
}
}
//--------------------------------------------------------------------------------------------------
le_result_t le_cellnet_GetSimPinCode
(
le_sim_Id_t simId,
///< [IN]
///< SIM identifier.
char* pinCodePtr,
///< [OUT]
///< Read the PIN code from the config tree.
size_t pinCodeNumElements
///< [IN]
)
{
le_result_t result=LE_OK;
LE_DEBUG("simId= %d",simId);
if (simId >= LE_SIM_ID_MAX)
{
LE_ERROR("Invalid simId (%d) provided!", simId);
result = LE_OUT_OF_RANGE;
}
else
{
// Set the configuration path for the SIM.
char configPath[LIMIT_MAX_PATH_BYTES];
char simPin[LE_SIM_PIN_MAX_BYTES] = {0};
le_cfg_IteratorRef_t simCfgRef;
snprintf(configPath,
sizeof(configPath),
"%s/%d",
CFG_MODEMSERVICE_SIM_PATH, simId);
// Check that the app has a configuration value.
simCfgRef = le_cfg_CreateReadTxn(configPath);
// test if the node exists
if (!le_cfg_NodeExists(simCfgRef, CFG_NODE_PIN))
{
LE_ERROR("SIM PIN node isn't found in the config tree");
result = LE_NOT_FOUND;
}
else
{
//read config tree
result = le_cfg_GetString(simCfgRef,CFG_NODE_PIN,simPin,sizeof(simPin),"");
if (result != LE_OK)
{
LE_ERROR("retrieved SIM PIN code exceeds the supplied buffer");
result = LE_OVERFLOW;
}
else
{
//void entry is taken into account
if ((strncmp(simPin,"",LE_SIM_PIN_MAX_LEN)!=0) &&
(strlen(simPin) < LE_SIM_PIN_MIN_LEN))
{
LE_ERROR("retrieved SIM PIN code is not long enough (min 4 digits) ");
result = LE_UNDERFLOW;
}
else
{
//copy pincode
strncpy ( pinCodePtr, simPin, sizeof(simPin) );
LE_DEBUG("SIM PIN code= %s retrieved OK",pinCodePtr);
}
}
}
le_cfg_CancelTxn(simCfgRef);
}
return result;
}
//--------------------------------------------------------------------------------------------------
static assetData_InstanceDataRef_t GetObject9InstanceForApp
(
const char* appName, ///< Name of the application in question.
bool mapIfNotFound ///< If an instance was created, should a mapping be created for it?
)
//--------------------------------------------------------------------------------------------------
{
LE_DEBUG("Getting object 9 instance for application '%s'.", appName);
// Attempt to read the mapping from the configuration.
assetData_InstanceDataRef_t instanceRef = NULL;
le_cfg_IteratorRef_t iterRef = le_cfg_CreateReadTxn(CFG_OBJECT_INFO_PATH);
le_cfg_GoToNode(iterRef, appName);
int instanceId = le_cfg_GetInt(iterRef, "oiid", -1);
le_cfg_CancelTxn(iterRef);
if (instanceId != -1)
{
LE_DEBUG("Was mapped to instance, %d.", instanceId);
// Looks like there was a mapping. Try to get that instance and make sure it's not taken
// by another application. If the instance was taken by another application, remap this
// application to a new instance and update the mapping.
if (LE_OK == assetData_GetInstanceRefById(LWM2M_NAME,
LWM2M_SOFTWARE_UPDATE,
instanceId,
&instanceRef))
{
char newName[MAX_APP_NAME_BYTES] = "";
LE_ASSERT(assetData_client_GetString(instanceRef,
O9F_PKG_NAME,
newName,
sizeof(newName)) == LE_OK);
if (strcmp(newName, appName) != 0)
{
LE_DEBUG("Instance has been taken by '%s', creating new.", newName);
LE_ASSERT(assetData_CreateInstanceById(LWM2M_NAME, 9, -1, &instanceRef) == LE_OK);
LE_ASSERT(assetData_client_SetString(instanceRef, O9F_PKG_NAME, appName) == LE_OK);
if (mapIfNotFound)
{
LE_DEBUG("Recording new instance id.");
SetObject9InstanceForApp(appName, instanceRef);
}
}
else
{
LE_DEBUG("Instance is existing and has been reused.");
}
}
else
{
LE_DEBUG("No instance found, creating new as mapped.");
LE_ASSERT(assetData_CreateInstanceById(LWM2M_NAME,
9,
instanceId,
&instanceRef) == LE_OK);
LE_ASSERT(assetData_client_SetString(instanceRef, O9F_PKG_NAME, appName) == LE_OK);
}
}
else
{
LE_DEBUG("No instance mapping found, creating new.");
// A mapping was not found. So create a new object, and let the data store assign an
// instance Id. If desired, at this point record the instance mapping for later use.
LE_ASSERT(assetData_CreateInstanceById(LWM2M_NAME, 9, -1, &instanceRef) == LE_OK);
LE_ASSERT(assetData_client_SetString(instanceRef, O9F_PKG_NAME, appName) == LE_OK);
if (mapIfNotFound)
{
LE_DEBUG("Recording new instance id.");
SetObject9InstanceForApp(appName, instanceRef);
}
}
return instanceRef;
}
//--------------------------------------------------------------------------------------------------
static void LoadSimFromConfigDb
(
le_sim_Id_t simId
)
{
uint32_t attemptCounter = CONFIGDB_ATTEMPT_MAX;
// Get the configuration path for the SIM.
char configPath[LIMIT_MAX_PATH_BYTES];
snprintf(configPath, sizeof(configPath), "%s/%d",
CFG_MODEMSERVICE_SIM_PATH,
simId);
LE_DEBUG("Start reading SIM-%d information in ConfigDB",simId);
le_result_t result;
le_sim_States_t simState;
do
{
simState = le_sim_GetState(simId);
switch (simState)
{
case LE_SIM_INSERTED:
{
// Check that the app has a configuration value.
le_cfg_IteratorRef_t simCfg = le_cfg_CreateReadTxn(configPath);
char simPin[LIMIT_MAX_PATH_BYTES] = {0};
result = le_cfg_GetString(simCfg,CFG_NODE_PIN,simPin,sizeof(simPin),"");
if ( result != LE_OK )
{
LE_WARN("PIN string too large for SIM-%d",simId);
le_cfg_CancelTxn(simCfg);
return;
}
if ( strncmp(simPin,"",sizeof(simPin))==0 )
{
LE_WARN("PIN not set for SIM-%d",simId);
le_cfg_CancelTxn(simCfg);
return;
}
if ( (result = le_sim_EnterPIN(simId,simPin)) != LE_OK )
{
LE_ERROR("Error.%d Failed to enter SIM pin for SIM-%d",result,simId);
le_cfg_CancelTxn(simCfg);
return;
}
LE_DEBUG("Sim-%d is unlocked", simId);
le_cfg_CancelTxn(simCfg);
attemptCounter = 1;
break;
}
case LE_SIM_BLOCKED:
{
LE_EMERG("Be carefull the sim-%d is BLOCKED, need to enter PUK code",simId);
attemptCounter = 1;
break;
}
case LE_SIM_BUSY:
if (attemptCounter==1)
{
LE_WARN("Could not load the configuration because "
"the SIM is still busy after %d attempts", CONFIGDB_ATTEMPT_MAX);
}
else
{
LE_WARN("Sim-%d was busy when loading configuration,"
"retry in 1 seconds",simId);
}
sleep(1); // Retry in 1 second.
break;
case LE_SIM_READY:
LE_DEBUG("Sim-%d is ready",simId);
attemptCounter = 1;
break;
case LE_SIM_ABSENT:
LE_WARN("Sim-%d is absent",simId);
attemptCounter = 1;
break;
case LE_SIM_STATE_UNKNOWN:
break;
}
} while (--attemptCounter);
LE_DEBUG("Load SIM information is done");
}