-70-
17
Frequency
upper
limit
reached
If the running frequency reaches the upper
limit, the terminal becomes ON.
18
Frequency
lower
limit
reached (no output at stop)
If the running frequency reaches the lower
limit, the terminal becomes ON. In the stop
state, the terminal becomes OFF.
19
Undervoltage state output
If the Inverter is in undervoltage state, the
terminal becomes ON.
20
Communication
Refer to the communication protocol.
setting
21
Reserved
Reserved.
22
Reserved
Reserved.
23
Zero-speed running 2 (having
output at stop)
If the output frequency of the Inverter is 0,
the terminal becomes ON. In the state of
stop, the signal is still ON.
24
Accumulative power- on time
reached
If the Inverter accumulative power-on time
(P7.13) exceeds the value set in P8.16, the
terminal becomes ON.
25
Frequency level detection
FDT2 output
Refer to the descriptions of P8.28 and
P8.29.
26
Frequency 1 reached
Refer to the descriptions of P8.30 and
P8.31.
27
Frequency 2 reached
Refer to the descriptions of P8.32 and
P8.33.
28
Current 1 reached
Refer to the descriptions of P8.38 and
P8.39.
29
Current 2 reached
Refer to the descriptions of P8.40 and
P8.41.
30
Timing reached
If the timing function (P8.42) is valid, the
terminal becomes ON after the current
running time of the Inverter reaches the set
time.
31
AI1 input limit exceeded
If AI1 input is larger than the value of P8.46
(AI1 input voltage upper limit) or lower than
the value of P8.45 (AI1 input voltage lower
limit), the terminal becomes ON.
32
Load becoming 0
If the load becomes 0, the terminal
becomes ON.
33
Reverse running
If the Inverter is in the reverse running
state, the terminal becomes ON.
34
Zero current state
Refer to the descriptions of P8.28 and
P8.29.
