WebSVN – f9daq – Blame – /cvi/instr/MPOD/WIENER_SNMP.c

Rev	Author	Line No.	Line
151	f9daq	1	// WIENER SNMP basic SNMP library to Demonstrate C-Access to WIENER-Crates via SNMP
		2	// modified for LabView import 04/23/06, Andreas Ruben
		3	//
		4	// The path to the Net-SNMP include files (default /usr/include) must be added to the
		5	// include file search path!
		6	// The following libraries must be included:
		7	// netsnmp.lib ws2_32.lib
		8	// The path to the Net-SNMP library must be added to the linker files.
		9	// /usr/lib
		10	// path for the WIENER MIB file (mibdirs) c:/usr/share/snmp/mibs
		11
		12	#include <windows.h>
		13	#include "toolbox.h"
		14	#include <ansi_c.h>
		15	#include "WIENER_SNMP.h"
		16
		17	#define VER_FILEVERSION 1,1,1,0
		18	#define VER_FILEVERSION_STR "1.1.1.0\0"
		19
		20	#ifdef _MSC_VER
		21	#define strdup _strdup
		22	#define vsnprintf vsprintf_s
		23	#define strPrintf sprintf_s
		24	#else
		25	#define strdup StrDup
		26	#define strPrintf snprintf
		27	#endif
		28
		29	#ifndef UNREFERENCED_PARAMETER
		30	#define UNREFERENCED_PARAMETER(P) (void)(P)
		31	#endif
		32
		33	#define false 0;
		34	#define true 1;
		35
		36
		37	static const char WienerMibFileName[] = "WIENER-CRATE-MIB";
		38	static const char DefaultReadCommunity[] = "public"; ///< default community name for read operations
		39	static const char DefaultWriteCommunity[] = "guru"; ///< default community name for write operation
		40
		41	static char m_readCommunity = (char )DefaultReadCommunity;
		42	static char m_writeCommunity = (char )DefaultWriteCommunity;
		43
		44	/**
		45	* @brief The SnmpObject class is used internally to resolve OIDs and for the SNMP calls.
		46	*/
		47	//class SnmpObject {
		48	//public:
		49	typedef struct {
		50	oid id[MAX_OID_LEN]; ///< The resolved SNMP OID
		51	size_t len; ///< The resolved OIDs length in byte
		52	char desc[100]; ///< The OIDs textual representation, e.g. "sysDescr.0"
		53	} SnmpObject;
		54	//typedef struct snmp_object SnmpObject;
		55
		56	static SnmpObject moduleIndex[MaxSlotsPerCrate];
		57	static SnmpObject moduleDescription[MaxSlotsPerCrate];
		58	static SnmpObject moduleSupply[MaxModuleAuxSupplies][MaxSlotsPerCrate];
		59	static SnmpObject moduleHardwareLimitVoltage[MaxSlotsPerCrate];
		60	static SnmpObject moduleHardwareLimitCurrent[MaxSlotsPerCrate];
		61	static SnmpObject moduleRampSpeedVoltage[MaxSlotsPerCrate];
		62	static SnmpObject moduleRampSpeedCurrent[MaxSlotsPerCrate];
		63	static SnmpObject moduleStatus[MaxSlotsPerCrate];
		64	static SnmpObject moduleEventStatus[MaxSlotsPerCrate];
		65	static SnmpObject moduleDoClear[MaxSlotsPerCrate];
		66	static SnmpObject moduleAuxiliaryMeasurementTemperature[MaxModuleAuxTemperatures][MaxSlotsPerCrate];
		67
		68	static SnmpObject sysDescr;
		69	static SnmpObject sysMainSwitch;
		70	static SnmpObject sysStatus;
		71	static SnmpObject sysVmeSysReset;
		72	static SnmpObject outputNumber;
		73	static SnmpObject groupsNumber;
		74	static SnmpObject highVoltageGroupsSwitch;
		75	static SnmpObject lowVoltageGroupsSwitch;
		76	static SnmpObject ipStaticAddress;
		77
		78	static SnmpObject outputName[MaxChannelsPerCrate];
		79	static SnmpObject outputIndex[MaxChannelsPerCrate];
		80	static SnmpObject outputGroup[MaxChannelsPerCrate];
		81	static SnmpObject outputStatus[MaxChannelsPerCrate];
		82	static SnmpObject outputMeasurementSenseVoltage[MaxChannelsPerCrate];
		83	static SnmpObject outputMeasurementTerminalVoltage[MaxChannelsPerCrate];
		84	static SnmpObject outputMeasurementCurrent[MaxChannelsPerCrate];
		85	static SnmpObject outputMeasurementTemperature[MaxChannelsPerCrate];
		86	static SnmpObject outputSwitch[MaxChannelsPerCrate];
		87	static SnmpObject outputVoltage[MaxChannelsPerCrate];
		88	static SnmpObject outputCurrent[MaxChannelsPerCrate];
		89	static SnmpObject outputVoltageRiseRate[MaxChannelsPerCrate];
		90	static SnmpObject outputVoltageFallRate[MaxChannelsPerCrate];
		91	static SnmpObject outputCurrentRiseRate[MaxChannelsPerCrate];
		92	static SnmpObject outputCurrentFallRate[MaxChannelsPerCrate];
		93	static SnmpObject outputSupervisionBehavior[MaxChannelsPerCrate];
		94	static SnmpObject outputSupervisionMinSenseVoltage[MaxChannelsPerCrate];
		95	static SnmpObject outputSupervisionMaxSenseVoltage[MaxChannelsPerCrate];
		96	static SnmpObject outputSupervisionMaxTerminalVoltage[MaxChannelsPerCrate];
		97	static SnmpObject outputSupervisionMaxCurrent[MaxChannelsPerCrate];
		98	static SnmpObject outputSupervisionMaxTemperature[MaxChannelsPerCrate];
		99	static SnmpObject outputConfigMaxSenseVoltage[MaxChannelsPerCrate];
		100	static SnmpObject outputConfigMaxTerminalVoltage[MaxChannelsPerCrate];
		101	static SnmpObject outputConfigMaxCurrent[MaxChannelsPerCrate];
		102	static SnmpObject outputSupervisionMaxPower[MaxChannelsPerCrate];
		103	static SnmpObject outputTripTimeMaxCurrent[MaxChannelsPerCrate];
		104
		105	static SnmpObject sensorNumber;
		106	static SnmpObject sensorTemperature[MaxSensors];
		107	static SnmpObject sensorWarningThreshold[MaxSensors];
		108	static SnmpObject sensorFailureThreshold[MaxSensors];
		109
		110	//static SnmpObject psFirmwareVersion;
		111	static SnmpObject psSerialNumber;
		112	static SnmpObject psOperatingTime;
		113	static SnmpObject psDirectAccess;
		114	static SnmpObject fanNumberOfFans;
		115	static SnmpObject fanOperatingTime;
		116	//static SnmpObject fanFirmwareVersion;
		117	static SnmpObject fanSerialNumber;
		118	static SnmpObject fanAirTemperature;
		119	static SnmpObject fanSwitchOffDelay;
		120	static SnmpObject fanNominalSpeed;
		121	static SnmpObject fanSpeed[MaxFans];
		122
		123	static SnmpObject psAuxVoltage[MaxPsAuxSupplies];
		124	static SnmpObject psAuxCurrent[MaxPsAuxSupplies];
		125
		126	static SnmpObject snmpCommunityName[MaxCommunities];
		127
		128	//static double snmpSetDouble(HSNMP session, const SnmpObject &object, double value);
		129	static double snmpSetDouble(HSNMP session, const SnmpObject *object, double value);
154	f9daq	130	double snmpGetDouble(HSNMP session, const SnmpObject *object);
151	f9daq	131	static int snmpSetInt(HSNMP session, const SnmpObject *object, int value);
154	f9daq	132	int snmpGetInt(HSNMP session, const SnmpObject *object);
151	f9daq	133	static char snmpGetString(HSNMP session, const SnmpObject object);
		134
		135	char snmpStringBuffer[1024];
		136	char snmpLastErrorBuffer[1024];
		137
		138	SnmpDoubleBuffer snmpDoubleBuffer;
		139	SnmpIntegerBuffer snmpIntegerBuffer;
		140
		141	#ifdef _MSC_VER
		142
		143	BOOL APIENTRY DllMain(HANDLE hModule, DWORD ul_reason_for_call, LPVOID lpReserved)
		144	{
		145	UNREFERENCED_PARAMETER(hModule);
		146	UNREFERENCED_PARAMETER(ul_reason_for_call);
		147	UNREFERENCED_PARAMETER(lpReserved);
		148
		149	return TRUE;
		150	}
		151
		152	#endif
		153
		154	/**
		155	* @brief Simple logging function with printf-like usage.
		156	* @internal
		157	* @param priority
		158	* @param format
		159	*/
		160	static void sysLog(int priority, const char *format, ...)
		161	{
		162	UNREFERENCED_PARAMETER(priority);
		163
		164	va_list vaPrintf;
		165	va_start(vaPrintf, format);
		166	vprintf(format, vaPrintf);
		167	putchar('\n');
		168
		169	// store errors in snmpLastErrorBuffer, which can be read by snmpGetLastError()
		170	if (priority == LOG_ERR)
		171	vsnprintf(snmpLastErrorBuffer, sizeof(snmpLastErrorBuffer), format, vaPrintf);
		172
		173	va_end(vaPrintf);
		174	}
		175
		176	// Helper functions
		177
		178	/**
		179	* @brief Resolves the OID from the textual SNMP description
		180	* and stores the OID in *object.
		181	* @internal
		182	* @param node e.g. "sysMainSwitch"
		183	* @param object the resolved OID
		184	* @return true on success, false otherwise
		185	*/
154	f9daq	186	//static int getNode(const char * const node, SnmpObject *object)
		187	int getNode(const char * const node, SnmpObject *object)
151	f9daq	188	{
		189	object->len = MAX_OID_LEN;
		190	if (!get_node(node, object->id, &object->len)) {
		191	snmp_log(LOG_ERR, "OID %s not found!\n", node);
		192	return false;
		193	}
		194
		195	#ifdef _MSC_VER
		196	strcpy_s(object->desc, sizeof(object->desc), node);
		197	#else
		198	strncpy(object->desc, node, sizeof(object->desc));
		199	#endif
		200
		201	return true;
		202	}
		203
		204	/**
		205	* @brief Resolves the OID from the textual SNMP description
		206	* with appended index and stores the OID in *object.
		207	* @internal
		208	* @param nodeBase e.g. "outputSwitch"
		209	* @param index e.g. 100
		210	* @param object the resolved OID
		211	* @return true on success, false otherwise
		212	*/
		213	static int getIndexNode(const char * const nodeBase, int index, SnmpObject *object)
		214	{
		215	char node[100];
		216
		217	strPrintf(node, sizeof(node), "%s.%i", nodeBase, index);
		218
		219	return getNode(node, object);
		220	}
		221
		222	/**
		223	* @brief Activates logging on stderr console.
		224	* @since 1.1
		225	* @note This is the default setting.
		226	*/
		227	void snmpSetStdErrLog(void)
		228	{
		229	snmp_enable_stderrlog();
		230	}
		231
		232	/**
		233	* @brief Activates logging to the file filename.
		234	* @since 1.1
		235	* @param fileName The full path to the file where all log
		236	* information should go to.
		237	* @note If the specified file already exists,
		238	* new log information is appended.
		239	*/
		240	void snmpSetFileLog(const char * const fileName)
		241	{
		242	snmp_enable_filelog(fileName, 1);
		243	}
		244
		245	/**
		246	* @brief Returns the library four digit version number as unsigned int value.
		247	*
		248	* This allows to check for a specific version number.
		249	* @since 1.1
		250	* @return The version number as unsigned long value, e.g. 0x01010000
		251	*/
		252	unsigned int snmpGetVersion(void)
		253	{
		254	const uint32_t version[] = { VER_FILEVERSION };
		255
		256	return (version[0] << 24) + (version[1] << 16) + (version[2] << 8) + version[3];
		257	}
		258
		259	/**
		260	* @brief Returns the library four digit version number as null-terminated string.
		261	*
		262	* The digits are separated by dots.
		263	* @since 1.1
		264	* @return The version number, e.g. "1.1.0.3"
		265	*/
		266	char *snmpGetVersionString(void)
		267	{
		268	return VER_FILEVERSION_STR;
		269	}
		270
		271	/**
		272	* @brief Setup the default conditions for logging and SNMP passwords.
		273	* @internal
		274	*/
		275	static void setDefaultSettings(void)
		276	{
		277	snmpSetStdErrLog();
		278
		279	m_readCommunity = (char *)DefaultReadCommunity;
		280	m_writeCommunity = (char *)DefaultWriteCommunity;
		281
		282	memset(snmpLastErrorBuffer, 0, sizeof(snmpLastErrorBuffer));
		283	}
		284
		285	/**
		286	* @brief SNMP Initialization.
		287	*
		288	* Resolves all needed OIDs from the MIB file and prepares the SNMP communication.
		289	* The actual connection to a MPOD crate is done with snmpOpen().
		290	* @return true on success, false otherwise (e.g. an OID could not be resolved)
		291	*/
		292	int snmpInit(void)
		293	{
		294	setDefaultSettings();
		295
		296	snmp_log(LOG_DEBUG, "* Initialise SNMP *\n");
		297
		298	init_snmp("WIENER_SNMP_DLL");
		299	init_mib(); // init MIB processing
		300	if (!read_module(WienerMibFileName)) { // read specific mibs
		301	snmp_log(LOG_ERR, "Unable to load SNMP MIB file \"%s\"\n", WienerMibFileName);
		302	return false;
		303	}
		304	snmp_log(LOG_DEBUG, "* Translate OIDs *\n");
		305
		306	// Translate System OIDS
		307	getNode("sysDescr.0", &sysDescr); // FIXME: doesn't work atm in Linux
		308
		309	if (
		310	(!getNode("sysMainSwitch.0", &sysMainSwitch)) \|\|
		311	(!getNode("sysStatus.0", &sysStatus)) \|\|
		312	(!getNode("sysVmeSysReset.0", &sysVmeSysReset)) \|\|
		313	(!getNode("outputNumber.0", &outputNumber)) \|\|
		314	(!getNode("groupsNumber.0", &groupsNumber)) \|\|
		315	(!getNode("groupsSwitch.64", &highVoltageGroupsSwitch)) \|\|
		316	(!getNode("groupsSwitch.128", &lowVoltageGroupsSwitch)) \|\|
		317	(!getNode("ipStaticAddress.0", &ipStaticAddress)) \|\|
		318	// (!getNode("psFirmwareVersion.0", &psFirmwareVersion)) \|\|
		319	(!getNode("psSerialNumber.0", &psSerialNumber)) \|\|
		320	(!getNode("psOperatingTime.0", &psOperatingTime)) \|\|
		321	(!getNode("psDirectAccess.0", &psDirectAccess)) \|\|
		322	(!getNode("sensorNumber.0", &sensorNumber)) \|\|
		323	// (!getNode("fanFirmwareVersion.0", &fanFirmwareVersion)) \|\|
		324	(!getNode("fanSerialNumber.0", &fanSerialNumber)) \|\|
		325	(!getNode("fanOperatingTime.0", &fanOperatingTime)) \|\|
		326	(!getNode("fanAirTemperature.0", &fanAirTemperature))\|\|
		327	(!getNode("fanSwitchOffDelay.0", &fanSwitchOffDelay)) \|\|
		328	(!getNode("fanNominalSpeed.0", &fanNominalSpeed)) \|\|
		329	(!getNode("fanNumberOfFans.0", &fanNumberOfFans))
		330	) {
		331	return false;
		332	}
		333
		334	// Translate module and channel information OIDs
		335	for (int slot = 0; slot < MaxSlotsPerCrate; ++slot) {
		336
		337	if (
		338	(!getIndexNode("moduleIndex", slot + 1, &moduleIndex[slot])) \|\|
		339	(!getIndexNode("moduleDescription", slot + 1, &moduleDescription[slot])) \|\|
		340	(!getIndexNode("moduleAuxiliaryMeasurementVoltage0", slot + 1, &moduleSupply[0][slot])) \|\|
		341	(!getIndexNode("moduleAuxiliaryMeasurementVoltage1", slot + 1, &moduleSupply[1][slot])) \|\|
		342	(!getIndexNode("moduleAuxiliaryMeasurementTemperature0", slot + 1, &moduleAuxiliaryMeasurementTemperature[0][slot])) \|\|
		343	(!getIndexNode("moduleAuxiliaryMeasurementTemperature1", slot + 1, &moduleAuxiliaryMeasurementTemperature[1][slot])) \|\|
		344	(!getIndexNode("moduleAuxiliaryMeasurementTemperature2", slot + 1, &moduleAuxiliaryMeasurementTemperature[2][slot])) \|\|
		345	(!getIndexNode("moduleAuxiliaryMeasurementTemperature3", slot + 1, &moduleAuxiliaryMeasurementTemperature[3][slot])) \|\|
		346	(!getIndexNode("moduleHardwareLimitVoltage", slot + 1, &moduleHardwareLimitVoltage[slot])) \|\|
		347	(!getIndexNode("moduleHardwareLimitCurrent", slot + 1, &moduleHardwareLimitCurrent[slot])) \|\|
		348	(!getIndexNode("moduleRampSpeedVoltage", slot + 1, &moduleRampSpeedVoltage[slot])) \|\|
		349	(!getIndexNode("moduleRampSpeedCurrent", slot + 1, &moduleRampSpeedCurrent[slot])) \|\|
		350	(!getIndexNode("moduleStatus", slot + 1, &moduleStatus[slot])) \|\|
		351	(!getIndexNode("moduleEventStatus", slot + 1, &moduleEventStatus[slot])) \|\|
		352	(!getIndexNode("moduleDoClear", slot + 1, &moduleDoClear[slot]))
		353	) {
		354	return false;
		355	}
		356
		357	int base = MaxChannelsPerSlot * slot; // array index
		358
		359	for (int channel = base; channel < base + MaxChannelsPerSlot; ++channel) {
		360	if (
		361	(!getIndexNode("outputName", channel + 1, &outputName[channel])) \|\|
		362	(!getIndexNode("outputIndex", channel + 1, &outputIndex[channel])) \|\|
		363	(!getIndexNode("outputGroup", channel + 1, &outputGroup[channel])) \|\|
		364	(!getIndexNode("outputStatus", channel + 1, &outputStatus[channel])) \|\|
		365	(!getIndexNode("outputMeasurementSenseVoltage", channel + 1, &outputMeasurementSenseVoltage[channel])) \|\|
		366	(!getIndexNode("outputMeasurementTerminalVoltage", channel + 1, &outputMeasurementTerminalVoltage[channel])) \|\|
		367	(!getIndexNode("outputMeasurementCurrent", channel + 1, &outputMeasurementCurrent[channel])) \|\|
		368	(!getIndexNode("outputMeasurementTemperature", channel + 1, &outputMeasurementTemperature[channel])) \|\|
		369	(!getIndexNode("outputSwitch", channel + 1, &outputSwitch[channel])) \|\|
		370	(!getIndexNode("outputVoltage", channel + 1, &outputVoltage[channel])) \|\|
		371	(!getIndexNode("outputCurrent", channel + 1, &outputCurrent[channel])) \|\|
		372	(!getIndexNode("outputVoltageRiseRate", channel + 1, &outputVoltageRiseRate[channel])) \|\|
		373	(!getIndexNode("outputVoltageFallRate", channel + 1, &outputVoltageFallRate[channel])) \|\|
		374	(!getIndexNode("outputCurrentRiseRate", channel + 1, &outputCurrentRiseRate[channel])) \|\|
		375	(!getIndexNode("outputCurrentFallRate", channel + 1, &outputCurrentFallRate[channel])) \|\|
		376	(!getIndexNode("outputSupervisionBehavior", channel + 1, &outputSupervisionBehavior[channel])) \|\|
		377	(!getIndexNode("outputSupervisionMinSenseVoltage", channel + 1, &outputSupervisionMinSenseVoltage[channel])) \|\|
		378	(!getIndexNode("outputSupervisionMaxSenseVoltage", channel + 1, &outputSupervisionMaxSenseVoltage[channel])) \|\|
		379	(!getIndexNode("outputSupervisionMaxTerminalVoltage", channel + 1, &outputSupervisionMaxTerminalVoltage[channel])) \|\|
		380	(!getIndexNode("outputSupervisionMaxCurrent", channel + 1, &outputSupervisionMaxCurrent[channel])) \|\|
		381	// (!getIndexNode("outputSupervisionMaxTemperature", channel + 1, &outputSupervisionMaxTemperature[channel])) \|\|
		382	(!getIndexNode("outputConfigMaxSenseVoltage", channel + 1, &outputConfigMaxSenseVoltage[channel])) \|\|
		383	(!getIndexNode("outputConfigMaxTerminalVoltage", channel + 1, &outputConfigMaxTerminalVoltage[channel])) \|\|
		384	(!getIndexNode("outputSupervisionMaxPower", channel + 1, &outputSupervisionMaxPower[channel])) \|\|
		385	(!getIndexNode("outputConfigMaxCurrent", channel + 1, &outputConfigMaxCurrent[channel])) \|\|
		386	(!getIndexNode("outputTripTimeMaxCurrent", channel + 1, &outputTripTimeMaxCurrent[channel]))
		387	) {
		388	return false;
		389	}
		390	}
		391	}
		392
		393	for (int sensor = 0; sensor < MaxSensors; ++sensor)
		394	if (
		395	(!getIndexNode("sensorTemperature", sensor + 1, &sensorTemperature[sensor])) \|\|
		396	(!getIndexNode("sensorWarningThreshold", sensor + 1, &sensorWarningThreshold[sensor])) \|\|
		397	(!getIndexNode("sensorFailureThreshold", sensor + 1, &sensorFailureThreshold[sensor]))
		398	) {
		399	return false;
		400	}
		401
		402	for (int name = 0; name < MaxCommunities; ++name)
		403	if (!getIndexNode("snmpCommunityName", name + 1, &snmpCommunityName[name]))
		404	return false;
		405
		406	for (int fan = 0; fan < MaxFans; ++fan)
		407	if (!getIndexNode("fanSpeed", fan + 1, &fanSpeed[fan]))
		408	return false;
		409
		410	for (int aux = 0; aux < MaxPsAuxSupplies; ++aux) {
		411	if (
		412	(!getIndexNode("psAuxiliaryMeasurementVoltage", aux + 1, &psAuxVoltage[aux])) \|\|
		413	(!getIndexNode("psAuxiliaryMeasurementCurrent", aux + 1, &psAuxCurrent[aux]))
		414	) {
		415	return false;
		416	}
		417	}
		418
		419	snmp_log(LOG_DEBUG, "* Initialise SNMP done *\n");
		420	SOCK_STARTUP; // only in main thread
		421
		422	return true;
		423	}
		424
		425	/**
		426	* @brief Additional cleanup. Should be called after snmpClose.
		427	*/
		428	void snmpCleanup(void)
		429	{
		430	SOCK_CLEANUP;
		431	}
		432
		433	/**
		434	* @brief Set a new read community name for SNMP access.
		435	*
		436	* The read community name has to match the configured read community name in the MPOD.
		437	* The default read community name is "public".
		438	* @since 1.1
		439	* @note This function must be called before snmpOpen().
		440	* @param readCommunityName the new read community name
		441	*/
		442	void snmpSetReadCommunityName(const char * const readCommunityName)
		443	{
		444	m_readCommunity = strdup(readCommunityName);
		445	}
		446
		447	/**
		448	* @brief Set a new write community name for SNMP access.
		449	*
		450	* The write community name has to match the configured write community name in the MPOD.
		451	* The default write community name is "guru".
		452	* @since 1.1
		453	* @note This function must be called before any write access function.
		454	* @param writeCommunityName the new write community name
		455	*/
		456	void snmpSetWriteCommunityName(const char * const writeCommunityName)
		457	{
		458	m_writeCommunity = strdup(writeCommunityName);
		459	}
		460
		461	/**
		462	* @brief Opens a SNMP session to the specified ipAddress.
		463	*
		464	* This function also sets the number of retries and the timeout value.
		465	* @param ipAddress a zero-terminated ASCII string representation
		466	* of an IPv4 address, e.g. "192.168.17.101"
		467	* @return a handle to the opened SNMP session, which is a required
		468	* parameter for any further call.
		469	*/
		470	HSNMP snmpOpen(const char * const ipAddress)
		471	{
		472	HSNMP session;
		473	struct snmp_session snmpSession;
		474	snmp_sess_init(&snmpSession); // structure defaults
		475	snmpSession.version = SNMP_VERSION_2c;
		476	snmpSession.peername = strdup(ipAddress);
		477	snmpSession.community = (u_char *)strdup(m_readCommunity);
		478	snmpSession.community_len = strlen(m_readCommunity);
		479
		480	snmpSession.timeout = 300000; // timeout (us)
		481	snmpSession.retries = 2; // retries
		482
		483	if (!(session = snmp_sess_open(&snmpSession))) {
		484	int liberr, syserr;
		485	char *errstr;
		486	snmp_error(&snmpSession, &liberr, &syserr, &errstr);
		487	snmp_log(LOG_ERR, "Open SNMP session for host \"%s\": %s\n", ipAddress, errstr);
		488	free(errstr);
		489	return 0;
		490	}
		491
		492	snmp_log(LOG_INFO, "SNMP session for host \"%s\" opened\n", ipAddress);
		493	return session;
		494	}
		495
		496	/**
		497	* @brief Closes the previously opened session specified by session.
		498	* @param session The handle returned by snmpOpen()
		499	*/
		500	void snmpClose(HSNMP session)
		501	{
		502	if (!session)
		503	return;
		504
		505	if (!snmp_sess_close(session))
		506	snmp_log(LOG_ERR, "Close SNMP session: ERROR\n");
		507	else
		508	snmp_log(LOG_INFO, "SNMP session closed\n");
		509	}
		510
		511	/**
		512	* @brief Returns a pointer to a descriptive string for the last failed SNMP operation.
		513	* @return a pointer to a zero-terminated error string for the last failed
		514	* SNMP operation. Note: this pointer is valid until the next string operation.
		515	*/
		516	char *snmpGetLastError(void)
		517	{
		518	return snmpLastErrorBuffer;
		519	}
		520
		521	// System Information Functions
		522
		523	/**
		524	* @brief Returns a pointer to the MPOD controller description string.
		525	*
		526	* The pointer is valid until the next call of any string function.
		527	* @param session The handle returned by snmpOpen()
		528	* @return the MPOD controller description string, containing the
		529	* controller serial number and firmware releases, e.g.:
		530	* "WIENER MPOD (4388090, MPOD 2.1.2098.1, MPODslave 1.09, MPOD-BL 1.50 )"
		531	*/
		532	char *getSysDescr(HSNMP session)
		533	{
		534	return snmpGetString(session, &sysDescr);
		535	}
		536
		537	/**
		538	* @brief Returns the crate power on/off status.
		539	*
		540	* The result is the logical "and" between the hardware main switch
		541	* and the setMainSwitch function.
		542	* @param session The handle returned by snmpOpen()
		543	* @return The current on/off status of the crate:
		544	* 0: crate is powered off
		545	* 1: crate is powered on
		546	*/
		547	int getMainSwitch(HSNMP session)
		548	{
		549	return snmpGetInt(session, &sysMainSwitch);
		550	}
		551
		552	/**
		553	* @brief Sets the crate main switch to 1 = on or 0 = off.
		554	*
		555	* If the hardware main switch is set to "0" position, this function always returns 0.
		556	* @param session The handle returned by snmpOpen()
		557	* @param value 0 = set off, 1 = set on
		558	* @return The new on/off status of the crate.
		559	*/
		560	int setMainSwitch(HSNMP session, int value)
		561	{
		562	return snmpSetInt(session, &sysMainSwitch, value);
		563	}
		564
		565	/**
		566	* @brief Returns a bit field with the status of the complete crate.
		567	* @param session The handle returned by snmpOpen()
		568	* @return The complete crate status.
		569	*/
		570	int getMainStatus(HSNMP session)
		571	{
		572	return snmpGetInt(session, &sysStatus);
		573	}
		574
		575	/**
		576	* @brief Returns the VME system reset status.
		577	* @param session The handle returned by snmpOpen()
		578	* @return
		579	*/
		580	int getVmeReset(HSNMP session)
		581	{
		582	return snmpGetInt(session, &sysVmeSysReset);
		583	}
		584
		585	/**
		586	* @brief Initiate a VME system reset.
		587	* @param session The handle returned by snmpOpen()
		588	* @return
		589	*/
		590	int setVmeReset(HSNMP session)
		591	{
		592	return snmpSetInt(session, &sysVmeSysReset, 1);
		593	}
		594
		595	/**
		596	* @brief Returns the static IP address as 32 bit integer.
		597	* @param session The handle returned by snmpOpen()
		598	* @return The static IP address.
		599	*/
		600	int getIpStaticAddress(HSNMP session)
		601	{
		602	return snmpGetInt(session, &ipStaticAddress);
		603	}
		604
		605	/**
		606	* @brief Sets a new static IP address.
		607	* @param session The handle returned by snmpOpen()
		608	* @param value The IP address as 32 bit integer
		609	* @return
		610	*/
		611	int setIpStaticAddress(HSNMP session, int value)
		612	{
		613	return snmpSetInt(session, &ipStaticAddress, value);
		614	}
		615
		616	/**
		617	* @brief Returns a pointer to a string containing the MPOD controllers serial number.
		618	*
		619	* The pointer is valid until the next call of any string function.
		620	* @param session The handle returned by snmpOpen()
		621	* @return The crates serial number, e.g. "4388090".
		622	*/
		623	char *getPsSerialNumber(HSNMP session)
		624	{
		625	return snmpGetString(session, &psSerialNumber);
		626	}
		627
		628	// System Count Functions
		629
		630	/**
		631	* @brief Returns the total number of output channels in the crate.
		632	* @param session The handle returned by snmpOpen()
		633	* @return The total number of output channels
		634	*/
		635	int getOutputNumber(HSNMP session)
		636	{
		637	return snmpGetInt(session, &outputNumber);
		638	}
		639
		640	/**
		641	* @brief getOutputGroups
		642	* @param session The handle returned by snmpOpen()
		643	* @return
		644	*/
		645	int getOutputGroups(HSNMP session)
		646	{
		647	return snmpGetInt(session, &groupsNumber);
		648	}
		649
		650	// Output Channel Information
		651
		652	/**
		653	* @brief getOutputGroup
		654	* @param session The handle returned by snmpOpen()
		655	* @param channel The requested channel in the range of 0...999
		656	* @return
		657	*/
		658	int getOutputGroup(HSNMP session, int channel)
		659	{
		660	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		661	return 0;
		662
		663	return snmpGetInt(session, &outputGroup[channel]);
		664	}
		665
		666	/**
		667	* @brief Returns the channel outputStatus register.
		668	* @note This function is deprecated. Use getOutputStatus() instead.
		669	* @param session The handle returned by snmpOpen()
		670	* @param channel The requested channel in the range of 0...999
		671	* @return The channels outputStatus register
		672	*/
		673	int getChannelStatus(HSNMP session, int channel)
		674	{
		675	return getOutputStatus(session, channel);
		676	}
		677
		678	/**
		679	* @brief Returns the channel outputStatus register.
		680	* @since 1.1
		681	* @param session The handle returned by snmpOpen()
		682	* @param channel The requested channel in the range of 0...999
		683	* @return The channels outputStatus register
		684	*/
		685	int getOutputStatus(HSNMP session, int channel)
		686	{
		687	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		688	return 0;
		689
		690	return snmpGetInt(session, &outputStatus[channel]);
		691	}
		692
		693	/**
		694	* @brief Returns the measured output sense voltage for channel in Volt.
		695	* @note This is only valid for WIENER LV modules.
		696	* @param session The handle returned by snmpOpen()
		697	* @param channel The requested channel in the range of 0...999
		698	* @return
		699	*/
		700	double getOutputSenseMeasurement(HSNMP session, int channel)
		701	{
		702	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		703	return 0;
		704
		705	return snmpGetDouble(session, &outputMeasurementSenseVoltage[channel]);
		706	}
		707
		708	/**
		709	* @brief Returns the measured output terminal voltage for channel in Volt.
		710	* @param session The handle returned by snmpOpen()
		711	* @param channel The requested channel in the range of 0...999
		712	* @return The measured output terminal voltage in Volt.
		713	*/
		714	double getOutputTerminalMeasurement(HSNMP session, int channel)
		715	{
		716	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		717	return 0;
		718
		719	return snmpGetDouble(session, &outputMeasurementTerminalVoltage[channel]);
		720	}
		721
		722	/**
		723	* @brief Returns the measured output current for channel in Ampere.
		724	* @param session The handle returned by snmpOpen()
		725	* @param channel The requested channel in the range of 0...999
		726	* @return The measured output measurement current in Ampere.
		727	*/
		728	double getCurrentMeasurement(HSNMP session, int channel)
		729	{
		730	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		731	return 0;
		732
		733	return snmpGetDouble(session, &outputMeasurementCurrent[channel]);
		734	}
		735
		736	/**
		737	* @brief Returns the measured temperature for channel in Degree Celsius.
		738	* @note Only WIENER Low Voltage modules have a channel-wise temperature measurement.
		739	* For iseg HV modules, use getModuleAuxTemperature().
		740	* @param session The handle returned by snmpOpen()
		741	* @param channel The requested channel in the range of 0...999
		742	* @return The measured output temperature in Degree Celsius.
		743	*/
		744	int getTemperatureMeasurement(HSNMP session, int channel)
		745	{
		746	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		747	return 0;
		748
		749	return snmpGetInt(session, &outputMeasurementTemperature[channel]);
		750	}
		751
		752	/**
		753	* @brief Change the state of the channel.
		754	* @note This function is deprecated. Use setOutputSwitch() instead.
		755	* @param session The handle returned by snmpOpen()
		756	* @param channel The channel in the range of 0...999
		757	* @param value One of the following: off (0), on (1),
		758	* resetEmergencyOff (2), setEmergencyOff (3), clearEvents (10).
		759	* @return
		760	*/
		761	int setChannelSwitch(HSNMP session, int channel, int value)
		762	{
		763	return setOutputSwitch(session, channel, value);
		764	}
		765
		766	/**
		767	* @brief Change the state of the channel.
		768	* @since 1.1
		769	* @param session The handle returned by snmpOpen()
		770	* @param channel The channel in the range of 0...999
		771	* @param value One of the following: off (0), on (1),
		772	* resetEmergencyOff (2), setEmergencyOff (3), clearEvents (10).
		773	* @return
		774	*/
		775	int setOutputSwitch(HSNMP session, int channel, int value)
		776	{
		777	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		778	return 0;
		779
		780	return snmpSetInt(session, &outputSwitch[channel], value);
		781	}
		782
		783	/**
		784	* @brief Returns the state of the channel.
		785	* @note This function is deprecated. Use getOutputSwitch() instead.
		786	* @param session The handle returned by snmpOpen()
		787	* @param channel The requested channel in the range of 0...999
		788	* @return One of the following: off (0), on (1),
		789	* resetEmergencyOff (2), setEmergencyOff (3), clearEvents (10).
		790	*/
		791	int getChannelSwitch(HSNMP session, int channel)
		792	{
		793	return getOutputSwitch(session, channel);
		794	}
		795
		796	/**
		797	* @brief Returns the state of the channel.
		798	* @since 1.1
		799	* @param session The handle returned by snmpOpen()
		800	* @param channel The requested channel in the range of 0...999
		801	* @return One of the following: off (0), on (1),
		802	* resetEmergencyOff (2), setEmergencyOff (3), clearEvents (10).
		803	*/
		804	int getOutputSwitch(HSNMP session, int channel)
		805	{
		806	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		807	return 0;
		808
		809	return snmpGetInt(session, &outputSwitch[channel]);
		810	}
		811
		812	/**
		813	* @brief setHighVoltageGroupsSwitch
		814	* @param session The handle returned by snmpOpen()
		815	* @param value
		816	* @return
		817	*/
		818	int setHighVoltageGroupsSwitch(HSNMP session, int value)
		819	{
		820	return snmpSetInt(session, &highVoltageGroupsSwitch, value);
		821	}
		822
		823	/**
		824	* @brief getHighVoltageGroupsSwitch
		825	* @param session The handle returned by snmpOpen()
		826	* @return
		827	*/
		828	int getHighVoltageGroupsSwitch(HSNMP session)
		829	{
		830	return snmpGetInt(session, &highVoltageGroupsSwitch);
		831	}
		832
		833	/**
		834	* @brief setLowVoltageGroupsSwitch
		835	* @param session The handle returned by snmpOpen()
		836	* @param value
		837	* @return
		838	*/
		839	int setLowVoltageGroupsSwitch(HSNMP session, int value)
		840	{
		841	return snmpSetInt(session, &lowVoltageGroupsSwitch, value);
		842	}
		843
		844	/**
		845	* @brief getLowVoltageGroupsSwitch
		846	* @param session The handle returned by snmpOpen()
		847	* @return
		848	*/
		849	int getLowVoltageGroupsSwitch(HSNMP session)
		850	{
		851	return snmpGetInt(session, &lowVoltageGroupsSwitch);
		852	}
		853
		854	/**
		855	* @brief Returns the demanded output voltage for channel.
		856	* @param session The handle returned by snmpOpen()
		857	* @param channel The requested channel in the range of 0...999
		858	* @return The demanded output voltage in Volt.
		859	*/
		860	double getOutputVoltage(HSNMP session, int channel)
		861	{
		862	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		863	return 0;
		864
		865	return snmpGetDouble(session, &outputVoltage[channel]);
		866	}
		867
		868	/**
		869	* @brief Sets the demanded output voltage for channel.
		870	* @param session The handle returned by snmpOpen()
		871	* @param channel The requested channel in the range of 0...999
		872	* @param value the demanded output voltage in Volt.
		873	* @return The demanded output voltage in Volt.
		874	*/
		875	double setOutputVoltage(HSNMP session, int channel, double value)
		876	{
		877	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		878	return 0;
		879
		880	return snmpSetDouble(session, &outputVoltage[channel], value);
		881	}
		882
		883	/**
		884	* @brief Returns the demanded maximum output current for channel.
		885	* @param session The handle returned by snmpOpen()
		886	* @param channel The requested channel in the range of 0...999
		887	* @return The demanded output current in Ampere.
		888	*/
		889	double getOutputCurrent(HSNMP session, int channel)
		890	{
		891	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		892	return 0;
		893
		894	return snmpGetDouble(session, &outputCurrent[channel]);
		895	}
		896
		897	/**
		898	* @brief Sets the demanded maximum output current for channel.
		899	* @param session The handle returned by snmpOpen()
		900	* @param channel The channel in the range of 0...999
		901	* @param value The demanded ouput current in Ampere
		902	* @return The demanded maximum output current in Ampere.
		903	*/
		904	double setOutputCurrent(HSNMP session, int channel, double value)
		905	{
		906	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		907	return 0;
		908
		909	return snmpSetDouble(session, &outputCurrent[channel], value);
		910	}
		911
		912	/**
		913	* @brief Returns the channel voltage rise rate in Volt/second.
		914	*
		915	* @note This function is for WIENER LV only.
		916	* For iseg HV modules, use getModuleRampSpeedVoltage().
		917	* @param session The handle returned by snmpOpen()
		918	* @param channel The requested channel in the range of 0...999
		919	* @return
		920	*/
		921	double getOutputRiseRate(HSNMP session, int channel)
		922	{
		923	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		924	return 0;
		925
		926	return snmpGetDouble(session, &outputVoltageRiseRate[channel]);
		927	}
		928
		929	/**
		930	* @brief Sets the channel voltage rise rate in Volt/second.
		931	*
		932	* @note This function is for WIENER LV only.
		933	* For iseg HV modules, use setModuleRampSpeedVoltage().
		934	* @param session The handle returned by snmpOpen()
		935	* @param channel The requested channel in the range of 0...999
		936	* @param value
		937	* @return
		938	*/
		939	double setOutputRiseRate(HSNMP session, int channel, double value)
		940	{
		941	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		942	return 0;
		943
		944	return snmpSetDouble(session, &outputVoltageRiseRate[channel], value);
		945	}
		946
		947	/**
		948	* @brief Returns the channel voltage fall rate in Volt/second.
		949	*
		950	* @note This function is for WIENER LV only.
		951	* For iseg HV modules, use getModuleRampSpeedVoltage().
		952	* @param session The handle returned by snmpOpen()
		953	* @param channel The requested channel in the range of 0...999
		954	* @return
		955	*/
		956	double getOutputFallRate(HSNMP session, int channel)
		957	{
		958	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		959	return 0;
		960
		961	return snmpGetDouble(session, &outputVoltageFallRate[channel]);
		962	}
		963
		964	/**
		965	* @brief Sets the channel voltage fall rate in Volt/second.
		966	*
		967	* @note This function is for WIENER LV only.
		968	* For iseg HV modules, use setModuleRampSpeedVoltage().
		969	* @param session The handle returned by snmpOpen()
		970	* @param channel The requested channel in the range of 0...999
		971	* @param value
		972	* @return
		973	*/
		974	double setOutputFallRate(HSNMP session, int channel, double value)
		975	{
		976	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		977	return 0;
		978
		979	return snmpSetDouble(session, &outputVoltageFallRate[channel], value);
		980	}
		981
		982	/**
		983	* @brief Returns the channel current rise rate in Ampere/second.
		984	*
		985	* @note This function is for WIENER LV only.
		986	* For iseg HV modules, use getModuleRampSpeedCurrent().
		987	* @param session The handle returned by snmpOpen()
		988	* @param channel The requested channel in the range of 0...999
		989	* @return
		990	*/
		991	double getOutputCurrentRiseRate(HSNMP session, int channel)
		992	{
		993	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		994	return 0;
		995
		996	return snmpGetDouble(session, &outputCurrentRiseRate[channel]);
		997	}
		998
		999	/**
		1000	* @brief Sets the channel current rise rate in Ampere/second.
		1001	*
		1002	* @note This function is for WIENER LV only.
		1003	* For iseg HV modules, use setModuleRampSpeedCurrent().
		1004	* @param session The handle returned by snmpOpen()
		1005	* @param channel The requested channel in the range of 0...999
		1006	* @param value
		1007	* @return
		1008	*/
		1009	double setOutputCurrentRiseRate(HSNMP session, int channel, double value)
		1010	{
		1011	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1012	return 0;
		1013
		1014	return snmpSetDouble(session, &outputCurrentRiseRate[channel], value);
		1015	}
		1016
		1017	/**
		1018	* @brief Returns the channel current fall rate in Ampere/second.
		1019	*
		1020	* @note This function is for WIENER LV only.
		1021	* For iseg HV modules, use getModuleRampSpeedCurrent().
		1022	* @param session The handle returned by snmpOpen()
		1023	* @param channel The requested channel in the range of 0...999
		1024	* @return
		1025	*/
		1026	double getOutputCurrentFallRate(HSNMP session, int channel)
		1027	{
		1028	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1029	return 0;
		1030
		1031	return snmpGetDouble(session, &outputCurrentFallRate[channel]);
		1032	}
		1033
		1034	/**
		1035	* @brief Sets the channel current fall rate in Ampere/second.
		1036	*
		1037	* @note This function is for WIENER LV only.
		1038	* For iseg HV modules, use setModuleRampSpeedCurrent().
		1039	* @param session The handle returned by snmpOpen()
		1040	* @param channel The requested channel in the range of 0...999
		1041	* @param value
		1042	* @return
		1043	*/
		1044	double setOutputCurrentFallRate(HSNMP session, int channel, double value)
		1045	{
		1046	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1047	return 0;
		1048
		1049	return snmpSetDouble(session, &outputCurrentFallRate[channel], value);
		1050	}
		1051
		1052	/**
		1053	* @brief Returns a bit field packed into an integer
		1054	* which define the behavior of the output channel or power supply after failures.
		1055	* @param session The handle returned by snmpOpen()
		1056	* @param channel The requested channel in the range of 0...999
		1057	* @return
		1058	*/
		1059	int getOutputSupervisionBehavior(HSNMP session, int channel)
		1060	{
		1061	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1062	return 0;
		1063
		1064	return snmpGetInt(session, &outputSupervisionBehavior[channel]);
		1065	}
		1066
		1067	/**
		1068	* @brief Set the behavior of the output channel or power supply after failures.
		1069	*
		1070	* For each supervision value, a two-bit field exists.
		1071	* The enumeration of this value (..L+..H*2) is:
		1072	* WIENER LV devices
		1073	* 0 ignore the failure
		1074	* 1 switch off this channel
		1075	* 2 switch off all channels with the same group number
		1076	* 3 switch off the complete crate.
		1077	* iseg HV devices
		1078	* 0 ignore the failure
		1079	* 1 switch off this channel by ramp down the voltage
		1080	* 2 switch off this channel by a emergencyOff
		1081	* 3 switch off the whole board of the HV module by emergencyOff.
		1082	* The position of the bit fields in the integer value are:
		1083	* Bit 0, 1: outputFailureMinSenseVoltage
		1084	* Bit 2, 3: outputFailureMaxSenseVoltage
		1085	* Bit 4, 5: outputFailureMaxTerminalVoltage
		1086	* Bit 6, 7: outputFailureMaxCurrent
		1087	* Bit 8, 9: outputFailureMaxTemperature
		1088	* Bit 10, 11: outputFailureMaxPower
		1089	* Bit 12, 13: outputFailureInhibit
		1090	* Bit 14, 15: outputFailureTimeout
		1091	* @param session The handle returned by snmpOpen()
		1092	* @param channel The channel (0...999) for which the behaviour should be set
		1093	* @param value The 16 bit integer with bits set according the preceding table.
		1094	* @return
		1095	*/
		1096	int setOutputSupervisionBehavior(HSNMP session, int channel, int value)
		1097	{
		1098	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1099	return 0;
		1100
		1101	return snmpSetInt(session, &outputSupervisionBehavior[channel], value );
		1102	}
		1103
		1104	/**
		1105	* @brief getOutputSupervisionMinSenseVoltage
		1106	* @param session The handle returned by snmpOpen()
		1107	* @param channel The requested channel in the range of 0...999
		1108	* @return
		1109	*/
		1110	double getOutputSupervisionMinSenseVoltage(HSNMP session, int channel)
		1111	{
		1112	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1113	return 0;
		1114
		1115	return snmpGetDouble(session, &outputSupervisionMinSenseVoltage[channel]);
		1116	}
		1117
		1118	/**
		1119	* @brief setOutputSupervisionMinSenseVoltage
		1120	* @param session The handle returned by snmpOpen()
		1121	* @param channel
		1122	* @param value
		1123	* @return
		1124	*/
		1125	double setOutputSupervisionMinSenseVoltage(HSNMP session, int channel, double value)
		1126	{
		1127	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1128	return 0;
		1129
		1130	return snmpSetDouble(session, &outputSupervisionMinSenseVoltage[channel], value);
		1131	}
		1132
		1133	/**
		1134	* @brief getOutputSupervisionMaxSenseVoltage
		1135	* @param session The handle returned by snmpOpen()
		1136	* @param channel The requested channel in the range of 0...999
		1137	* @return
		1138	*/
		1139	double getOutputSupervisionMaxSenseVoltage(HSNMP session, int channel)
		1140	{
		1141	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1142	return 0;
		1143
		1144	return snmpGetDouble(session, &outputSupervisionMaxSenseVoltage[channel]);
		1145	}
		1146
		1147	/**
		1148	* @brief setOutputSupervisionMaxSenseVoltage
		1149	* @param session The handle returned by snmpOpen()
		1150	* @param channel
		1151	* @param value
		1152	* @return
		1153	*/
		1154	double setOutputSupervisionMaxSenseVoltage(HSNMP session, int channel, double value)
		1155	{
		1156	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1157	return 0;
		1158
		1159	return snmpSetDouble(session, &outputSupervisionMaxSenseVoltage[channel], value);
		1160	}
		1161
		1162	/**
		1163	* @brief If the measured voltage at the power supply output terminals is above this value,
		1164	* the power supply performs the function defined by setOutputSupervisionBehavior().
		1165	* @param session The handle returned by snmpOpen()
		1166	* @param channel The requested channel in the range of 0...999
		1167	* @return The maximum terminal voltage in Volt
		1168	*/
		1169	double getOutputSupervisionMaxTerminalVoltage(HSNMP session, int channel)
		1170	{
		1171	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1172	return 0;
		1173
		1174	return snmpGetDouble(session, &outputSupervisionMaxTerminalVoltage[channel]);
		1175	}
		1176
		1177	/**
		1178	* @brief If the measured voltage at the power supply output terminals is above this value,
		1179	* the power supply performs the function defined by setOutputSupervisionBehavior().
		1180	* @param session The handle returned by snmpOpen()
		1181	* @param channel the channel (0...999) to set the max. terminal voltage
		1182	* @param value The maximum terminal voltage in Volt
		1183	* @return
		1184	*/
		1185	double setOutputSupervisionMaxTerminalVoltage(HSNMP session, int channel, double value)
		1186	{
		1187	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1188	return 0;
		1189
		1190	return snmpSetDouble(session, &outputSupervisionMaxTerminalVoltage[channel], value);
		1191	}
		1192
		1193	/**
		1194	* @brief If the measured current is above this value, the power supply
		1195	* performs the function defined by setOutputSupervisionBehavior().
		1196	* @param session The handle returned by snmpOpen()
		1197	* @param channel The requested channel in the range of 0...999
		1198	* @return The maximum output current in Ampere
		1199	*/
		1200	double getOutputSupervisionMaxCurrent(HSNMP session, int channel)
		1201	{
		1202	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1203	return 0;
		1204
		1205	return snmpGetDouble(session, &outputSupervisionMaxCurrent[channel]);
		1206	}
		1207
		1208	/**
		1209	* @brief If the measured current is above this value, the power supply
		1210	* performs the function defined by setOutputSupervisionBehavior().
		1211	* @param session The handle returned by snmpOpen()
		1212	* @param channel The channel (0...999) to set the max. current
		1213	* @param value The maximum current in Ampere
		1214	* @return
		1215	*/
		1216	double setOutputSupervisionMaxCurrent(HSNMP session, int channel, double value)
		1217	{
		1218	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1219	return 0;
		1220
		1221	return snmpSetDouble(session, &outputSupervisionMaxCurrent[channel], value );
		1222	}
		1223
		1224	/**
		1225	* @brief getOutputSupervisionMaxTemperature
		1226	* @param session The handle returned by snmpOpen()
		1227	* @param channel The requested channel in the range of 0...999
		1228	* @return The maximum temperature in degree Celsius
		1229	*/
		1230	int getOutputSupervisionMaxTemperature(HSNMP session, int channel)
		1231	{
		1232	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1233	return 0;
		1234
		1235	return snmpGetInt(session, &outputSupervisionMaxTemperature[channel]);
		1236	}
		1237
		1238	/**
		1239	* @brief getOutputConfigMaxSenseVoltage
		1240	* @param session The handle returned by snmpOpen()
		1241	* @param channel The requested channel in the range of 0...999
		1242	* @return
		1243	*/
		1244	double getOutputConfigMaxSenseVoltage(HSNMP session, int channel)
		1245	{
		1246	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1247	return 0;
		1248
		1249	return snmpGetDouble(session, &outputConfigMaxSenseVoltage[channel]);
		1250	}
		1251
		1252	/**
		1253	* @brief getOutputConfigMaxTerminalVoltage
		1254	* @param session The handle returned by snmpOpen()
		1255	* @param channel The requested channel in the range of 0...999
		1256	* @return
		1257	*/
		1258	double getOutputConfigMaxTerminalVoltage(HSNMP session, int channel)
		1259	{
		1260	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1261	return 0;
		1262
		1263	return snmpGetDouble(session, &outputConfigMaxTerminalVoltage[channel]);
		1264	}
		1265
		1266	/**
		1267	* @brief getOutputConfigMaxCurrent
		1268	* @param session The handle returned by snmpOpen()
		1269	* @param channel The requested channel in the range of 0...999
		1270	* @return
		1271	*/
		1272	double getOutputConfigMaxCurrent(HSNMP session, int channel)
		1273	{
		1274	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1275	return 0;
		1276
		1277	return snmpGetDouble(session, &outputConfigMaxCurrent[channel]);
		1278	}
		1279
		1280	/**
		1281	* @brief getOutputSupervisionMaxPower
		1282	* @param session The handle returned by snmpOpen()
		1283	* @param channel The requested channel in the range of 0...999
		1284	* @return
		1285	*/
		1286	double getOutputSupervisionMaxPower(HSNMP session, int channel)
		1287	{
		1288	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1289	return 0;
		1290
		1291	return snmpGetDouble(session, &outputSupervisionMaxPower[channel]);
		1292	}
		1293
		1294	/**
		1295	* @brief Returns the time span for the delayed trip function.
		1296	* @param session The handle returned by snmpOpen()
		1297	* @param channel The requested channel in the range of 0...999
		1298	* @return the trip delay time (0...4000 ms)
		1299	*/
		1300	int getOutputTripTimeMaxCurrent(HSNMP session, int channel)
		1301	{
		1302	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1303	return 0;
		1304
		1305	return snmpGetInt(session, &outputTripTimeMaxCurrent[channel]);
		1306	}
		1307
		1308	/**
		1309	* @brief Defines a span for the delayed trip function.
		1310	* @param session The handle returned by snmpOpen()
		1311	* @param channel The channel (0...999) for which to set the delayed trip
		1312	* @param delay The trip delay time (0...4000 ms)
		1313	* @return
		1314	*/
		1315	int setOutputTripTimeMaxCurrent(HSNMP session, int channel, int delay)
		1316	{
		1317	if (channel < 0 \|\| channel >= MaxChannelsPerCrate)
		1318	return 0;
		1319
		1320	return snmpSetInt(session, &outputTripTimeMaxCurrent[channel], delay);
		1321	}
		1322
		1323	// Sensor Information functions
		1324
		1325	int getSensorNumber(HSNMP session)
		1326	{
		1327	return snmpGetInt(session, &sensorNumber);
		1328	}
		1329
		1330	int getSensorTemp(HSNMP session, int sensor)
		1331	{
		1332	if (sensor < 0 \|\| sensor > MaxSensors)
		1333	return 0;
		1334
		1335	return snmpGetInt(session, &sensorTemperature[sensor]);
		1336	}
		1337
		1338	int getSensorWarningTemperature(HSNMP session, int sensor)
		1339	{
		1340	if (sensor < 0 \|\| sensor > MaxSensors)
		1341	return 0;
		1342
		1343	return snmpGetInt(session, &sensorWarningThreshold[sensor]);
		1344	}
		1345
		1346	int setSensorWarningTemperature(HSNMP session, int sensor, int value)
		1347	{
		1348	if (sensor < 0 \|\| sensor > MaxSensors)
		1349	return 0;
		1350
		1351	return snmpSetInt(session, &sensorWarningThreshold[sensor], value);
		1352	}
		1353
		1354	int getSensorFailureTemperature(HSNMP session, int sensor)
		1355	{
		1356	if (sensor < 0 \|\| sensor > MaxSensors)
		1357	return 0;
		1358
		1359	return snmpGetInt(session, &sensorFailureThreshold[sensor]);
		1360	}
		1361
		1362	int setSensorFailureTemperature(HSNMP session, int sensor, int value)
		1363	{
		1364	if (sensor < 0 \|\| sensor > MaxSensors)
		1365	return 0;
		1366
		1367	return snmpSetInt(session, &sensorFailureThreshold[sensor], value);
		1368	}
		1369
		1370	// Power Supply specific Functions.
		1371
		1372	/**
		1373	* @brief Returns the crates operating time in seconds.
		1374	* @param session The handle returned by snmpOpen()
		1375	* @return
		1376	*/
		1377	int getPsOperatingTime(HSNMP session)
		1378	{
		1379	return snmpGetInt(session, &psOperatingTime);
		1380	}
		1381
		1382	double getPsAuxVoltage(HSNMP session, int auxIndex)
		1383	{
		1384	if ( (auxIndex < 0) \|\| (auxIndex >= MaxPsAuxSupplies) )
		1385	return 0.0;
		1386
		1387	return snmpGetDouble(session, &psAuxVoltage[auxIndex]);
		1388	}
		1389
		1390	double getPsAuxCurrent(HSNMP session, int auxIndex)
		1391	{
		1392	if ( (auxIndex < 0) \|\| (auxIndex >= MaxPsAuxSupplies) )
		1393	return 0.0;
		1394
		1395	return snmpGetDouble(session, &psAuxCurrent[auxIndex]);
		1396	}
		1397
		1398	// Fan Tray Functions
		1399
		1400	int getFanOperatingTime(HSNMP session)
		1401	{
		1402	return snmpGetInt(session, &fanOperatingTime);
		1403	}
		1404
		1405	int getFanAirTemperature(HSNMP session)
		1406	{
		1407	return snmpGetInt(session, &fanAirTemperature);
		1408	}
		1409
		1410	int getFanSwitchOffDelay(HSNMP session)
		1411	{
		1412	return snmpGetInt(session, &fanSwitchOffDelay);
		1413	}
		1414
		1415	int setFanSwitchOffDelay(HSNMP session, int value)
		1416	{
		1417	return snmpSetInt(session, &fanSwitchOffDelay, value);
		1418	}
		1419
		1420	/**
		1421	* @brief Returns the MPODs fan rotation speed in revolutions per minute.
		1422	* @param session The handle returned by snmpOpen()
		1423	* @return
		1424	*/
		1425	int getFanNominalSpeed(HSNMP session)
		1426	{
		1427	return snmpGetInt(session, &fanNominalSpeed);
		1428	}
		1429
		1430	/**
		1431	* @brief Sets the MPODs fan rotation speed in revolutions per minute.
		1432	* @param session The handle returned by snmpOpen()
		1433	* @param value 1200..3600. 0 turns off the crates fans.
		1434	* @return
		1435	*/
		1436	int setFanNominalSpeed(HSNMP session, int value)
		1437	{
		1438	return snmpSetInt(session, &fanNominalSpeed, value );
		1439	}
		1440
		1441	int getFanNumberOfFans(HSNMP session)
		1442	{
		1443	return snmpGetInt(session, &fanNumberOfFans);
		1444	}
		1445
		1446	int getFanSpeed(HSNMP session, int fan)
		1447	{
		1448	if (fan < 0 \|\| fan > MaxFans)
		1449	return 0;
		1450
		1451	return snmpGetInt(session, &fanSpeed[fan]);
		1452	}
		1453
		1454	/**
		1455	* @brief Returns a pointer to the module description string.
		1456	*
		1457	* The pointer is valid until the next call of any string function.
		1458	* @param session The handle returned by snmpOpen()
		1459	* @param slot The modules slot position in the crate (0...9)
		1460	* @return A string with the following contents, separated by comma and space:
		1461	* - The module vendor ("iseg" or "WIENER")
		1462	* - The module type name
		1463	* - The channel number
		1464	* - The module serial number (optional)
		1465	* - The module firmware release (optional)
		1466	*
		1467	* Example: "iseg, E24D1, 24, 715070, 5.14"
		1468	*/
		1469	char *getModuleDescription(HSNMP session, int slot)
		1470	{
		1471	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1472	return 0;
		1473
		1474	return snmpGetString(session, &moduleDescription[slot]);
		1475	}
		1476
		1477	/**
		1478	* @brief Returns the measured value of the modules +24 Volt line.
		1479	* @note This function is for iseg HV modules only.
		1480	* @param session The handle returned by snmpOpen()
		1481	* @param slot the modules slot position in the crate (0...9)
		1482	* @return the measured +24 Volt line voltage in Volt.
		1483	*/
		1484	double getModuleSupply24(HSNMP session, int slot)
		1485	{
		1486	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1487	return 0.0;
		1488
		1489	return snmpGetDouble(session, &moduleSupply[0][slot]);
		1490	}
		1491
		1492	/**
		1493	* @brief Returns the measured value of the modules +5 Volt line.
		1494	* @note This function is for iseg HV modules only.
		1495	* @param session The handle returned by snmpOpen()
		1496	* @param slot the modules slot position in the crate (0...9)
		1497	* @return the measured +5 Volt line voltage in Volt.
		1498	*/
		1499	double getModuleSupply5(HSNMP session, int slot)
		1500	{
		1501	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1502	return 0.0;
		1503
		1504	return snmpGetDouble(session, &moduleSupply[1][slot]);
		1505	}
		1506
		1507	/**
		1508	* @brief Returns the measured value of one of the modules temperature sensors.
		1509	*
		1510	* @note This function is for iseg HV modules only.
		1511	* @param session The handle returned by snmpOpen()
		1512	* @param slot The modules slot position in the crate (0...9)
		1513	* @param index The temperature sensor index (0...3)
		1514	* @note Most modules only have one temperature sensor at index 0.
		1515	* @return
		1516	*/
		1517	double getModuleAuxTemperature(HSNMP session, int slot, int index)
		1518	{
		1519	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1520	return 0.0;
		1521
		1522	if (index < 0 \|\| index >= MaxModuleAuxTemperatures)
		1523	return 0.0;
		1524
		1525	return snmpGetDouble(session, &moduleAuxiliaryMeasurementTemperature[index][slot]);
		1526	}
		1527
		1528	/**
		1529	* @brief Returns the modules hardware voltage limit in percent.
		1530	*
		1531	* @note This function is for iseg HV modules only.
		1532	* @param session The handle returned by snmpOpen()
		1533	* @param slot The modules slot position in the crate (0...9)
		1534	* @return The modules hardware voltage limit in percent (2...102)
		1535	*/
		1536	double getModuleHardwareLimitVoltage(HSNMP session, int slot)
		1537	{
		1538	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1539	return 0.0;
		1540
		1541	return snmpGetDouble(session, &moduleHardwareLimitVoltage[slot]);
		1542	}
		1543
		1544	/**
		1545	* @brief Returns the modules hardware current limit in percent.
		1546	*
		1547	* @note This function is for iseg HV modules only.
		1548	* @param session The handle returned by snmpOpen()
		1549	* @param slot The modules slot position in the crate (0...9)
		1550	* @return The modules hardware current limit in percent (2...102)
		1551	*/
		1552	double getModuleHardwareLimitCurrent(HSNMP session, int slot)
		1553	{
		1554	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1555	return 0.0;
		1556
		1557	return snmpGetDouble(session, &moduleHardwareLimitCurrent[slot]);
		1558	}
		1559
		1560	/**
		1561	* @brief Returns the modules voltage ramp speed in percent.
		1562	*
		1563	* @note This function is for iseg HV modules only.
		1564	* iseg modules have one common ramp speed for all channels.
		1565	* @param session The handle returned by snmpOpen()
		1566	* @param slot The modules slot position in the crate (0...9)
		1567	* @return The modules voltage ramp speed in percent
		1568	*/
		1569	double getModuleRampSpeedVoltage(HSNMP session, int slot)
		1570	{
		1571	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1572	return 0.0;
		1573
		1574	return snmpGetDouble(session, &moduleRampSpeedVoltage[slot]);
		1575	}
		1576
		1577	/**
		1578	* @brief Sets the modules voltage ramp speed in percent.
		1579	*
		1580	* @note This function is for iseg HV modules only.
		1581	*
		1582	* iseg modules have one common ramp speed for all channels.
		1583	* @param session The handle returned by snmpOpen()
		1584	* @param slot the modules slot position in the crate (0...9)
		1585	* @param value The new voltage ramp speed in percent
		1586	* @note For most modules, the range is 0.001...20 percent.
		1587	* @return The new voltage ramp speed in percent
		1588	*/
		1589	double setModuleRampSpeedVoltage(HSNMP session, int slot, double value)
		1590	{
		1591	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1592	return 0.0;
		1593
		1594	return snmpSetDouble(session, &moduleRampSpeedVoltage[slot], value);
		1595	}
		1596
		1597	/**
		1598	* @brief Returns the modules current ramp speed in percent.
		1599	*
		1600	* @note This function is for iseg HV modules only.
		1601	*
		1602	* iseg modules have one common ramp speed for all channels.
		1603	* This item is only valid for modules with constant current regulation.
		1604	* @param session The handle returned by snmpOpen()
		1605	* @param slot The modules slot position in the crate (0...9)
		1606	* @return The modules current ramp speed in percent
		1607	*/
		1608	double getModuleRampSpeedCurrent(HSNMP session, int slot)
		1609	{
		1610	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1611	return 0.0;
		1612
		1613	return snmpGetDouble(session, &moduleRampSpeedCurrent[slot]);
		1614	}
		1615
		1616	/**
		1617	* @brief Sets the modules current ramp speed in percent.
		1618	*
		1619	* @note This function is for iseg HV modules only.
		1620	*
		1621	* iseg modules have one common ramp speed for all channels.
		1622	* This item is only valid for modules with constant current regulation.
		1623	* @param session The handle returned by snmpOpen()
		1624	* @param slot The modules slot position in the crate (0...9)
		1625	* @param value The new current ramp speed in percent
		1626	* @return The new current ramp speed in percent
		1627	*/
		1628	double setModuleRampSpeedCurrent(HSNMP session, int slot, double value)
		1629	{
		1630	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1631	return 0.0;
		1632
		1633	return snmpSetDouble(session, &moduleRampSpeedCurrent[slot], value);
		1634	}
		1635
		1636	/**
		1637	* @brief Returns the value of the module status register.
		1638	*
		1639	* @note This function is for iseg HV modules only.
		1640	* @param session The handle returned by snmpOpen()
		1641	* @param slot The modules slot position in the crate (0...9)
		1642	* @return The module status register
		1643	*/
		1644	int getModuleStatus(HSNMP session, int slot)
		1645	{
		1646	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1647	return 0;
		1648
		1649	return snmpGetInt(session, &moduleStatus[slot]);
		1650	}
		1651
		1652	/**
		1653	* @brief Returns the value of the module event status register.
		1654	*
		1655	* @note This function is for iseg HV modules only.
		1656	* @param session The handle returned by snmpOpen()
		1657	* @param slot the modules slot position in the crate (0...9)
		1658	* @return The module event status register
		1659	*/
		1660	int getModuleEventStatus(HSNMP session, int slot)
		1661	{
		1662	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1663	return 0;
		1664
		1665	return snmpGetInt(session, &moduleEventStatus[slot]);
		1666	}
		1667
		1668	/**
		1669	* @brief Clears all modules events in a specific slot.
		1670	*
		1671	* To clear all events in all iseg HV modules, use setHighVoltageGroupsSwitch()
		1672	* with the parameter clearEvents(10).
		1673	* @param session The handle returned by snmpOpen()
		1674	* @param slot The modules slot position in the crate (0...9)
		1675	* @return
		1676	*/
		1677	int setModuleDoClear(HSNMP session, int slot)
		1678	{
		1679	if (slot < 0 \|\| slot >= MaxSlotsPerCrate)
		1680	return 0;
		1681
		1682	return snmpSetInt(session, &moduleDoClear[slot], 1);
		1683	}
		1684
		1685	// The rest of the functions are utility functions that actually do the SNMP calls
		1686
		1687	static void logErrors(HSNMP session, struct snmp_pdu *response,
		1688	const SnmpObject object, int status, const char functionName)
		1689	{
		1690	// FAILURE: print what went wrong!
		1691	if (status == STAT_SUCCESS)
		1692	snmp_log(LOG_ERR, "%s(%s): Error in packet. Reason: %s\n",
		1693	functionName, object->desc, snmp_errstring(response->errstat));
		1694	else
		1695	snmp_sess_perror("snmpget", snmp_sess_session(session));
		1696	}
		1697
		1698	static int getIntegerVariable(struct variable_list *vars)
		1699	{
		1700	if (vars->type == ASN_BIT_STR \|\| vars->type == ASN_OCTET_STR) {
		1701	int value = 0;
		1702	for (size_t i = 0; i < vars->val_len && i < sizeof(int); ++i)
		1703	value \|= (vars->val.bitstring[i] << (i * 8));
		1704	return value;
		1705	} if (vars->type == ASN_OPAQUE_FLOAT)
		1706	return (int)*vars->val.floatVal;
		1707	else if (vars->type == ASN_OPAQUE_DOUBLE)
		1708	return (int)*vars->val.doubleVal;
		1709	else if (vars->type == ASN_INTEGER)
		1710	return *vars->val.integer;
		1711	else if (vars->type == ASN_OCTET_STR)
		1712	return *vars->val.integer;
		1713	else if (vars->type == ASN_IPADDRESS)
		1714	return *vars->val.integer;
		1715
		1716	return 0;
		1717	}
		1718
		1719	static double getDoubleVariable(struct variable_list *vars)
		1720	{
		1721	if (vars->type == ASN_OPAQUE_FLOAT)
		1722	return *vars->val.floatVal;
		1723	else if (vars->type == ASN_OPAQUE_DOUBLE)
		1724	return *vars->val.doubleVal;
		1725	else if (vars->type == ASN_INTEGER)
		1726	return (double)*vars->val.integer;
		1727
		1728	return 0.0;
		1729	}
		1730
		1731	static struct snmp_pdu *prepareSetRequestPdu(void)
		1732	{
		1733	struct snmp_pdu *pdu = snmp_pdu_create(SNMP_MSG_SET);
		1734	pdu->community = (u_char *)strdup(m_writeCommunity);
		1735	pdu->community_len = strlen(m_writeCommunity);
		1736
		1737	return pdu;
		1738	}
		1739
		1740	static struct snmp_pdu *prepareGetRequestPdu()
		1741	{
		1742	struct snmp_pdu *pdu = snmp_pdu_create(SNMP_MSG_GET);
		1743
		1744	return pdu;
		1745	}
		1746
154	f9daq	1747	int snmpGetInt(HSNMP session, const SnmpObject *object)
151	f9daq	1748	{
		1749	int value = 0;
		1750
		1751	struct snmp_pdu *pdu = prepareGetRequestPdu();
		1752
		1753	snmp_add_null_var(pdu, object->id, object->len); // generate request data
		1754
		1755	struct snmp_pdu *response;
		1756	int status = snmp_sess_synch_response(session, pdu, &response);
		1757
		1758	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1759	value = getIntegerVariable(response->variables);
		1760	} else {
		1761	logErrors(session, response, object, status, "snmpGetInt");
		1762	return 0;
		1763	}
		1764
		1765	snmp_free_pdu(response);
		1766	return value;
		1767	}
		1768
		1769	static int snmpSetInt(HSNMP session, const SnmpObject *object, int value)
		1770	{
		1771	struct snmp_pdu *pdu = prepareSetRequestPdu();
		1772
		1773	if (snmp_oid_compare(object->id, object->len, ipStaticAddress.id, ipStaticAddress.len) == 0)
		1774	snmp_pdu_add_variable(pdu, object->id, object->len, ASN_IPADDRESS, (u_char *)&value, sizeof(value));
		1775	else
		1776	snmp_pdu_add_variable(pdu, object->id, object->len, ASN_INTEGER, (u_char *)&value, sizeof(value));
		1777
		1778	int result = value;
		1779	struct snmp_pdu *response;
		1780	int status = snmp_sess_synch_response(session, pdu, &response);
		1781
		1782	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1783	result = getIntegerVariable(response->variables);
		1784	} else {
		1785	logErrors(session, response, object, status, "snmpSetInt");
		1786	return 0;
		1787	}
		1788
		1789	snmp_free_pdu(response);
		1790	return result;
		1791	}
		1792
154	f9daq	1793	double snmpGetDouble(HSNMP session, const SnmpObject *object)
151	f9daq	1794	{
		1795	double value = 0.0;
		1796
		1797	struct snmp_pdu *pdu = prepareGetRequestPdu();
		1798
		1799	snmp_add_null_var(pdu, object->id, object->len); // generate request data
		1800
		1801	struct snmp_pdu *response;
		1802	int status = snmp_sess_synch_response(session, pdu, &response);
		1803
		1804	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1805	value = getDoubleVariable(response->variables);
		1806	} else {
		1807	logErrors(session, response, object, status, "snmpGetDouble");
		1808	return 0;
		1809	}
		1810
		1811	snmp_free_pdu(response);
		1812	return value;
		1813	}
		1814
		1815	static double snmpSetDouble(HSNMP session, const SnmpObject *object, double value)
		1816	{
		1817	struct snmp_pdu *pdu = prepareSetRequestPdu();
		1818
		1819	float v = (float)value;
		1820	snmp_pdu_add_variable(pdu, object->id, object->len, ASN_OPAQUE_FLOAT, (u_char *)&v, sizeof(v));
		1821
		1822	double result = v;
		1823
		1824	struct snmp_pdu *response;
		1825	int status = snmp_sess_synch_response(session, pdu, &response);
		1826
		1827	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1828	result = getDoubleVariable(response->variables);
		1829	} else {
		1830	logErrors(session, response, object, status, "snmpSetDouble");
		1831	return 0;
		1832	}
		1833
		1834	snmp_free_pdu(response);
		1835	return result;
		1836	}
		1837
		1838	static char snmpGetString(HSNMP session, const SnmpObject object)
		1839	{
		1840	struct snmp_pdu *pdu = prepareGetRequestPdu();
		1841
		1842	snmp_add_null_var(pdu, object->id, object->len); // generate request data
		1843
		1844	struct snmp_pdu *response;
		1845	int status = snmp_sess_synch_response(session, pdu, &response);
		1846
		1847	memset(snmpStringBuffer, 0, sizeof(snmpStringBuffer));
		1848
		1849	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1850	struct variable_list *vars = response->variables;
		1851	if (vars->type == ASN_OCTET_STR) {
		1852	size_t len = sizeof(snmpStringBuffer) - 1;
		1853	if (len > vars->val_len)
		1854	len = vars->val_len;
		1855
		1856	memcpy(snmpStringBuffer, vars->val.string, len);
		1857	snmpStringBuffer[len] = 0;
		1858	}
		1859	} else {
		1860	logErrors(session, response, object, status, "snmpGetString");
		1861	return 0;
		1862	}
		1863
		1864	snmp_free_pdu(response);
		1865	return snmpStringBuffer;
		1866	}
		1867
		1868	static SnmpIntegerBuffer snmpGetMultipleInteger(HSNMP session, const SnmpObject objects, int size)
		1869	{
		1870	struct snmp_pdu *pdu = prepareGetRequestPdu();
		1871
		1872	if (size > MaxChannelsPerSlot)
		1873	size = MaxChannelsPerSlot;
		1874
		1875	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		1876
		1877	for (int i = 0; i < size; ++i)
		1878	snmp_add_null_var(pdu, objects[i].id, objects[i].len); // generate request data
		1879
		1880	struct snmp_pdu *response;
		1881	int status = snmp_sess_synch_response(session, pdu, &response);
		1882
		1883	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1884	struct variable_list *vars;
		1885	for (vars = response->variables; vars; vars = vars->next_variable)
		1886	snmpIntegerBuffer.value[snmpIntegerBuffer.size++] = getIntegerVariable(vars);
		1887	} else {
		1888	logErrors(session, response, &objects[0], status, "snmpGetMultipleInteger");
		1889	return &snmpIntegerBuffer;
		1890	}
		1891
		1892	snmp_free_pdu(response);
		1893	return &snmpIntegerBuffer;
		1894	}
		1895
		1896	static SnmpIntegerBuffer snmpSetMultipleInteger(HSNMP session, const SnmpObject objects, SnmpIntegerBuffer *values)
		1897	{
		1898	struct snmp_pdu *pdu = prepareSetRequestPdu();
		1899
		1900	int size = values->size;
		1901	if (size > MaxChannelsPerSlot)
		1902	size = MaxChannelsPerSlot;
		1903
		1904	for (int i = 0; i < size; ++i) {
		1905	int v = values->value[i];
		1906	snmp_pdu_add_variable(pdu, objects[i].id, objects[i].len, ASN_INTEGER, (u_char *)&v, sizeof(v));
		1907	}
		1908
		1909	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		1910
		1911	struct snmp_pdu *response;
		1912	int status = snmp_sess_synch_response(session, pdu, &response);
		1913
		1914	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1915	struct variable_list *vars;
		1916	for (vars = response->variables; vars; vars = vars->next_variable)
		1917	snmpIntegerBuffer.value[snmpIntegerBuffer.size++] = getIntegerVariable(vars);
		1918	} else {
		1919	logErrors(session, response, &objects[0], status, "snmpSetMultipleInteger");
		1920	return &snmpIntegerBuffer;
		1921	}
		1922
		1923	snmp_free_pdu(response);
		1924	return &snmpIntegerBuffer;
		1925	}
		1926
		1927	static SnmpDoubleBuffer snmpGetMultipleDouble(HSNMP session, const SnmpObject objects, int size)
		1928	{
		1929	struct snmp_pdu *pdu = prepareGetRequestPdu();
		1930
		1931	if (size > MaxChannelsPerSlot)
		1932	size = MaxChannelsPerSlot;
		1933
		1934	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		1935
		1936	for (int i = 0; i < size; ++i)
		1937	snmp_add_null_var(pdu, objects[i].id, objects[i].len); // generate request data
		1938
		1939	struct snmp_pdu *response;
		1940	int status = snmp_sess_synch_response(session, pdu, &response);
		1941
		1942	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1943	struct variable_list *vars;
		1944	for (vars = response->variables; vars; vars = vars->next_variable)
		1945	snmpDoubleBuffer.value[snmpDoubleBuffer.size++] = getDoubleVariable(vars);
		1946	} else {
		1947	logErrors(session, response, &objects[0], status, "snmpGetMultipleDouble");
		1948	return &snmpDoubleBuffer;
		1949	}
		1950
		1951	snmp_free_pdu(response);
		1952
		1953	return &snmpDoubleBuffer;
		1954	}
		1955
		1956	static SnmpDoubleBuffer snmpSetMultipleDouble(HSNMP session, const SnmpObject objects, SnmpDoubleBuffer *values)
		1957	{
		1958	struct snmp_pdu *pdu = prepareSetRequestPdu();
		1959
		1960	int size = values->size;
		1961	if (size > MaxChannelsPerSlot)
		1962	size = MaxChannelsPerSlot;
		1963
		1964	for (int i = 0; i < size; ++i) {
		1965	float v = (float)values->value[i];
		1966	snmp_pdu_add_variable(pdu, objects[i].id, objects[i].len, ASN_OPAQUE_FLOAT, (u_char *)&v, sizeof(v));
		1967	}
		1968
		1969	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		1970
		1971	struct snmp_pdu *response;
		1972	int status = snmp_sess_synch_response(session, pdu, &response);
		1973
		1974	if (status == STAT_SUCCESS && response->errstat == SNMP_ERR_NOERROR) {
		1975	struct variable_list *vars;
		1976	for (vars = response->variables; vars; vars = vars->next_variable)
		1977	snmpDoubleBuffer.value[snmpDoubleBuffer.size++] = getDoubleVariable(vars);
		1978	} else {
		1979	logErrors(session, response, &objects[0], status, "snmpSetMultipleDouble");
		1980	return &snmpDoubleBuffer;
		1981	}
		1982
		1983	snmp_free_pdu(response);
		1984	return &snmpDoubleBuffer;
		1985	}
		1986
		1987	/**
		1988	* @brief Returns an array with the outputStatus for a consecutive range of channels.
		1989	*
		1990	* @note This function is deprecated. Use getMultipleOutputStatuses() instead.
		1991	* @param session The handle returned by snmpOpen()
		1992	* @param start The first channel (in the range of 0 to MaxArraySize).
		1993	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		1994	* @param size The number of requested channels.
		1995	* @return A pointer to SnmpIntegerBuffer with the requested information.
		1996	* @note This pointer is only valid until the next call of getMultiple...
		1997	* or setMultiple... function.
		1998	*/
		1999	SnmpIntegerBuffer *getMultipleChannelStatuses(HSNMP session, int start, int size)
		2000	{
		2001	return getMultipleOutputStatuses(session, start, size);
		2002	}
		2003
		2004	/**
		2005	* @brief Returns an array with the outputStatus for a consecutive range of channels.
		2006	* @since 1.1
		2007	* @param session The handle returned by snmpOpen()
		2008	* @param start The first channel (in the range of 0 to MaxArraySize).
		2009	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2010	* @param size The number of requested channels.
		2011	* @return A pointer to SnmpIntegerBuffer with the requested information.
		2012	* @note This pointer is only valid until the next call of getMultiple...
		2013	* or setMultiple... function.
		2014	*/
		2015	SnmpIntegerBuffer *getMultipleOutputStatuses(HSNMP session, int start, int size)
		2016	{
		2017	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2018	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2019	return &snmpIntegerBuffer;
		2020	}
		2021
		2022	return snmpGetMultipleInteger(session, &outputStatus[start], size);
		2023	}
		2024
		2025	/**
		2026	* @brief Returns an array with the outputSwitches for a consecutive range of channels.
		2027	* @param session The handle returned by snmpOpen()
		2028	* @param start The first channel (in the range of 0 to MaxArraySize).
		2029	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2030	* @param size The number of requested channels.
		2031	* @return A pointer to SnmpIntegerBuffer with the requested information.
		2032	* @note This pointer is only valid until the next call of getMultiple...
		2033	* or setMultiple... function.
		2034	*/
		2035	SnmpIntegerBuffer *getMultipleOutputSwitches(HSNMP session, int start, int size)
		2036	{
		2037	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2038	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2039	return &snmpIntegerBuffer;
		2040	}
		2041
		2042	return snmpGetMultipleInteger(session, &outputSwitch[start], size);
		2043	}
		2044
		2045	/**
		2046	* @brief Sets the outputSwitch for a consecutive range of channels.
		2047	* @param session The handle returned by snmpOpen()
		2048	* @param start The first channel (in the range of 0 to MaxArraySize).
		2049	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2050	* @param values A pointer to SnmpIntegerBuffer with the list of outputSwitches.
		2051	* @return
		2052	*/
		2053	SnmpIntegerBuffer setMultipleOutputSwitches(HSNMP session, int start, SnmpIntegerBuffer values)
		2054	{
		2055	if (start < 0 \|\| values->size < 0 \|\| start + values->size > MaxChannelsPerCrate) {
		2056	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2057	return &snmpIntegerBuffer;
		2058	}
		2059
		2060	return snmpSetMultipleInteger(session, &outputSwitch[start], values);
		2061	}
		2062
		2063	/**
		2064	* @brief Returns the actual outputVoltage for a consecutive range of channels.
		2065	* @param session The handle returned by snmpOpen()
		2066	* @param start The first channel (in the range of 0 to MaxArraySize).
		2067	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2068	* @param size The number of requested channels.
		2069	* @return A pointer to SnmpDoubleBuffer with the requested information.
		2070	* @note This pointer is only valid until the next call of getMultiple...
		2071	* or setMultiple... function.
		2072	*/
		2073	SnmpDoubleBuffer *getMultipleOutputVoltages(HSNMP session, int start, int size)
		2074	{
		2075	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2076	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2077	return &snmpDoubleBuffer;
		2078	}
		2079
		2080	return snmpGetMultipleDouble(session, &outputVoltage[start], size);
		2081	}
		2082
		2083	/**
		2084	* @brief Sets the demanded outputVoltage for a consecutive range of channels.
		2085	* @param session The handle returned by snmpOpen()
		2086	* @param start The first channel (in the range of 0 to MaxArraySize).
		2087	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2088	* @param values A pointer to SnmpDoubleBuffer with the list of new outputVoltages
		2089	* @return
		2090	*/
		2091	SnmpDoubleBuffer setMultipleOutputVoltages(HSNMP session, int start, SnmpDoubleBuffer values)
		2092	{
		2093	if (start < 0 \|\| values->size < 0 \|\| start + values->size > MaxChannelsPerCrate) {
		2094	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2095	return &snmpDoubleBuffer;
		2096	}
		2097
		2098	return snmpSetMultipleDouble(session, &outputVoltage[start], values);
		2099	}
		2100
		2101	/**
		2102	* @brief Returns the measured terminal voltages for a consecutive range of channels.
		2103	* @param session The handle returned by snmpOpen()
		2104	* @param start The first channel (in the range of 0 to MaxArraySize).
		2105	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2106	* @param size The number of requested channels.
		2107	* @return A pointer to SnmpDoubleBuffer with the requested information.
		2108	* @note This pointer is only valid until the next call of getMultiple...
		2109	* or setMultiple... function.
		2110	*/
		2111	SnmpDoubleBuffer *getMultipleMeasurementTerminalVoltages(HSNMP session, int start, int size)
		2112	{
		2113	return getMultipleOutputMeasurementTerminalVoltages(session, start, size);
		2114	}
		2115
		2116	/**
		2117	* @brief Returns an array with the measured terminal voltages for a consecutive range of channels.
		2118	* @since 1.1
		2119	* @param session The handle returned by snmpOpen()
		2120	* @param start The first channel (in the range of 0 to MaxArraySize).
		2121	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2122	* @param size The number of requested channels.
		2123	* @return A pointer to SnmpDoubleBuffer with the requested information.
		2124	* @note This pointer is only valid until the next call of getMultiple...
		2125	* or setMultiple... function.
		2126	*/
		2127	SnmpDoubleBuffer *getMultipleOutputMeasurementTerminalVoltages(HSNMP session, int start, int size)
		2128	{
		2129	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2130	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2131	return &snmpDoubleBuffer;
		2132	}
		2133
		2134	return snmpGetMultipleDouble(session, &outputMeasurementTerminalVoltage[start], size);
		2135	}
		2136
		2137	/**
		2138	* @brief getMultipleOutputConfigMaxTerminalVoltages
		2139	* @param session The handle returned by snmpOpen()
		2140	* @param start The first channel (in the range of 0 to MaxArraySize).
		2141	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2142	* @param size The number of requested channels.
		2143	* @return
		2144	*/
		2145	SnmpDoubleBuffer *getMultipleOutputConfigMaxTerminalVoltages(HSNMP session, int start, int size)
		2146	{
		2147	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2148	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2149	return &snmpDoubleBuffer;
		2150	}
		2151
		2152	return snmpGetMultipleDouble(session, &outputConfigMaxTerminalVoltage[start], size);
		2153	}
		2154
		2155	/**
		2156	* @brief Returns an array the demanded output currents for a consecutive range of channels.
		2157	* @param session The handle returned by snmpOpen()
		2158	* @param start The first channel (in the range of 0 to MaxArraySize).
		2159	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2160	* @param size The number of requested channels.
		2161	* @return
		2162	*/
		2163	SnmpDoubleBuffer *getMultipleOutputCurrents(HSNMP session, int start, int size)
		2164	{
		2165	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2166	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2167	return &snmpDoubleBuffer;
		2168	}
		2169
		2170	return snmpGetMultipleDouble(session, &outputCurrent[start], size);
		2171	}
		2172
		2173	/**
		2174	* @brief Sets the demanded output current for a consecutive range of channels.
		2175	* @param session The handle returned by snmpOpen()
		2176	* @param start The first channel (in the range of 0 to MaxArraySize).
		2177	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2178	* @param values A pointer to SnmpDoubleBuffer with a list of new output currents
		2179	* @return
		2180	*/
		2181	SnmpDoubleBuffer setMultipleOutputCurrents(HSNMP session, int start, SnmpDoubleBuffer values)
		2182	{
		2183	if (start < 0 \|\| values->size < 0 \|\| start + values->size > MaxChannelsPerCrate) {
		2184	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2185	return &snmpDoubleBuffer;
		2186	}
		2187
		2188	return snmpSetMultipleDouble(session, &outputCurrent[start], values);
		2189	}
		2190
		2191	/**
		2192	* @brief Returns an array with the measured currents for a consecutive range of channels.
		2193	*
		2194	* @note This function is deprecated. Use getMultipleOutputMeasurementCurrents() instead.
		2195	* @param session The handle returned by snmpOpen()
		2196	* @param start The first channel (in the range of 0 to MaxArraySize).
		2197	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2198	* @param size The number of requested channels.
		2199	* @return A pointer to SnmpDoubleBuffer with the requested information.
		2200	* @note This pointer is only valid until the next call of getMultiple...
		2201	* or setMultiple... function.
		2202	*/
		2203	SnmpDoubleBuffer *getMultipleMeasurementCurrents(HSNMP session, int start, int size)
		2204	{
		2205	return getMultipleOutputMeasurementCurrents(session, start, size);
		2206	}
		2207
		2208	/**
		2209	* @brief Returns an array with the measured currents for a consecutive range of channels.
		2210	* @since 1.1
		2211	* @param session The handle returned by snmpOpen()
		2212	* @param start The first channel (in the range of 0 to MaxArraySize).
		2213	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2214	* @param size The number of requested channels.
		2215	* @return A pointer to SnmpDoubleBuffer with the requested information.
		2216	* @note This pointer is only valid until the next call of getMultiple...
		2217	* or setMultiple... function.
		2218	*/
		2219	SnmpDoubleBuffer *getMultipleOutputMeasurementCurrents(HSNMP session, int start, int size)
		2220	{
		2221	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2222	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2223	return &snmpDoubleBuffer;
		2224	}
		2225
		2226	return snmpGetMultipleDouble(session, &outputMeasurementCurrent[start], size);
		2227	}
		2228
		2229	/**
		2230	* @brief Returns an array with the outputConfigMaxCurrent for a consecutive range of channels.
		2231	* @param session The handle returned by snmpOpen()
		2232	* @param start The first channel (in the range of 0 to MaxArraySize).
		2233	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2234	* @param size The number of requested channels.
		2235	* @return
		2236	*/
		2237	SnmpDoubleBuffer *getMultipleOutputConfigMaxCurrents(HSNMP session, int start, int size)
		2238	{
		2239	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2240	memset(&snmpDoubleBuffer, 0, sizeof(snmpDoubleBuffer));
		2241	return &snmpDoubleBuffer;
		2242	}
		2243
		2244	return snmpGetMultipleDouble(session, &outputConfigMaxCurrent[start], size);
		2245	}
		2246
		2247	/**
		2248	* @brief Returns an array with the outputTripTimeMaxCurrent for a consecutive range of channels.
		2249	* @param session The handle returned by snmpOpen()
		2250	* @param start The first channel (in the range of 0 to MaxArraySize).
		2251	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2252	* @param size The number of requested channels.
		2253	* @return
		2254	*/
		2255	SnmpIntegerBuffer *getMultipleOutputTripTimeMaxCurrents(HSNMP session, int start, int size)
		2256	{
		2257	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2258	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2259	return &snmpIntegerBuffer;
		2260	}
		2261
		2262	return snmpGetMultipleInteger(session, &outputTripTimeMaxCurrent[start], size);
		2263	}
		2264
		2265	/**
		2266	* @brief Sets the outputTripTimeMaxCurrent for a consecutive ranges of channels.
		2267	* @param session The handle returned by snmpOpen()
		2268	* @param start The first channel (in the range of 0 to MaxArraySize).
		2269	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2270	* @param values
		2271	* @return
		2272	*/
		2273	SnmpIntegerBuffer setMultipleOutputTripTimeMaxCurrents(HSNMP session, int start, SnmpIntegerBuffer values)
		2274	{
		2275	if (start < 0 \|\| values->size < 0 \|\| start + values->size > MaxChannelsPerCrate) {
		2276	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2277	return &snmpIntegerBuffer;
		2278	}
		2279
		2280	return snmpSetMultipleInteger(session, &outputTripTimeMaxCurrent[start], values);
		2281	}
		2282
		2283	/**
		2284	* @brief Returns an array with the outputSupervisionBehavior for a consecutive range of channels.
		2285	* @param session The handle returned by snmpOpen()
		2286	* @param start The first channel (in the range of 0 to MaxArraySize).
		2287	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2288	* @param size The number of requested channels.
		2289	* @return
		2290	*/
		2291	SnmpIntegerBuffer *getMultipleOutputSupervisionBehaviors(HSNMP session, int start, int size)
		2292	{
		2293	if (start < 0 \|\| size < 0 \|\| start + size > MaxChannelsPerCrate) {
		2294	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2295	return &snmpIntegerBuffer;
		2296	}
		2297
		2298	return snmpGetMultipleInteger(session, &outputSupervisionBehavior[start], size);
		2299	}
		2300
		2301	/**
		2302	* @brief Sets the outputSupervisionBehavior for a consecutive range of channels.
		2303	* @param session The handle returned by snmpOpen()
		2304	* @param start The first channel (in the range of 0 to MaxArraySize).
		2305	* 0 = slot 0, channel 0; 100 = slot 1, channel 0.
		2306	* @param values The new outputSupervisionBehavior for the all channels starting with start.
		2307	* @return
		2308	*/
		2309	SnmpIntegerBuffer setMultipleOutputSupervisionBehaviors(HSNMP session, int start, SnmpIntegerBuffer values)
		2310	{
		2311	if (start < 0 \|\| values->size < 0 \|\| start + values->size > MaxChannelsPerCrate) {
		2312	memset(&snmpIntegerBuffer, 0, sizeof(snmpIntegerBuffer));
		2313	return &snmpIntegerBuffer;
		2314	}
		2315
		2316	return snmpSetMultipleInteger(session, &outputSupervisionBehavior[start], values);
		2317	}

Subversion Repositories f9daq

(root)/cvi/instr/MPOD/WIENER_SNMP.c – Rev 154