AutoShuntCalResult WirelessNode_Impl::autoShuntCal(const ChannelMask& mask, const ShuntCalCmdInfo& commandInfo)
{
//verify the node supports this operation
if(!features().supportsAutoShuntCal())
{
throw Error_NotSupported("AutoShuntCal is not supported by this Node.");
}
//verify the channel mask supports this operation
if(!features().supportsChannelSetting(WirelessTypes::chSetting_autoShuntCal, mask))
{
throw Error_NotSupported("AutoShuntCal is not supported by the provided channel(s).");
}
uint8 channel = mask.lastChEnabled();
WirelessTypes::ChannelType chType = features().channelType(channel);
AutoShuntCalResult result;
bool success = m_baseStation.node_autoShuntCal(m_address, commandInfo, channel, model(), chType, result);
if(!success)
{
throw Error_NodeCommunication(m_address, "AutoShuntCal has failed.");
}
return result;
}
AutoCalResult_shmLink WirelessNode_Impl::autoCal_shmLink()
{
WirelessModels::NodeModel nodeModel = features().m_nodeInfo.model();
//verify the node supports autocal
if(!features().supportsAutoCal())
{
throw Error_NotSupported("AutoCal is not supported by this Node.");
}
//verify the node is the correct model
if(nodeModel != WirelessModels::node_shmLink2 &&
nodeModel != WirelessModels::node_shmLink2_cust1)
{
throw Error_NotSupported("autoCal_shmLink is not supported by this Node's model.");
}
//perform the autocal command by the base station
AutoCalResult_shmLink result;
bool success = m_baseStation.node_autocal_shm(m_address, result);
if(!success)
{
throw Error_NodeCommunication(m_address, "AutoCal has failed.");
}
return result;
}
std::unique_ptr<BaseStationFeatures> BaseStationFeatures::create(BaseStationInfo& info)
{
switch(info.model())
{
case WirelessModels::base_wsdaBase_104_usb:
return std::unique_ptr<BaseStationFeatures>(new BaseStationFeatures_usb(info));
case WirelessModels::base_wsdaBase_101_analog:
return std::unique_ptr<BaseStationFeatures>(new BaseStationFeatures_analog(info));
case WirelessModels::base_wsdaBase_102_rs232:
return std::unique_ptr<BaseStationFeatures>(new BaseStationFeatures_rs232(info));
case WirelessModels::base_wsdaBase_oem:
return std::unique_ptr<BaseStationFeatures>(new BaseStationFeatures_oem(info));
case WirelessModels::base_wsda_1000:
case WirelessModels::base_wsda_1500:
case WirelessModels::base_wsda_2000:
return std::unique_ptr<BaseStationFeatures>(new BaseStationFeatures_wsda(info));
default:
//we don't know anything about this node, throw an exception
throw Error_NotSupported("The BaseStation model (" + Utils::toStr(info.model()) + ") is not supported by MSCL.");
}
}
const WirelessTypes::WirelessSampleRates NodeFeatures_vlink200::sampleRates(WirelessTypes::SamplingMode samplingMode, WirelessTypes::DataCollectionMethod dataCollectionMethod) const
{
//the list of sample rates varies for each sampling mode
switch(samplingMode)
{
case WirelessTypes::samplingMode_nonSync:
if(dataCollectionMethod == WirelessTypes::collectionMethod_logOnly)
{
return AvailableSampleRates::continuous_log_gen2;
}
else
{
return AvailableSampleRates::continuous_nonSync_gen2;
}
case WirelessTypes::samplingMode_sync:
if(dataCollectionMethod == WirelessTypes::collectionMethod_logOnly)
{
return AvailableSampleRates::continuous_log_gen2;
}
else
{
return AvailableSampleRates::continuous_sync_gen2;
}
case WirelessTypes::samplingMode_syncBurst:
case WirelessTypes::samplingMode_syncEvent:
return AvailableSampleRates::burst_gen2;
default:
throw Error_NotSupported("The sampling mode is not supported by this Node");
}
}
void BaseStationEepromHelper::checkAnalogPairingSupported() const
{
//check analog pairing is supported
if(!m_baseStation->features().supportsAnalogPairing())
{
throw Error_NotSupported("Analog Pairing is not supported by this BaseStation.");
}
}
uint16 WirelessNode_Impl::getDiagnosticInterval() const
{
if(!features().supportsDiagnosticInfo())
{
throw Error_NotSupported("Diagnostic Info is not supported by this Node.");
}
return m_eepromHelper->read_diagnosticInterval();
}
uint32 WirelessNode_Impl::getSensorDelay() const
{
if(!features().supportsSensorDelayConfig())
{
throw Error_NotSupported("Sensor Delay is not supported by this Node.");
}
return m_eepromHelper->read_sensorDelay();
}
uint32 WirelessNode_Impl::getNumSweeps() const
{
//if the node doesn't support limited number of sweeps
if(!features().supportsLimitedDuration())
{
throw Error_NotSupported("The Number of Sweeps is not supported by this Ndoe.");
}
return m_eepromHelper->read_numSweeps();
}
uint16 WirelessNode_Impl::getLostBeaconTimeout() const
{
//if the node doesn't support lost beacon timeout
if(!features().supportsLostBeaconTimeout())
{
throw Error_NotSupported("Lost Beacon Timeout is not supported by this Node.");
}
return m_eepromHelper->read_lostBeaconTimeout();
}
TimeSpan WirelessNode_Impl::getTimeBetweenBursts() const
{
//if the node doesn't support burst mode
if(!features().supportsSamplingMode(WirelessTypes::samplingMode_syncBurst))
{
throw Error_NotSupported("Burst Sampling is not supported by this Node.");
}
return m_eepromHelper->read_timeBetweenBursts();
}
const EepromLocation& ChannelGroup::getSettingEeprom(WirelessTypes::ChannelGroupSetting setting) const
{
try
{
return m_settingsMap.at(setting);
}
catch(std::out_of_range&)
{
throw Error_NotSupported("The requested setting is not supported for this ChannelGroup.");
}
}
const WirelessTypes::WirelessSampleRates NodeFeatures_cfBearing::sampleRates(WirelessTypes::SamplingMode samplingMode, WirelessTypes::DataCollectionMethod dataCollectionMethod) const
{
//the list of sample rates varies for each sampling mode
switch(samplingMode)
{
case WirelessTypes::samplingMode_nonSync:
return AvailableSampleRates::continuous_cfBearing;
default:
throw Error_NotSupported("The sampling mode is not supported by this Node");
}
}
EventTriggerOptions WirelessNode_Impl::getEventTriggerOptions() const
{
//if the node doesn't support event trigger options
if(!features().supportsEventTrigger())
{
throw Error_NotSupported("Event Trigger is not supported by this Node.");
}
EventTriggerOptions result;
m_eepromHelper->read_eventTriggerOptions(result);
return result;
}
ActivitySense WirelessNode_Impl::getActivitySense() const
{
//if the node doesn't support activity sense options
if(!features().supportsActivitySense())
{
throw Error_NotSupported("ActivitySense configuration is not supported by this Node.");
}
ActivitySense result;
m_eepromHelper->read_activitySense(result);
return result;
}
HistogramOptions WirelessNode_Impl::getHistogramOptions() const
{
//if the node doesn't support histogram options
if(!features().supportsHistogramConfig())
{
throw Error_NotSupported("HistogramOptions configuration is not supported by this Node.");
}
HistogramOptions result;
m_eepromHelper->read_histogramOptions(result);
return result;
}
FatigueOptions WirelessNode_Impl::getFatigueOptions() const
{
//if the node doesn't support fatigue options
if(!features().supportsFatigueConfig())
{
throw Error_NotSupported("FatigueOptions configuration is not supported by this Node.");
}
FatigueOptions result;
m_eepromHelper->read_fatigueOptions(result);
return result;
}
const WirelessTypes::WirelessSampleRates NodeFeatures_iepeLink::sampleRates(WirelessTypes::SamplingMode samplingMode, WirelessTypes::DataCollectionMethod dataCollectionMethod) const
{
//the list of sample rates varies for each sampling mode
switch(samplingMode)
{
case WirelessTypes::samplingMode_syncBurst:
return AvailableSampleRates::burst_iepeLink;
default:
throw Error_NotSupported("The sampling mode is not supported by this Node");
}
}
void WirelessNode_Impl::clearHistogram()
{
//if the node doesn't support histogram options
if(!features().supportsHistogramConfig())
{
throw Error_NotSupported("Histogram configuration is not supported by this Node.");
}
m_eepromHelper->clearHistogram();
//must cycle power for the clearing to take affect
cyclePower();
}
uint16 InputRange::inputRangeToEepromVal(WirelessTypes::InputRange range, WirelessModels::NodeModel nodeType, WirelessTypes::ChannelType channelType)
{
const InputRangeMap& ranges = getRangeMap(nodeType, channelType);
for(auto& r : ranges)
{
if(r.second == range)
{
return r.first;
}
}
throw Error_NotSupported("Invalid Input Range Value");
}
BaseStationButton BaseStationEepromHelper::read_button(uint8 buttonNumber, BaseStationButton::UserAction action) const
{
//check buttons are supported
if(!m_baseStation->features().supportsButtons())
{
throw Error_NotSupported("Button Configuration is not supported by this BaseStation.");
}
//find the eeprom locations to read from
EepromLocation funcEeprom = BaseStationEepromMap::buttonFuncEeprom(buttonNumber, action);
EepromLocation nodeEeprom = BaseStationEepromMap::buttonNodeEeprom(buttonNumber, action);
//read the function and node and build a button
return BaseStationButton(static_cast<BaseStationButton::Command>(read(funcEeprom).as_uint16()), read(nodeEeprom).as_uint16());
}
void WirelessNode_Impl::getDiagnosticInfo(ChannelData& result)
{
//verify the node supports this operation
if(!features().supportsGetDiagnosticInfo())
{
throw Error_NotSupported("The Get Diagnostic Info command is not supported by this Node.");
}
bool success = m_baseStation.node_getDiagnosticInfo(m_address, result);
if(!success)
{
throw Error_NodeCommunication(m_address, "Get Diagnostic Info has failed.");
}
}
WirelessTypes::StorageLimitMode WirelessNode_Impl::getStorageLimitMode() const
{
if(!features().supportsLoggedData())
{
throw Error_NotSupported("Datalogging is not supported by this Node.");
}
if(!features().supportsStorageLimitModeConfig())
{
//legacy nodes don't support this eeprom, but are
//hard coded to stop when the storage limit is reached.
return WirelessTypes::storageLimit_stop;
}
return m_eepromHelper->read_storageLimitMode();
}
void BaseStationEepromHelper::write_button(uint8 buttonNumber, BaseStationButton::UserAction action, const BaseStationButton& btn)
{
//check buttons are supported
if(!m_baseStation->features().supportsButtons())
{
throw Error_NotSupported("Button Configuration is not supported by this BaseStation.");
}
//find the eeprom locations to write to
EepromLocation funcEeprom = BaseStationEepromMap::buttonFuncEeprom(buttonNumber, action);
EepromLocation nodeEeprom = BaseStationEepromMap::buttonNodeEeprom(buttonNumber, action);
//write the button's function/command
write(funcEeprom, Value::UINT16(static_cast<uint16>(btn.command())));
//write the button's node address
write(nodeEeprom, Value::UINT16(btn.nodeAddress()));
}
const WirelessTypes::WirelessSampleRates NodeFeatures_vlink_legacy::sampleRates(WirelessTypes::SamplingMode samplingMode, WirelessTypes::DataCollectionMethod dataCollectionMethod) const
{
//the list of sample rates varies for each sampling mode
switch(samplingMode)
{
case WirelessTypes::samplingMode_nonSync:
case WirelessTypes::samplingMode_sync:
return AvailableSampleRates::continuous;
case WirelessTypes::samplingMode_syncBurst:
return AvailableSampleRates::burst;
case WirelessTypes::samplingMode_armedDatalog:
return AvailableSampleRates::armedDatalog;
default:
throw Error_NotSupported("The sampling mode is not supported by this Node");
}
}
DatalogDownloader::DatalogDownloader(const WirelessNode& node):
m_node(node),
m_foundFirstTrigger(false),
m_outOfMemory(false),
m_sweepCount(0)
{
//verify the node supports logged data
if(!node.features().supportsLoggedData())
{
throw Error_NotSupported("Logging is not supported by this Node.");
}
m_datalogDownloadVersion = m_node.features().datalogDownloadVersion();
if(m_datalogDownloadVersion == 1)
{
//get the datalogging information from the Node
uint16 logPage = m_node.eepromHelper().read_logPage();
uint16 pageOffset = m_node.eepromHelper().read_logPageOffset();
//create the NodeMemory object (v1)
m_nodeMemory.reset(new NodeMemory_v1(m_node, logPage, pageOffset));
}
else
{
//get the datalogging session info
DatalogSessionInfoResult dlInfo;
if(!m_node.getBaseStation().node_getDatalogSessionInfo(node.protocol(), node.nodeAddress(), dlInfo))
{
throw Error_NodeCommunication(m_node.nodeAddress(), "Failed to get the Datalog Session Info");
}
//get the FlashInfo
FlashInfo flashInfo = m_node.eepromHelper().read_flashInfo();
//create the Node Memory object (v2)
m_nodeMemory.reset(new NodeMemory_v2(m_node, flashInfo, dlInfo.startAddress, dlInfo.maxLoggedBytes));
}
}
const InputRange::InputRangeMap& InputRange::getRangeMap(WirelessModels::NodeModel nodeType, WirelessTypes::ChannelType channelType)
{
switch(nodeType)
{
case WirelessModels::node_sgLink:
return RANGES_SGLINK;
case WirelessModels::node_sgLink_oem:
case WirelessModels::node_sgLink_oem_S:
case WirelessModels::node_sgLink_micro:
case WirelessModels::node_torqueLink:
return RANGES_SGLINK_OEM;
case WirelessModels::node_sgLink_herm:
case WirelessModels::node_sgLink_herm_2600:
case WirelessModels::node_sgLink_herm_2700:
case WirelessModels::node_sgLink_herm_2800:
return RANGES_SGLINK_HERMETIC;
case WirelessModels::node_sgLink_rgd:
return RANGES_SGLINK_RGD;
case WirelessModels::node_shmLink:
return RANGES_SHMLINK;
case WirelessModels::node_vLink:
case WirelessModels::node_vLink_legacy:
return RANGES_VLINK;
case WirelessModels::node_vLink200:
case WirelessModels::node_vLink200_qbridge_1K:
case WirelessModels::node_vLink200_qbridge_120:
case WirelessModels::node_vLink200_qbridge_350:
case WirelessModels::node_vLink200_hbridge_1K:
case WirelessModels::node_vLink200_hbridge_120:
case WirelessModels::node_vLink200_hbridge_350:
if(channelType == WirelessTypes::chType_fullDifferential)
{
return RANGES_VLINK200_FULLDIFF_CHS;
}
else if(channelType == WirelessTypes::chType_singleEnded)
{
return RANGES_VLINK200_SINGLEENDED_CHS;
}
case WirelessModels::node_tcLink_1ch:
case WirelessModels::node_tcLink_3ch:
case WirelessModels::node_tcLink_6ch:
case WirelessModels::node_tcLink_6ch_ip67:
case WirelessModels::node_tcLink_6ch_ip67_rht:
case WirelessModels::node_envLink_mini:
case WirelessModels::node_rtdLink:
return RANGES_TCLINK;
case WirelessModels::node_envLink_pro:
if(channelType == WirelessTypes::chType_diffTemperature)
{
return RANGES_ENVLINK_PRO_TEMPERATURE_CHS;
}
else if(channelType == WirelessTypes::chType_voltage)
{
return RANGES_ENVLINK_PRO_VOLTAGE_CHS;
}
case WirelessModels::node_mvPerVLink:
return RANGES_MVPVLINK;
}
throw Error_NotSupported("Invalid Node Type");
}