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Detailed Description of the Module
Buffer Memory Details: CANopen
Mode
3 – 20
MITSUBISHI ELECTRIC
3.5.11
Time stamp (Un\G50–Un\G59)
CANopen
devices which operate a local clock may use the TIME object to adjust their own time base
to the time of the time stamp producer.
After each power up or restart the date and time are set to the default values and the counting is
stopped.
If the ME3CAN1-L is set to "consumer", the clock starts counting after receiving the first time stamp
object.
When the module is setup as "producer", the counter starts after setup of Un\G50 to Un\G58 and turn-
ing ON the Time stamp set request (Y(n+1)2) signal (refer to section 3.3.2). The time stamp will only be
produced if the ME3CAN1-L is active NMT Master and in CANopen
state
Operational
or
Pre-opera-
tional
.
The lowest counting resolution of the time stamp object at the ME3CAN1-L is in seconds. If a time
stamp object is received, bit 12 in Un\G25 will be set (Refer to section 3.5.5).
To keep the consistency of the time, the time stamp data will be read from the clock data when time
stamp read request (Y(n+1)3) is set to ON and the time stamp data will be written to the clock data
when the time stamp set request (Y(n+1)2) is set to ON. (For a description of the signals (Y(n+1)2) and
(Y(n+1)3) please refer to section 3.3.2.)
The date and time will be checked when the time stamp set request (Y(n+1)2) is set to ON. If a value
is outside of the allowed range Un\G29 bit 6 will be set to "1" (Refer to section 3.5.7).
The clock data will start to run after the time stamp set request (Y(n+1)2) is set to ON.
In the PLC program, use DATERD/DATEWR commands to read/write the clock data of the PLC. (Refer
to the MELSEC Q/L Series Programming Manual).
NOTES
Since the ME3CAN1-L gets the clock data from the PLC, it doesn't support summer time
calculation.
Caused by delays during writing to the buffer memory and during the transmission over the CAN
bus there is always a delay in the time.
A leap year correction is provided.
Address
(Decimal)
Name
Description / Value range
50
Time stamp
Producer/consumer
The buffer memory directly accesses the Consumer/Pro-
ducer bits of the Time COB-ID in the Object Dictionary
(Refer to section 4.6.9).
앫
0: Time stamp disabled
앫
1: Consumer
앫
2: Producer
���
앫
3: Producer
���
/ Consumer
51
Year
Value range: 1980 to 2079
���
52
Month
Value range: 1 to 12
���
53
Day
Value range: 1 to 31
���
A setting outside of the range, such as "February 30", is
prohibited.
54
Hour
24 hour format
Value range: 0 to 23
���
Tab. 3-15:
Buffer memory addresses for the time stamp
Содержание CANopen ME3CAN1-L
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Страница 10: ...IV ...
Страница 18: ...Abbreviations and Generic Terms Overview MELSEC L Series CANopen Module ME3CAN1 L 1 4 ...
Страница 22: ...System Configuration System Equipment 2 4 MITSUBISHI ELECTRIC ...
Страница 66: ...Detailed Description of the Module Buffer Memory Details Layer 2 Message Mode 3 44 MITSUBISHI ELECTRIC ...
Страница 144: ...Programming CANopen PDO Communication using Function Blocks 7 6 MITSUBISHI ELECTRIC Fig 7 6 Example Program 2 ...
Страница 146: ...Programming CANopen PDO Communication using Function Blocks 7 8 MITSUBISHI ELECTRIC Fig 7 8 Example Program 4 ...
Страница 148: ...Programming CANopen PDO Communication using Function Blocks 7 10 MITSUBISHI ELECTRIC Fig 7 10 Example Program 6 ...
Страница 150: ...Programming CANopen PDO Communication using Function Blocks 7 12 MITSUBISHI ELECTRIC Fig 7 12 Example Program 8 ...
Страница 152: ...Programming CANopen PDO Communication using Function Blocks 7 14 MITSUBISHI ELECTRIC Fig 7 14 Example Program 10 ...
Страница 154: ...Programming CANopen PDO Communication using Function Blocks 7 16 MITSUBISHI ELECTRIC Fig 7 16 Example Program 12 ...
Страница 156: ...Programming CANopen PDO Communication using Function Blocks 7 18 MITSUBISHI ELECTRIC Fig 7 18 Example Program 14 ...
Страница 158: ...Programming CANopen PDO Communication using Function Blocks 7 20 MITSUBISHI ELECTRIC Fig 7 20 Example Program 16 ...
Страница 160: ...Programming Layer 2 Communication 7 22 MITSUBISHI ELECTRIC Local Label Setting Fig 7 22 Local Label for this example 1 ...
Страница 161: ...Layer 2 Communication Programming MELSEC L Series CANopen Module ME3CAN1 L 7 23 Fig 7 23 Local Label for this example 2 ...
Страница 162: ...Programming Layer 2 Communication 7 24 MITSUBISHI ELECTRIC Program Fig 7 24 Example Program 1 ...
Страница 163: ...Layer 2 Communication Programming MELSEC L Series CANopen Module ME3CAN1 L 7 25 Fig 7 25 Example Program 2 ...
Страница 164: ...Programming Layer 2 Communication 7 26 MITSUBISHI ELECTRIC Fig 7 26 Example Program 3 ...
Страница 165: ...Layer 2 Communication Programming MELSEC L Series CANopen Module ME3CAN1 L 7 27 Fig 7 27 Example Program 4 ...
Страница 166: ...Programming Layer 2 Communication 7 28 MITSUBISHI ELECTRIC Fig 7 28 Example Program 5 ...
Страница 167: ...Layer 2 Communication Programming MELSEC L Series CANopen Module ME3CAN1 L 7 29 Fig 7 29 Example Program 6 ...
Страница 172: ...Programming Layer 2 Communication 7 34 MITSUBISHI ELECTRIC Fig 7 39 Example Program 2 Set message parameter to module ...
Страница 178: ...Layer 2 Communication Programming MELSEC L Series CANopen Module ME3CAN1 L 7 40 ...
Страница 184: ...Troubleshooting Error Code and Error Message Summary 8 6 MITSUBISHI ELECTRIC ...
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