Sync

From model to driver

It is a binary value (0 or 1) that represents the synchronization state of the timestamp. If the timestamp is synchronized with an accurate external source such as a GPS, the value applied to this signal should be 1 and otherwise it should be 0.

For GOOSE: This value will appear in each time qualify byte of the data frames to indicate the validity of the timestamp.
For SV: This value will appear in the smpSynch attribute of the SV messages.

Epoch

For GOOSE: Represents the number of seconds elapsed since January 1st 1970, commonly known as Unix epoch time. It means that it has to increment at each second. This signal is used to timestamp the outgoing packets.
For SV: Represents the second increment, which may be the epoch time (see above), as well as a counter of a period of one second. It means that it has to increment at each second. This value is used to set the smpCnt attribute in the SV messages.

Microseconds

For GOOSE: Represents the microsecond count within the current second.
For SV: This input is not necessary.

Settings / Pause

From model to driver

Controls the transmission of the GOOSE message. An input of 1 suspends transmission and a value of 0 enables it.

Settings / stNum

From driver to model

Starting from 0, this value is incremented every time a change occurred to a data set member of the GOOSE message.

Settings / sqNum 

From driver to model

Starting from 0, this value is incremented for each GOOSE message sent without any modifications to its data set members.
The count is reset to zero if a change is detected for any of the data set objects.

Settings / simulation

From model to driver

This input controls the GOOSE header field "test". If the input value is 1 (TRUE), the GOOSE message will be transmitted with the test flag equal to TRUE, informing all subscribers that the Object Input Data is the result of a test.

Settings / ndsCom

From model to driver

This input controls the GOOSE header field "needs commissioning".

Data

From model to driver

Each attribute found in the data set used by the GOOSE message provides a connection point. Its format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Settings / Pause

From model to driver

Controls the reception of the GOOSE message. An input of 1 suspends reception and a value of 0 enables it.

Settings / stNum

From driver to model

Starting from 0, this value is incremented every time a change occurred to a data set member of the GOOSE message.

Settings / sqNum

From driver to model

Starting from 0, this value is incremented for each GOOSE message received without any modifications to its data set members.
The count is reset to zero if a change is detected for any of the data set objects.

Settings / State

From driver to model

• 0 → Message reception has been stopped or first message has not been received yet.

• 1 → Reception is operational.

• -4 → Message lost: the time-frame period between two consecutive GOOSE messages has surpassed the TimeAllowedToLive parameter.

• -5 → Message Out of Order: newly received message has a sqNum or stNum smaller than the previously received message. In other words, the current message is older than the previous one.

• -14 → pcap library initialization error: verify if the NIC name provided in the configuration is valid in the system.

Settings / simulation

From driver to model

This value represents the contents of the GOOSE header field "test". If the value is 1 (TRUE), it means the GOOSE message received has the test flag equal to TRUE. In other words, the Object Input Data is the result of a test.

Settings / Header simulated bit

From driver to model

This value represents the simulation bit in the Reserved 1 field of the header of each received GOOSE message. If the value is 1, the data is considered to be sent by a simulated device.

Data

From driver to model

Each attribute found in the data set used by the GOOSE message provides a connection point. Its format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Settings / Pause

From model to driver

Controls the transmission of the Sampled Values message. An input of 1 suspends transmission and a value of 0 enables it.

Current Value

Vector of 4 currents [Ia, Ib, Ic, In], which are the 3 phase currents and the neutral current.

Current Quality

Vector of 4 quality values [QIa, QIb, QIc, QIn]. Each element represents a 16-bit value. The significance of each bit is described in the table below, in the Quality word in Sampled Values messages section.

Voltage Value

Vector of 4 voltages [Va, Vb, Vc, Vn], which are the 3 phase voltages and the neutral voltage.

Voltage Quality

Vector of 4 quality values [QVa, QVb, QVc, QVn]. Each element represents a 16-bit value. The significance of each bit is described in the table below, in the Quality word in Sampled Values messages section.

Settings / Pause

From model to driver

Controls the transmission of the Sampled Values message. An input of 1 suspends transmission and a value of 0 enables it.

Data

Each attribute found in the data set used by the SV message provides a connection point. These points are for voltage and current values, as well as their quality values.
An attribute's format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Settings / Pause

From model to driver

Controls the reception of the Sampled Values message. An input of 1 suspends reception and a value of 0 activates it.

Settings / Timestamp

From driver to model

Provides the time when each SV message was captured. This is an increasing count in microseconds provided by the Ethernet card.

Settings / smpCnt

From driver to model

Number of SV messages received since the last change of second. For an SV stream of 80 samples per cycle at 60 Hz, smpCnt should increase from 0 to 4799, and wrap around at every second.

Settings / Header simulated bit

From driver to model

This value represents the simulation bit in the Reserved 1 field of the header of each received SV message. If the value is 1, the data is considered to be sent by a simulated device.

Current Value

From driver to model

Vector of 4 currents [Ia, Ib, Ic, In], which are the 3 phase currents and the neutral current.

Current Quality

From driver to model

Vector of 4 quality values [QIa, QIb, QIc, QIn]. Each element represents a 16-bit value. The significance of each bit is described in the table below, in the Quality word in Sampled Values messages section.

Voltage Value

From driver to model

Vector of 4 voltages [Va, Vb, Vc, Vn], which are the 3 phase voltages and the neutral voltage.

Voltage Quality

From driver to model

Vector of 4 quality values [QVa, QVb, QVc, QVn]. Each element represents a 16-bit value. The significance of each bit is described in the table below, in the Quality word in Sampled Values messages section.

Settings / Pause

From model to driver

Controls the reception of the Sampled Values message. An input of 1 suspends reception and a value of 0 activates it.

Settings / Timestamp

From driver to model

Provides the time when each SV message was captured. This is an increasing count in microseconds provided by the Ethernet card.

Settings / smpCnt

From driver to model

Number of SV messages received since the last change of second. For an SV stream of 80 samples per cycle at 60 Hz, smpCnt should increase from 0 to 4799, and wrap around at every second.

Settings / Header simulated bit

From driver to model

This value represents the simulation bit in the Reserved 1 field of the header of each received SV message. If the value is 1, the data is considered to be sent by a simulated device.

Data

From driver to model

Each attribute found in the data set used by the SV message provides a connection point. These points are for voltage and current values, as well as their quality values.
An attribute's format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Data

From model to driver

Each attribute found in the data set used by the report provides a connection point. Its format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Data

From model to driver

Each attribute enabled in the IED tree that is used outside of reports provides a connection point from the model to the driver. Its format represents its full path within the IED:
IED / Access point / Logical device / Logical node / Data object / Data attribute

Data (write)

From driver to model

If an attribute:

• is enabled in the IED tree

• is not part of any data sets used by reports

• has functional constraint (FC) equal to SP, SV, CF, DC or BL or it is one of the attributes mentioned above part of a controllable object

→ then it will provide a connection point from the driver to the model.
Its format represents its full path within the IED with the suffix that denotes it being written externally:
IED / Access point / Logical device / Logical node / Data object / Data attribute (write)

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection. 

Number of frames

This value is the number of frames that will be dropped (prevented from being sent on the network).

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection.

Number of frames

This value is the number of frames on which the duplication fault will be applied.

Number of duplications

This value is the number of times a specific frame will be duplicated. As an example, if this number is 5 then every frame will be sent 5 times on the network together.

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection.

New smpCnt

When the fault is triggered, the smpCnt of the SV message will be overridden by the value provided in this connection. It is up to the user to control the validity of the new smpCnt.

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection.

Delay (us)

When the trigger is raised, the transmission of the frames is delayed by this value in microseconds. An internal buffer will keep all the information to delay the packet. The delay can be a value from 0 to 1,000,000, i.e. the maximum accepted delay is one second.

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.

Discard buffer

This connection allows to reset the delay to 0 while discarding all values in the internal buffer.

Flush on Network

This connection allows to reset the delay to 0 while flushing all values from the internal buffer on the network immediately.

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection.

Number of frames

This value is the number of frames on which the smpSynch fault will be applied.

smpSynch

When the fault is triggered, the smpSynch value will be overridden by the value provided in this connection.

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.

Trigger

From model to driver

The fault will be applied on a rising-edge from 0 to 1.
The trigger needs to be reset to 0 to be able to create a new fault.

Mode

0 → Fault is applied immediately after the trigger is raised.
1 → Fault is applied as soon as the smpCnt reaches the value provided in the Wait for smpCnt connection.

Number of frames

This value is the number of frames on which the quality manipulation fault will be applied.

Voltage Quality

When the fault is triggered, the voltage quality values will be overridden by the values provided in this connection.

Current Quality

When the fault is triggered, the current quality values will be overridden by the values provided in this connection.

Wait for smpCnt

If Mode is set to 1, the fault is delayed to wait for the specified smpCnt value.