IFM VSE150 User manual

Operating instructions
Diagnostic electronics with PROFINET-IO interface for
vibration sensors
VSE150
11448192 / 0003 / 2022
GB

VSE150 Diagnostic electronics with PROFINET-IO interface for vibration sensors
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Contents
1 Safety instructions............................................................ 3
2 Preliminary note ............................................................. 4
2.1 Symbols used.......................................................... 4
2.2 Warnings used ......................................................... 4
3 Intended use................................................................ 5
4 Sensor functions............................................................. 6
4.1 Function description ..................................................... 7
4.2 Firmware.............................................................. 7
5 Installation.................................................................. 8
5.1 Sources of interference................................................... 8
5.2 Cable routing........................................................... 8
5.3 Installation instructions................................................... 8
6 Electrical connection.......................................................... 9
6.1 Connection technology................................................... 9
6.2 Wiring................................................................ 9
6.3 Ethernet connection ..................................................... 10
7 PROFINET IO interface ....................................................... 11
7.1 Manufacturer and device information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
7.2 PROFINET IO device description........................................... 11
7.3 PROFINET IO characteristics.............................................. 11
7.4 PROFINET IO data model................................................. 12
7.5 PROFINET IO functions.................................................. 16
7.5.1 I&M functions ...................................................... 16
7.5.2 Shared Device ..................................................... 17
7.5.3 Reset to factory..................................................... 17
7.6 PROFINET IO protocols.................................................. 17
7.6.1 SNMP - Simple Network Management Protocol . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17
7.6.2 LLDP - Link Layer Discovery Protocol . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.6.3 MRP - Media Redundancy Protocol . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.6.4 DCP - Discovery and Configuration Protocol. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.6.5 DCE/RPC - Distributed Computing Environment Remote Procedure . . . . . . . . . . . . 18
7.6.6 PTCP - Precision Transparent Clock Protocol. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.7 Behaviour if parameter set is changed . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 19
8 Factory setting .............................................................. 20
8.1 General factory setting ................................................... 20
8.2 IP settings PROFINET IO interface.......................................... 20
9 Parameter setting............................................................ 21
10 Operating and display elements................................................. 22
10.1 LEDs for sensor and system............................................... 22
10.2 LEDs for bus and status errors............................................. 22
11 Maintenance, repair and disposal................................................ 24

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1 Safety instructions
• The unit described is a subcomponent for integration into a system.
– The system architect is responsible for the safety of the system.
– The system architect undertakes to perform a risk assessment and to create documentation in
accordance with legal and normative requirements to be provided to the operator and user of
the system. This documentation must contain all necessary information and safety instructions
for the operator, the user and, if applicable, for any service personnel authorised by the
architect of the system.
• Read this document before setting up the product and keep it during the entire service life.
• The product must be suitable for the corresponding applications and environmental conditions
without any restrictions.
• Only use the product for its intended purpose (Ò → Intended use).
• If the operating instructions or the technical data are not adhered to, personal injury and/or damage
to property may occur.
• The manufacturer assumes no liability or warranty for any consequences caused by tampering with
the product or incorrect use by the operator.
• Installation, electrical connection, set-up, operation and maintenance of the product must be
carried out by qualified personnel authorised by the machine operator.
• Protect units and cables against damage.
• The design of the unit corresponds to protection class III (EN61010) except for the terminal blocks.
Protection against accidental contact (safety from finger contact to IP 20) for qualified personnel is
only ensured if the terminals have been completely inserted. Therefore the unit must always be
mounted in a control cabinet of at least IP 54 which can only be opened using a tool.
• For DC units the external 24 V DC supply must be generated and supplied according to the
requirements for safe extra-low voltage (SELV) since this voltage is provided near the operating
elements and at the terminals for the supply of sensors without further protection measures.

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2 Preliminary note
You will find instructions, technical data, approvals, accessories and further information using the QR
code on the unit / packaging or at www.ifm.com.
2.1 Symbols used
Requirement
Instructions
Reaction, result
[...] Designation of keys, buttons or indications
Cross-reference
Important note
Non-compliance may result in malfunction or interference.
Information
Supplementary note
2.2 Warnings used
ATTENTION
Warning of damage to property
CAUTION
Warning of personal injury
wSlight reversible injuries may result.
WARNING
Warning of serious personal injury
wDeath or serious irreversible injuries may result.

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3 Intended use
The device has been designed for process value monitoring, vibration monitoring and analysis of
dynamic signals.

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4 Sensor functions
The diagnostic electronics has
• 2 analogue inputs
• 4 dynamic inputs
• 1 analogue or digital output
• 1 digital output
• 1 TCP/IP parameter setting interface
• 2 PROFINET IO ports
Input IN1: connection for a pulse signal (HTL).
Input IN2: connection for an analogue current signal (4...20 mA).
The analogue inputs can be used
• as trigger for measurements (e.g. rotational speed for vibration diagnostics)
• as trigger of a counter
• for process monitoring
VSA, VSM, VSP or standard IEPE acceleration sensors can be connected to the dynamic inputs.
The dynamic inputs can be used for
• vibration monitoring
• vibration diagnostics
• analysis of other dynamic signals
Alternatively, the dynamic inputs can also be used like an analogue input with an analogue current
signal (4...20 mA).
The hardware outputs can be configured as 2 x binary (no/nc) or as 1 x analogue (0/4…20 mA) and 1
x binary (no/nc).
The outputs can be used for
• time-critical alarms (e.g. machine protection, response time up to 1 ms)
• alarm output
• analogue value output of values measured by the diagnostic electronics
The parameter setting interface (TCP/IP) is used for communication between the diagnostic
electronics and a PC (e.g. VES004 parameter setting software).
The parameter setting interface can be used for
• parameter setting of the device
• online data monitoring
• reading the history memory
• firmware update
The PROFINET IO ports are used for the communication between the diagnostic electronics and a
PROFINET controller (e.g. PLC).
The PROFINET IO interface can be used for
• transferring the current measured values, limits and alarm states of the diagnostic electronics to the
PLC
• reading the counter readings of the diagnostic electronics
• writing rotational speeds and other values from the PLC to the diagnostic electronics
• writing limits from the PLC to the diagnostic electronics

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4.1 Function description
This device allows for
• vibration monitoring (total vibration to ISO)
• condition monitoring (condition-based monitoring on the basis of vibration characteristics)
• machine protection/process monitoring (monitoring vibration characteristics in real time with a very
fast response time up to 1 ms)
to be implemented.
• Monitoring of up to 24 objects (indicators for different machine parts, vibration characteristics or
process values)
• Dynamic values within the time range (e.g. v-RMS to ISO)
• Dynamic values within the frequency range FFT or HFFT (e.g. unbalance or rolling element
bearing)
• Process values (analogue signals) for current value above or below the limit
The device has an internal history memory (> 850,000 values) with real-time clock and flexible
memory interval per object. The memory is a ring memory (FIFO).
Up to 32 counters can be configured to measure the duration of operating times and/or how long a
limit value is exceeded.
The signals at the inputs are permanently picked up and continuously monitored according to the set
parameters.
With objects in the frequency range (unbalance, rolling element bearing,...), monitoring is done in
multiplex mode.
With objects in the time range (v-RMS, a-RMS and a-Peak), all 4 dynamic inputs are monitored
simultaneously and without interruption.
The two outputs OU1/2 can be used for alarms. The respective object states per sensor are also
indicated via the 4 sensor LEDs.
The system LED displays the operating status of the device.
Parameter setting of monitoring tasks and alarming is done via the VES004 software. The software
allows to display and record the current measured values, spectra and time signals (online data).
Via the Ethernet interface of the device, networking is possible to visualise data (measured values,
alarm states,...) in other systems (e.g. SCADA, MES,....).
Data (e.g. measured values, alarm states, limits, rotational speeds, counter readings,...) is exchanged
between the diagnostic electronics and the PROFINET controller (e.g. PLC) via the PROFINET IO
ports.
4.2 Firmware
uRecommendation: Install/Use the latest firmware to use all device functions.
The firmware can only be updated via the VES004 PC software. Only the firmware of the entire device
can be updated.
wFirmware and operating software → download area www.ifm.com
wA description of all firmware parameters and their meaning → VES004 PC software manual.
During the firmware update, the parameter set and the history on the device are deleted. All
counters are reset.
The IP settings of the configuration and fieldbus interface are retained.
uRecommendation: Run a parameter backup before the firmware update.

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5 Installation
uMount the unit in a control cabinet with a protection rating of at least IP 54 to ensure protection
against accidental contact with dangerous contact voltages and against atmospheric influence.
The control cabinet should be installed in accordance with local and national rules and regulations.
uMount the unit vertically on a DIN rail.
uLeave enough space between the unit and neighbouring heat sources and the top or bottom of the
control cabinet to enable air circulation and to avoid excessive heating.
uPrevent penetration of conductive or other dirt during installation and wiring.
When preparing for cable installation, the local conditions and the corresponding mounting regulations
are very important. Cables can be installed, for example, in cable ducts or on cable bridges.
A minimum distance between the cabling and possible sources of interference (e.g. machines, welding
equipment, power lines) is defined in the applicable regulations and standards. During system
planning and installation, these regulations and standards must be taken into account and observed.
Protect the bus cables from sources of electric/magnetic interference and mechanical strain.
Observe the guidelines regarding "electromagnetic compatibility" (EMC) to keep mechanical risks and
interference to a minimum.
5.1 Sources of interference
uSignal cables and power supply lines should not be installed in parallel.
uIf necessary, metal isolating segments should be placed between the power supply lines and signal
cables.
uDuring installation, all connector locking mechanisms (screws, coupling nuts) must be firmly
tightened in order to ensure the best possible contact between shielding and ground. Before initial
start-up, the ground or shielding connection of cables must be checked for low-resistance
continuity.
5.2 Cable routing
Network/bus cables
uInstall network/bus cables in separate cable ducts or separate cable bundles.
uWhere possible, do not install network/bus cables parallel to power supply lines.
uInstall network/bus cables at least 10 cm away from power lines.
5.3 Installation instructions
Electrostatic discharge
The device contains components that can be damaged or destroyed by electrostatic discharge.
uWhen handling the device, observe the necessary safety precautions against electrostatic
discharge (ESD) according to EN 61340-5-1 and IEC 61340-5-1.
Only operate the device when mounted on a grounded DIN rail in order to dissipate electrostatic
charges.

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6 Electrical connection
The national and international regulations for the installation of electrical equipment must be adhered
to. Avoid contact with dangerous contact voltages.
uDisconnect power.
uConnect device, connection via Combicon connectors (pre-mounted).
uTo prevent negative effects on the functions caused by noise voltages, lay sensor cables and load
cables separately. Maximum length of the sensor cable: 250 m.
uUse a screened sensor cable.
The outputs are short-circuit proof and can be configured as either normally closed or normally open.
In addition an analogue signal can be provided on output [OU 1] (0/4...20 mA) (e.g. acceleration
values).
Adhere to the SELV criteria (safety extra-low voltage, circuit electrically isolated from other circuits,
ungrounded) when connecting the device, so that no dangerous contact voltages will be applied to the
sensor or transferred to the device.
If the DC circuit is to be grounded (e.g. due to national regulations), the PELV criteria must be adhered
to (protective extra-low voltage, circuit electrically isolated from other circuits).
Sensor and diagnostic electronics supply are not electrically isolated.
6.1 Connection technology
ATTENTION
Terminal block not connected with connectors.
wProtection rating IP 20 not ensured.
uCover unused terminals with connectors.
6.2 Wiring
18
17
20
19
14
13
16
15
22
21
24
23
6
5
8
7
2
1
4
3
10
9
12
11
Supply L- (GND)
OU 1: switch/analog
OU 2: switch
IN 1 (0/4...20 mA / pulse)
GND 1
IN 2 (0/4...20 mA / pulse)
GND 2
1
2
3
4
4
3
2
1
1
2
3
4
1
2
3
4
Supply L+ (24 V DC ±20 %)
Sensor 1
Sensor 2
Sensor 3
Sensor 4

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Wiring of sensors 1...4 (S1...S4) according to their use
Sensor VSA IEPE/VSP 0...20 mA
S1 S2 S3 S4
09 16 20 24 BN: L+ (+ 9 V) not connected (n.c.) not connected
(n.c.)
10 15 19 23 WH: Signal IEPE + Signal
11 14 18 22 BU: GND IEPE - GND
12 13 17 21 BK: Test not connected (n.c.) not connected
(n.c.)
Sensor input Use
S1…S4 VSM
9,16,20,24 not connected (n.c.)
10,15,19,23 IEPE x IEPE y IEPE z
11,14,18,22 IEPE -
12,13,17,21 not connected (n.c.) Test *
* The self-test is only carried out via the Z axis.
uConnect both cables to the same terminal of a suitable evaluation unit (e.g. VSExxx).
wTerminal 1 Supply L+
When using an IEPE input 24 V + 20% (Integrated Electronics Piezo Electric)
wThe ground GND of the DC supply is directly connected with the ground GND of the sensor
supply. Therefore the SELV criteria have to be met for the DC supply.
uProtect the supply voltage externally (max. 2 A).
6.3 Ethernet connection
The RJ45 socket is used for the connection to the Ethernet.

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7 PROFINET IO interface
7.1 Manufacturer and device information
Manufacturer
Requirement Parameter
Vendor ifm electronic gmbh
Vendor ID 0x0136
Unit
Name VSE150
Device ID 0x0B00
Order ID VSE150
PROFINET device type PROFINET IO device
Main family Sensors
Product family ifm electronic
7.2 PROFINET IO device description
Requirement Parameter
Device description via GSDML file
file name GSDML-V2.32-IFM-VSE150-20170424.xml
file name GSDML-V2.31-IFM-VSE150-20170424.xml
(to be used with Step7 without support of the medium redun-
dancy)
This file is not certified by PNO (PROFINET organisation).
The file name can differ in the date 20170424.xml.
7.3 PROFINET IO characteristics
Requirement Parameter
Bit rate 100 Mbits/s
Supported protocols SNMP, LLDP, MRP, DCP, DCE-RPC, PTCP, HTTP
DAP module ident number 0x00000200
PNIO version V2.33
Conformance class C
Netload class III
Maximum input length 1024 bytes
Maximum output length 1024 bytes
Maximum data length 1024 bytes
Physical slots 0...64
Minimum device interval 1 ms
Number of application relationships 2

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7.4 PROFINET IO data model
The PROFINET IO data to be transferred is selected via the VES004 PC software. After respective
parameter setting of the requested input and output data the PROFINET IO data model is created
flexibly and transferred to the device via writing the parameter set.
The created data model is then available in the respective IO controller (see “Parameter setting”).
Input (PLC)
Source Data type/
Byte order/
Unit
Data size Use
Dynamic inputs
<input name> • Real or DINT with factor
• Big or
Little Endian
4 bytes Value of the signal connect-
ed to dynamic input (sensor
1…4) if it has been config-
ured as a “DC input”.
Analogue inputs
<input name> • Real or DINT with factor
• Big or
Little Endian
4 bytes Value of the signal connect-
ed to the analogue input
(IN1, IN2)
External inputs
<input name> • Real or DINT with factor
• Big or
Little Endian
4 bytes Value of the external input
(External_xx)
Objects (time domain, frequency domain, upper/lower limit monitor)
<object name>
Value • Real or DINT with factor
• Big or
Little Endian
• Has a unit (default SI unit)
4 bytes Object value has a unit
Status Byte 1 byte Current status/state of the
object
0: OK
1: warning alarm
2: damage alarm
3: inactive
4: error

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Input (PLC)
Error Word 2 bytes Error codes for description
of error in object state
0x0000:
no error
0x0001:
internal error
0x0002:
calculation error
0x0004:
speed out of range
0x0008:
speed not stable
0x0010:
invalid baseline
0x0020:
invalid reference value (1)
0x0040:
invalid reference value (2)
0x0100:
deactivated by signal
weighting
0x0200: reference value out
of range
0x1000:
warning alarm
0x3000:
warning and damage alarm
0x8000:
object inactive (by variant)
Rotational speed • Real or DINT with factor
• Big or
Little Endian
4 bytes Trigger - rotational speed
Reference value • Real or DINT with factor
• Big or
Little Endian
4 bytes Trigger - reference value
Warning alarm • Real or DINT with factor
• Big or
Little Endian
4 bytes Limit - warning alarm (rela-
tive)
Damage alarm • Real or DINT with factor
• Big or
Little Endian
4 bytes Limit - damage alarm
(relative)
Baseline • Real or DINT with factor
• Big or
Little Endian
• Has a unit (default SI unit)
4 bytes Limit - unit-based baseline
for time and frequency ob-
jects
Note:
This parameter is not appli-
cable for the upper/lower
limit monitor objects
Counter
<counter name> • DINT
• Big or
Little Endian
4 bytes Counter value (in seconds)
History
<object name>
History value • Real or DINT with factor
• Big or
Little Endian
• Has a unit (default SI unit)
4 bytes Unit-based current history
entry of the object

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Input (PLC)
Average value of the his-
tory
• Real or DINT with factor
• Big or
Little Endian
• Has a unit (default SI unit)
4 bytes Unit-based average value of
the current history entry of
the object
Speed of the history • Real or DINT with factor
• Big or
Little Endian
4 bytes Trigger -
speed
of the current history entry
of the object
Reference value of the
history
• Real or DINT with factor
• Big or
Little Endian
4 bytes Trigger - reference value of
the current history entry of
the object
Input counter of the his-
tory values
• DINT
• Big or
Little Endian
4 bytes Counter of the received his-
tory entries of the object
Alarms (OUT1/ OUT2)
<alarm name (OUT1)> • Float or DINT with factor
• Big or
Little Endian
4 bytes Configuration as analogue
alarm output:
value of alarm output
Byte 1 byte Configuration as digital
alarm output:
alarm state
Configuration as NC
No alarm: 1
Alarm: 0
Configuration as NO
No alarm: 0
Alarm: 1
<alarm name (OUT2)> Byte 1 byte Alarm state
Configuration as NC
No alarm: 1
Alarm: 0
Configuration as NO
No alarm: 0
Alarm: 1
Alarms (IO1 - IO8)
<alarm name> Byte 1 byte Alarm state
Configuration as NC
No alarm: 1
Alarm: 0
Configuration as NO
No alarm: 0
Alarm: 1
General
Variant Byte 1 byte Value of the active variant
(0...31)
System mode Byte 1 byte Current system mode of the
device
0x00:
reserved
0x01:
supervise (normal monitor-
ing)
0x02:
set-up (parameter setting)
0x03:
measure (spectrum, raw da-
ta)
0x04:
start-up (system booting)
0x05:
self-test (self-test active)

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Input (PLC)
Self-test
result
Byte 1 byte Bit pattern
Bit1 - sensor 1
Bit2 - sensor 2
Bit3 - sensor 3
Bit4 - sensor 4
Note on evaluation
0x00:
Sensors OK
0x01:
sensor 1 self-test failed
0x02:
sensor 2 self-test failed
0x04:
sensor 3 self-test failed
0x08:
sensor 4 self-test failed
0x0F:
sensor1…4 self-test failed
Current queue level Byte 1 byte Current queue level of the
internal device communica-
tion
Queue overflow counter • DINT
• Big or
Little Endian
4 bytes Overflow counter of the in-
ternal device communica-
tion
Checksum error counter • DINT
• Big or
Little Endian
4 bytes Checksum error counter of
the internal device commu-
nication
Read time DINT 4 bytes Read device time (UTC)
PROFINET devices:
U32:0x00ssmmhh
EtherNetIP devices:
U32:0x00hhmmss
EtherCAT devices:
U32:0x00hhmmss
MODBUS devices:
U32:0x00hhmmss
Placeholder
<placeholder> Byte xx byte Placeholder for fieldbus
transmission
Output (PLC)
Source Data type/
Byte order/
Unit
Data size Fieldbus representation
External inputs
<input name> • Real or DINT with factor
• Big or
Little Endian
4 bytes Set value of the external in-
put (External_xx)
Objects (time domain, frequency domain)
<object name>
Baseline • Real or DINT with factor
• Big or
Little Endian
• Has a unit (default SI unit)
4 bytes Limits -
set unit-based baseline for
time and frequency objects
to adjust damage limits
General
Variant Byte 1 byte Set current variant (0...31)

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Output (PLC)
Do self-test Byte 1 byte Execute self-test
Note
A value change from 0 to ≠
0 starts the self-test
After completion of the self-
test, the unit automatically
switches to the “Monitoring”
system mode
Set time DINT 4 bytes Set time (always UTC for-
mat)
PROFINET devices:
U32:0x00ssmmhh
EtherNet/IP devices:
U32:0x00hhmmss
EtherCAT devices:
U32:0x00hhmmss
MODBUS devices:
U32:0x00hhmmss
Set counter ID Byte 1 byte Set the ID of the counter
(1…32)
Set counter value • DINT
• Big or
Little Endian
4 bytes Set value of the counter se-
lected with the ID (in sec-
onds)
Placeholder
<placeholder> Byte xx byte Placeholder for fieldbus
transmission
7.5 PROFINET IO functions
The following chapters describe the supported PROFINET IO functions. Functions not listed are not
supported.
7.5.1 I&M functions
The PROFINET IO device supports identification & maintenance functions (I&M). The general
identification & maintenance functions 0...3 can be read via slot 0.
Requirement Parameter
I&M 0 Device identification (only read access)
I&M 1...3 Extended device identification (read and write access)
I&M 0
I&M data Access/ data type Presets
MANUFACTURER_ID Read / 2 bytes 0x136
ORDER_ID Read / 20 bytes VSE150
SERIAL_NUMBER Read / 16 bytes Is defined in the production process
HARDWARE_REVISION Read / 2 bytes Corresponds to the hardware revision of
the device
SOFTWARE_REVISION Read / 4 bytes Corresponds to the firmware revision of
the device
REVISION_COUNTER Read / 2 bytes 0x0001
PROFILE_ID Read / 2 bytes 0x0000
PROFILE_SPECIFIC_TYPE Read / 2 bytes 0x0000

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I&M data Access/ data type Presets
IM_VERSION Read / 2 bytes 0x0101
IM_SUPPORTED Read / 2 bytes 0x000E
I&M 1
I&M data Access/ data type Presets
TAG_FUNCTION Read/write / 32 bytes empty
TAG_LOCATION Read/write / 22 bytes empty
I&M 2
I&M data Access/ data type Presets
INSTALLATION_DATE Read/write / 16 bytes empty
RESERVED Read/write / 38 bytes 0x00
I&M 3
I&M data Access/ data type Presets
DESCRIPTOR Read/write / 54 bytes empty
7.5.2 Shared Device
The device supports the Shared Device function. It allows two controllers to simultaneously set up a
cyclical connection to the device.
Requirement Parameter
Shared Device Yes
Max. number of PROFINET IO controllers 2 controllers on input modules
Access to output modules is always exclusive
7.5.3 Reset to factory
The device supports the Reset to factory function. This function supports the reset (factory setting) of
the following parameters of the PROFNET IO device by the PROFINET IO controller.
Requirement Parameter
Reset to factory Yes
Reset data IP address
Network mask
gateway
I&M data
7.6 PROFINET IO protocols
7.6.1 SNMP - Simple Network Management Protocol
Requirement Parameter
SNMP Yes

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Requirement Parameter
Description Simple Network Management Protocol
A UDP-based communication protocol (User Datagram Proto-
col) for maintenance and monitoring of network components.
PROFINET uses this protocol, for example, for creating topol-
ogy information.
7.6.2 LLDP - Link Layer Discovery Protocol
Requirement Parameter
LLDP Yes
Description Link Layer Discovery Protocol
The LLDP is a manufacturer-independent layer-2 protocol
specified to IEEE 802.1AB standard. It contains information
about network topology and devices used for administration
and error diagnostics.
The information collected via LLDP is stored in an MIB (Man-
agement Information Base). The data in the MIB can be read
by SNMP (Simple Network Management Protocol), for exam-
ple.
7.6.3 MRP - Media Redundancy Protocol
Requirement Parameter
MRP Yes
Description Media Redundancy Protocol
Protocol to implement media redundancy. Implements the
switchover in case a transmission medium fails.
7.6.4 DCP - Discovery and Configuration Protocol
Requirement Parameter
DCP Yes
Description Discovery and Configuration Protocol
DCP distributes the addresses and names of the individual
participants in a PROFINET IO system. DCP allows, for ex-
ample, to assign the IP addresses by means of the symbolic
name.
7.6.5 DCE/RPC - Distributed Computing Environment Remote Procedure
Requirement Parameter
DCE/RPC Yes
Description Distributed Computing Environment Remote Procedure Call
The connectionless DCE/RPC protocol is used for connection
establishment, reading and writing data and reading diagnos-
tics.
7.6.6 PTCP - Precision Transparent Clock Protocol
Requirement Parameter
PTCP Yes
Description Precision Transparent Clock Protocol

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7.7 Behaviour if parameter set is changed
Writing of the parameter set (even without changes) or changing the system mode of the diagnostic
electronics to “set-up” triggers an initialisation (reboot) of the fieldbus module.
The connection of the PLC (master / controller / supervisor) to the diagnostic electronics is interrupted.
It depends on the programming of the PLC how a connection loss is handled. The LED behaviour is
described in the chapter “Operating and display elements”.

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8 Factory setting
On delivery there are the following factory settings:
IP settings, parameter setting interface, delivery status.
8.1 General factory setting
Requirement Parameter
Parameter set None
Host Name no name assigned
IP address 192.168.0.1
TCP/IP port 3321
Subnet mask 255.255.255.0
Default gateway 192.168.0.244
MAC address Is defined in the production process
8.2 IP settings PROFINET IO interface
Requirement Parameter
PROFINET IO device name no name assigned
IP address No IP address assigned
Subnet mask No subnet mask assigned
Default gateway No default gateway assigned
Device designation VSE150
Device ID 0x0B00
MAC address is defined in the production process