indicates that death or severe personal injury will result if proper precautions are not taken.
WARNING
indicates that death or severe personal injury may result if proper precautions are not taken.
CAUTION
indicates that minor personal injury can result if proper precautions are not taken.
NOTICE
indicates that property damage can result if proper precautions are not taken.
Qualified Personnel
personnel qualified
Proper use of Siemens products
WARNING
Siemens products may only be used for the applications described in the catalog and in the relevant technical
maintenance are required to ensure that the products operate safely and without any problems. The permissible
ambient conditions must be complied with. The information in the relevant documentation must be observed.
This manual contains notices you have to observe in order to ensure your personal safety, as well as to prevent
damage to property. The notices referring to your personal safety are highlighted in the manual by a safety alert
symbol, notices referring only to property damage have no safety alert symbol. These notices shown below are
graded according to the degree of danger.
If more than one degree of danger is present, the warning notice representing the highest degree of danger will
be used. A notice warning of injury to persons with a safety alert symbol may also include a warning relating to
property damage.
The product/system described in this documentation may be operated only by
task in accordance with the relevant documentation, in particular its warning notices and safety instructions.
Qualified personnel are those who, based on their training and experience, are capable of identifying risks and
avoiding potential hazards when working with these products/systems.
Note the following:
documentation. If products and components from other manufacturers are used, these must be recommended
or approved by Siemens. Proper transport, storage, installation, assembly, commissioning, operation and
All names identified by ® are registered trademarks of Siemens AG. The remaining trademarks in this publication
may be trademarks whose use by third parties for their own purposes could violate the rights of the owner.
We have reviewed the contents of this publication to ensure consistency with the hardware and software
described. Since variance cannot be precluded entirely, we cannot guarantee full consistency. However, the
information in this publication is reviewed regularly and any necessary corrections are included in subsequent
editions.
This manual describes the principles of using the functions of the hardware components,
while setting the focus on the corresponding Technology and Drive Control components
SIMATIC TDC.
This manual is intended for commissioning personnel. Comprehension of this manual
requires general knowledge of automation engineering.
This manual is valid for SIMATIC D7-SYS as of version 8.1.
This manual is part of the documentation package for the Technology and Drive Control
components FM 458, SIMATIC TDC and SIMATIC D7-SYS.
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
3
Page 4
Preface
Title
Content
Just a few steps away from the first project
System software
n communicates basic knowledge of the structure of a CPU's operating system and
Configuring communication
configure links to communication partners.
Basic software
CFC
The CFC language (Continuous Function Chart) offers you the possibility of designing graphic
SFC
position the SFC elements of the chart according to defined rules.
System and Communication Configuration D7-SYS
(http://support.automation.
siemens.com/WW/
view/de/8776461/0/en)
D7-SYS - STEP 7, configuring CFCs and SFCs
(http://support.automation.
siemens.com/WW/
view/de/8776786/0/en)
This section provides an extremely simple introduction into the methodology of the structure
and programming of the SIMATIC TDC control system. It is interesting especially for first-time
users.
This sectio
application programs. It should be used under the aspect of obtaining an overview of programming methodology and using this information as a basis for designing user programs.
This section communicates basic knowledge of the communication possibilities and how to
This section explains the principles of the usage and functions of the STEP 7 automation
software. Newcomers are provided an outline of the procedures to follow when configuring,
programming, and commissioning a station.
While working with the basic software, you can directly rely on the Online Help system that
offers support when it comes to detailed questions on using the software.
interconnections for blocks.
While working with the particular software, you can always consult the Online Help to get
answers to detailed questions regarding the use of the editors/compiler.
Configuring sequential controls using SIMATIC S7 SFCs (Sequential Function Chart).
You create the sequential chart in the SFC Editor based on various graphic resources and
Hardware These manuals form a reference for the entire hardware spectrum.
D7-SYS Selecting function
blocks
(http://support.automation.
siemens.com/WW/
view/de/14952400/0/en)
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4System Manual, 08/2017, A5E01114865-AL
The Reference Manual provides you with an overview of all of the function blocks for the corresponding Technology and Drive Control components SIMATIC TDC, FM 458-1 DP as well
as the T400 and SIMADYN D systems which are being phased out.
This section describes the function blocks that can be configured in
SIMATIC D7-SYS.
This section describes the function blocks that can be configured
This section describes the function blocks that can be configured
application module.
This section describes the function blocks that can be configured
As first-time user, you should use the manual as follows:
● Read the initial sections before using the software so that you become familiar with the
terminology and procedural principles.
● You can then go ahead and use the respective sections of the manual, for example, if you
intend to run a specific task (e.g. loading programs).
If you have already gained some experience while running a small project, you can read
individual sections of the manual in order to obtain information on specific topics.
The objective of the user part of this manual is to provide information on basic procedures,
but does not contain any detailed instructions with individual step sequences. For more
information on the software dialogs and their handling, refer to the Online Help.
The products can be recycled due to their low-pollutant content. Contact a certified
electronic-waste disposal company to recycle and dispose of your old equipment in an
environment-friendly manner.
● You can find information on the technical support offer in the appendix (Page 221) to this
documentation.
● You can find the offer for technical documentation for the individual SIMATIC products
and systems on the Internet (http://www.siemens.com/simatic-tech-doku-portal).
● You can find the online catalog and online ordering system on the Internet
(http://mall.automation.siemens.com).
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
Siemens provides products and solutions with industrial security functions that support the
secure operation of plants, systems, machines and networks.
In order to protect plants, systems, machines and networks against cyber threats, it is
necessary to implement – and continuously maintain – a holistic, state-of-the-art industrial
security concept. Siemens’ products and solutions only form one element of such a concept.
Customer is responsible to prevent unauthorized access to its plants, systems, machines
and networks. Systems, machines and components should only be connected to the
enterprise network or the internet if and to the extent necessary and with appropriate security
measures (e.g. use of firewalls and network segmentation) in place.
Additionally, Siemens’ guidance on appropriate security measures should be taken into
account. For more information about industrial security, please visit
(http://www.siemens.com/industrialsecurity).
Siemens’ products and solutions undergo continuous development to make them more
secure. Siemens strongly recommends to apply product updates as soon as available and to
always use the latest product versions. Use of product versions that are no longer supported,
and failure to apply latest updates may increase customer’s exposure to cyber threats.
To stay informed about product updates, subscribe to the Siemens Industrial Security RSS
Feed under (http://www.siemens.com/industrialsecurity).
Open-source software is used in the firmware of the product described. Open Source
Software is provided free of charge. We are liable for the product described, including the
open-source software contained in it, pursuant to the conditions applicable to the product.
Siemens accepts no liability for the use of the open source software over and above the
intended program sequence, or for any faults caused by modifications to the software.
For legal reasons, we are obliged to publish the original text of the license conditions and
copyright notices.
You can find this information on the supplied CD/DVD.
lot covers ............................................................................................................................. 74
73
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Page 9
Table of contents
4 CPU modules ........................................................................................................................................ 75
5 Signal modules ................................................................................................................................... 103
6 Communication modules ..................................................................................................................... 121
A Service & Support ............................................................................................................................... 221
These Operating Instructions do not purport to cover
nor to provide for every possible contingency to be met in connection with installation,
operation or maintenance.
If you need further information or encounter special problems that are not adequately treated
in the
Siemens office.
Furthermore, the contents of these Operating Instructions shall not become a part of or
modify any prior or existing agreement, commitment, or legal relationsh
the part of Siemens AG are contained in the respective sales contract which also contains
the complete and solely applicable warranty conditions. These contractual guarantee
provisions are neither broadened nor restricted by the text
operating instructions, you can obtain the necessary information from your local
ip. All obligations on
in these operating instructions.
in the context of the operating manual or of warning notices on the product itself are persons
familiar with installation, assembly, commissioning and operation of the product and holding
qualifications appropriate to their activity, such as:
1. Trained and authorized to power up, shut down, ground and tag electrical circuits and
equipment in accordance with safety standards.
2. Trained in the proper care and use of protective equipment in accordance with safety
standards.
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System Manual, 08/2017, A5E01114865-AL
During operation of electrical devices, certain parts of these devices are necessarily under
dangerous voltage.
Ignorance of the safety instructions may result in severe injury or property damage.
Particularly the warning notes in the corresponding Operating Instructions must be strictly
observed.
The modules contain components that are sensitive to electrostatic charge. Always
discharge your body before you touch an electronic module. This can be done quite simply
by touching a conductive, grounded object immediately before you handle the component
(e.g. bright metal parts of the control cabinet, grounding contact of socket outlet.)
Note the regulations/notes on lifting and carrying heavy loads.
Use only a vacuum cleaner and dry cloths to clean the devices.
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Installation and EMC guidelines
1.3
Introduction
What is EMC ?
Intrinsic immunity to interference:
Immunity to external interference:
Degree of interference emission
Operational reliability and immunity to interference
Electromagnetic compatibility (EMC) is the ability of an electrical device to function, fault-free
in a specified electromagnetic environment without influencing the environment in an
inadmissible fashion.
This design and EMC Directive supplements the documentation on the individual
components.
The SIMATIC TDC control system consists of individual components (e.g. racks, modules,
interface modules, operator control panels, position transmitters). The components can be
installed in the widest range of system configurations to suit individual requirements. In an
environment that contains distributed components it is imperative not to neglect interference
and to conform with special installation and EMC requirements of the plant.
EMC therefore represents a quality feature for
●
variables
●
electromagnetic disturbance variables
●
radiation
The manufacturer of the control system and users (including end customers) must take
specific measures in order to achieve the maximum possible operational reliability and safety
and interference immunity for a complete system (control and drive system).
Proper functioning of SIMATIC TDC can only be ensured if all of these measures have been
observed in compliance with legal provisions (2004/108/EC).
Resistance against internal electrical disturbance
Resistance of the system against external
: Environmental effects caused by electromagnetic
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Our products meet the requirements and protection objectives of the EC Directives listed
below and comply with Harmonized European Standards (EN) for programmable controllers
that were published in the Official Journals of the European Community:
● 2006/95/EC "Electrical equipment for use within specific voltage limits" (Low-voltage
directive)
The products listed in the table below fulfill the requirements of EU directive 2006/95/EC,
"Low-voltage Directive". Compliance with this EC directive was tested in accordance with
DIN 61131-2 (corresponds to IEC 61131-2).
The following components are also affected in SIMATIC TDC:
PS5213 6DD 1683-0CH0
UR6021 6DD 1682-0CH3
These components are compliant with requirements of the Low-voltage Directive.
In accordance with the Machinery Directive 2006/42/EC, it must be ensured that a failure or
malfunction of SIMATIC TDC will not trigger a hazardous state of the machine/plant. This
must always be taken into account when configuring the machine/system.
The system may not be commissioned until it has been proven that the final product is in
compliance with the directive.
Only expert personnel may configure, commission, service and operate SIMATIC TDC.
An external voltage source (e.g. pulse encoder) that is connected to SIMATIC TDC module
inputs must be shut down simultaneously with the shutdown or failure of the SIMATIC TDC
power supply.
SIMATIC TDC components are considered open equipment that must be installed in metallic
enclosures containing shielding and equipotential busbars in compliance with the
requirements of IEC 61131-2 (11.1.2; mechanical strength, flame resistance, stability and
shock protection are significant here).
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As output power exceeds the limit of circuitry with power limiting to IEC 61010-1 /
IEC 61131-2, malfunction of a SIMATIC TDC component may pose the risk of fire according
to IEC 61010-1 / IEC 61131-2. In order to prevent spreading of fire, suitable measures must
be taken to prevent ignition of adjacent parts or components as a result of burning parts that
possibly drop out of a component.
Two examples of a fire protection barrier to IEC 61010-1
Accepted perforation of a metal panel
Minimum thickness [mm] Maximum diameter of the holes
● All control cabinets must be equipped with a grounding/equipotential busbar that must be
connected directly to the cabinet frame at both ends.
● It is not allowed to operate contactors without protective circuit in a control cabinet
containing SIMATIC TDC components.
● If contactors without protective circuit are operated in a control cabinet next to the
SIMATIC TDC cabinet, the cabinets must be partitioned by means of a sheet steel panel.
● All control cabinets in which SIMATIC TDC components are operated must be equipped
with a shielding busbar that must be connected directly at both ends to the cabinet frame.
● It is not allowed to use gas discharge lamps in the cabinet.
● The cabinet must be designed to enable unobstructed air convection.
In order to ensure disturbance-free operation, the networked components may not develop
different potentials. For this reason, all components must be interconnected by means of
equipotential bonding with a minimum cross-section of 16 mm
All components (racks, power supplies, etc.) that are connected by signal cables must also
be interconnected by means of equipotential bonding (exception: components with fiber-optic
connections).
2
.
An equipotential busbar should be provided in each control cabinet to facilitate wiring.
All internal and external components must be interconnected with this equipotential busbar.
Protective ground is bonded to the cabinets or components via PE conductor. It is required in
SIMATIC TDC for safe operation and as interference suppression measure.
The protective conductor must be routed and dimensioned in accordance with IEC 61131-2
(11.9).
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Installation and EMC guidelines
1.13
Power losses in the control cabinet
Built-in versions
1)
2)
3)
4)
Frame / panel
Control cabinet (open) with
open
Air vents > 600 cm²
Cabinet (closed) with
intrinsic convection and
forced convection
Closed cabinet with
heat e
SHUTDOWN MODE
Shutdown mode
ONE / ON
Shutdown is initiated upon the failure of one fan
Note
In the SHUTDOWN MODE, the internal output voltages of the rack are switched off. External
voltages connected to the module input must be switched off simultaneously (refer to section
Machinery directive
The dissipation capability of a cabinet and therefore the air intake temperature of the rack
depends on the type of cabinet, on the ambient temperatures and on the internal
arrangement of the devices.
For installation variants 1) and 2), it is presumed that there is a clearance of at least 1 meter
between the top of the control cabinet and the building's ceiling.
Using the SHUTDOWN MODE switch the user can select whether to shut down the rack
immediately on failure of the first fan, or not until an additional fan failure.
TWO / OFF Shutdown is initiated upon the failure of one or more fans
For additional rack-specific information see:
UR6021 (6DD1682-0CH3) Control and display elements (Page 41)
UR5213 (6DD1682-0CH2)
UR5213 (6DD1682-0CH0)
-circuit ventilation
Control and display elements (Page 55)
Control and display elements (Page 67)
xchanger
(Page 17)).
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Installation and EMC guidelines
Air intake temperature
Shutdown mode
Maximum air intake temperature up to 2000 m above
sea level
The maximum air intake temperature on the SIMATIC TDC may not be exceeded. The
following limits are valid, depending on the "shutdown mode" switch setting.
ONE / ON
TWO / OFF
Shutdown on failure of two fans
The following notes related to the EMI/EMC measures to take for systems/plants should be
observed in order to avoid disturbance peaks on the supply cables in the cabinet:
The power supply of the rack already has a line filter with sufficient attenuation (refer to
"Manufacturers declaration").
For more demanding applications, you can install an additional line filter (e.g. 250 V AC /
10 A) or overvoltage arrester in the mains line, as close as possible to the cable entry on the
cabinet. Ground of the line filter/arrester must be wired to the equipotential busbar of the
cabinet using the shortest possible conductor length.
60° Centigrade
35° Centigrade
To attenuate external interference, a line filter must be provided for the 24 V power supply of
the digital I/O (e.g. SIFI-B line filter, Order No. B84112-B-.... from Epcos/NF 1-1 line filter of
Phoenix Contact). This filter should be installed as close as possible to the terminal block.
The shield connections of the line filter must be bonded to ground across the shortest
possible distance.
The 24 V power supply must also be equipped with lightning/overvoltage protection.
For more information, refer to the installation manual "SIMATIC Automation Systems
S7-400, Hardware and Installation
(http://support.automation.siemens.com/WW/view/de/1117849/0/en)".
Safe electrical isolation to IEC 61131-2 IEC 61131-2 (11.1.2.1.3) must be ensured for all
power supply units operated on SIMATIC TDC devices and modules.
In SIMATIC TDC, the ground connections of all secondary voltages are grouped and bonded
to the rack enclosure in order to improve the signal to interference ratio and to ensure proper
grounding.
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Installation and EMC guidelines
1.15
Rack
Note
The modules may not
Memory sub
As a matte
front connectors on the live component.
● The rack must be bonded to the grounding/equipotential busbar using the shortest
possible conductor with a minimum cross-section of 16 mm
bonding (Page 22).
● All modules and front panels must be screwed onto the rack. This rule also applies to
commissioning phase!
● Unused slots must be provided with SIMATIC TDC dummy front panels type SR 51 6DD
1682-0DA1.
● The connectors must be screwed/interlocked to the front panel.
● The limit of the air intake temperature may not be exceeded on the rack; refer to Control
cabinet (Page 20). The rack must be installed in a way that safely excludes heat
accumulation; refer toFire protection (Page 18).
● The air intake of the rack must be free of dust as far as possible. The air intake of the
rack (bottom) must be cleaned at cyclic intervals depending on the degree of soiling.
be inserted or removed while the rack is on live voltage. Exception:
-modules MC 5xx / MMCs.
r of principle it is not advisable to remove and insert memory sub-modules or
-specific notes, refer to the corresponding user documentation (hardware).
2
; refer to Equipotential
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32System Manual, 08/2017, A5E01114865-AL
●
wired with strain relief.
●
housing, as well as to the shielding busbar. The cable shielding may not be wired to pin 1
of the connector.
● The
●
●
●
● A minimum clearance of > 10 cm must be maintained
operating voltage of the power cable used may not be less than the supply voltage.
power supply cable that is routed via interface module must be bonded to the shielding
busbar as specified in section "Connection via interfacee module".
"Equipotential bonding (Page 22)".
TDC should not be routed through the same cable duct.
of more than 1 kV.
you install must be shielded. All cables assembled by users must be
must be shielded. The shield must be bonded to a metalized connector
for the rack power supply does not require shielding. The permitted
for safety extra low voltages (e.g. 24 V DC) must be shielded. A
must be bonded to the equipotential busbar; refer to
and cables interconnecting the interface module with SIMATIC
carrying voltages less than 500 V and > 30 cm to power cables carrying voltages
All cables must be made of copper and be able to resist temperatures of up to at least 90 °C.
If interface modules are used, the shields of system-side cables and of routed the interface
module to SIMATIC TDC must be bonded to ground directly above or below the interface
module. Unshielded conductors that are terminated to screw terminals should be kept as
short as possible.
All lines should be kept as short as possible.
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Installation and EMC guidelines
Connector X1 (UR6021 6DD1682-0CH3 and UR5213 6DD1682-0CH2)
The cable wired to connector X1 on the rack must be shielded. The shield should be
terminated as close as possible to connector X1. You can connect conductor cross-sections
from 0.5 mm
Comment: We recommend using ferrules when using flexible cables.
Almost all of the SIMATIC TDC modules contain highly integrated components. Due to their
technology, these components are highly sensitive to overvoltage and, therefore, to ESD.
The abbreviation stands for electrostatic discharge
Modules equipped with such components are identified by the following warning label on
component side:
Electrostatic sensitive components can be destroyed by voltages and power levels far below
human perception. Components or modules are possibly exposed to such voltages when
touched by humans who have not been not electrostatically discharged. Following such
voltage peaks, it is usually impossible to identify malfunction of the component immediately,
as it needs an extended operating time before such malfunctions are disclosed.
● As a matter of principle, you should never touch electronic modules unless this is
unavoidable in the course of work to be carried out on the component.
● Do not touch components unless
– you are continuously grounded by means of an ESD bracelet, or
– or by wearing ESD shoes, or ESD shoe grounding strips.
● Always discharge your body before you touch an electronic module. This can be done
quite simply by touching a conductive, grounded object immediately before you handle
the component (e.g. bright metal parts of the control cabinet, water pipe etc.)
● Modules may not come into contact with highly insulating materials that are subject to
electrostatic charge, e.g. plastic foils, insulating table plates, clothing made of artificial
fiber.
● Modules must always be placed onto conductive surfaces (table with ESD mat,
conductive ESD foam rubber, ESD packaging bags, ESD transport containers, cardboard
or paper mats).
● Modules may not be brought close to data terminals, monitors, or television sets.
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● Measurements may only be taken on the modules when
– The measuring devices is grounded (e.g. via PE conductor), or
– The measuring head has been briefly discharged (e.g. by touching a bright metal part
of the control enclosure) prior to measurement with an electrically isolated measuring
device.
Always use ESD soldering irons for soldering work on modules, or at least grounded
soldering tips.
Modules and components must always be stored and shipped in conductive packing
materials (e. g. metalized plastic boxes, metal containers).
If using non-conductive packaging, you must protect the modules with a wrapping of made of
conductive material, e.g. conductive foam rubber, or household aluminum foil.
The following figure once again emphasizes the necessary ESD protective measures.
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2
2.1
Climatic conditions
Storage and transport conditions
IEC 60721 Part 3-2 Class 2K1, without condensation
Storage temperature
-40 °C to +70 °C
protected
refer to "Power losses in the control cabinet (Page 29)"
Operation
1080 to 795 hPa (corresponds to -1000 m to +2000 m)
3S2 (without sand in air)
2.2
Electrical protection and safety requirements
Safety regulations
IEC 61131-2
Protection class
Protection class I (with PE/ground conductor)
cles and water
2.3
External supply of the SIMATIC TDC modules (digital outputs)
The following table provides information on the type and scope of checks regarding
mechanical ambient conditions.
Vibrations Vibration test according to
IEC 60068-2-6 (sine)
Shock Shock test according to
IEC 60068-2-27
Type of vibration: Frequency cycles with a rate of change of 1
octave/minute
10 Hz ≤ f ≤ 58 Hz, constant amplitude 0.075 mm
58 Hz ≤ f ≤ 150 Hz, constant acceleration 1 g
Duration of vibration: 10 frequency cycles per axis in each of the
Type of shock: half-sine
Strength of shock: 15 g peak value, 11 ms duration
Shock direction: 3 shocks each in +/– direction in each of the
The use of two-way radios and mobile phones in the immediate range of SIMATIC
influence the operation of the device.
Rack UR6021 with 21 slots forms the mechanical base for SIMATIC TDC
The system power supply is installed in the rear area of rack.
There is a fan tray in the upper part of the rack, which includes the monitoring and signaling
functions in addition to the fans.
The fan tray can be ordered as spare part (6DD1683-0CH3) and can be replaced by
qualified personnel.
A high-performance 64-bit backplane bus supports high-speed data exchange between the
inserted modules.
The CPU555 used in UR6021 supports P0 functionality.
For fast, direct communication between CPU555 modules, the rack UR6021 has a P0
connector in slots 01, 02, 03, 04, 09, 11, 13 and 15. Each CPU555 can communicate with up
to 7 additional CPU555 by means of the PCIe interface via the backplane bus (P0
connector). This means that a point-to-point connection always exists between any two
CPU555 modules.
Ventilation/cooling (Page 48)
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The fan tray is inserted and screwed into the upper part of the rack. The fan tray contains six
fans and the control and monitoring functions for the rack.
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Page 41
Rack
3.1.3
Control and display elements
X1
Note
Mixed assignment
Contacts consisting of combinations of safety extra
not permitted.
3 signaling relays, 230 V AC floating potential (3 x 2 contacts)
-low voltage and hazardous voltages are
A system shutdown mode can be set in accordance with the switch position S1.1 (in the
battery compartment) as response to the failure of one or two fans.
● OFF = Shutdown on failure of two fans (SHUTDOWN MODE LED = on)
● ON = Shutdown on failure of one fan (SHUTDOWN MODE LED = flashes)
Figure 3-2 Front view of the fan tray
The four LEDs signal the operating state of the rack.
You can restart all modules by pressing the submerged pushbutton (rack RESET).
Backup battery compartment (1 x AA lithium battery)
Line voltage connection
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Rack
3.1.4
Status and fault displays
LED
Display
Rack state
POWER OK
green is on
fault-free operation
red is on
fault (refer to voltage monitoring)
FAN FAIL
Off
fault-free operation
On
fault (at least one fan has failed)
SYSFAIL
(red)
Off
fault-free operation
On
System was stopped
SHUTDOWN MODE
On
Shutdown on failure of two fans (corresponds to the OFF
position of switch S1.1)
tion of switch S1.1)
3.1.5
Power supply
Mains connection
Note
Always use the integrated strain relief for the mains cable on the 3
Input voltage
120/230 V AC
110/220 V DC
Test voltage
Primary ↔ PE
1500 V AC
Power consumption
800 W (apparent power approx. 835 VA)
Cable cross-section
3 x 1.5 mm2 (copper stranded wires dressed with wire end ferrules with ISO
ferrule)
Input current
In = 9 A
Is = < 40 A (inrush peak)
External fuse
The power supply is equipped with an internal 20 A fuse. This means that
Alternatively, a slow-acting fuse may be used.
Note
A mains disconnect unit must be provided during installation of the rack.
The power supply unit and therefore the system are restarted automatically on recovery from
a voltage dip below the permissible mains voltage.
The power on/off sequence (e.g. generation of a RESET or SYSFAIL signal) corresponds to
the reaction to manual operation of the mains switch.
All output voltages are monitored (e.g. for overload/short-circuit).
+5 V in the range from 4.75 V to 5.35 V “POWER OK” LED is lit green;
+ 3.3 V in the range from +3.18 V to +3.5 V
+ 12 V in the range from +11 V to +13 V
In all other cases, the “POWER OK” LED is lit red.
signal and CPU STOP, shutdown of
Select the "Object properties" in the "STOP" tab of
the relevant module to a system failure alarm (bus signal *
A backup battery must be installed in the battery box to enable the backup of configured
values on power failure (using SAV function blocks).
Type 1 x Lithium AA
You may only use batteries that have been approved by Siemens!
Risk of injury, damage to assets, and emission of pollutants. Improper handling of a Lithium
battery may cause its explosion and incorrect disposal of used lithium batteries may lead to
emission of pollutants. For these reasons, you should strictly observe the following notes:
• Do not throw new or waste batteries into an open fire, or perform any soldering work on
the cell body (max. temperature 100° C)
• Do not recharge waste batteries - risk of explosion!
• Do not open the battery.
• Always replace battery with one of the same type. Always order replacements from
Siemens.
This ensures that you are in possession of a short circuit-proof type.
• You should return waste batteries to the battery manufacturer, dispose of the batteries
as special waste at a recycling facility.
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
Capacity of the backup battery: 2.3 Ah, 63 % is assumed for calculation.
Backup current: 200 µA (monitoring 20 µA + max. 180 µA for the slots, CPU555/CPU551
needs 3 µA)
Backup time = 2.3 Ah * 0.63 / 200 µA = 7245 h ≙ 300 days
This time is valid for a rack that is switched off. Only the battery monitoring function draws a
current of 20 µA while the rack is powered on.
It is recommended to replace the batteries at annual intervals. The backup function is
deactivated when the fan tray is removed.
The CPU module inserted in slot 1 detects missing or low backup batteries and signals these
states with a flashing "b".
Unscsrew and remove the lid of the battery compartment to remove the battery.
Observe correct polarity when inserting the battery. You should also take care not to bend
the connection tabs of the battery holder during replacement.
To prevent data loss, you should always replace the battery while the rack is powered on.
Make sure that the modules you insert are properly aligned in their relevant slot.
Do not push the modules towards the left when inserting these, because you would risk
damage to the ESD braid of the modules already inserted. Observe this particularly at slot
1, as a metal spring has been installed in this slot.
If the ESD braid or a metal spring is severely damaged, the module can no longer be used
because there is a risk of a short circuit with the potentials of a neighboring module.
In SIMATIC TDC, the ground connections of all secondary voltages are grouped and bonded
to the rack enclosure in order to improve the signal to interference ratio and to ensure proper
grounding.
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
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Rack
3.1.11
Ventilation/cooling
Note
For more information, refer to section "
Note
FANOPH
Using the FANOPH function block, you can read out the
from the first CPU555 and monitor it for a limit.
The rack is equipped with a fan tray with 6 fans for forced convection of the modules and the
system power supply.
Since the rack is not equipped with an air filter, you should provide a filter on the cabinet if
necessary.
Control cabinet (Page 20)".
operating hours counter of the fan
The fans are monitored (speed). Activation of the monitoring function is delayed in order to
enable the reliable startup of the rack after you switched on power.
On failure of one or two fans, the power supply is shut down depending on the operating
mode in order to prevent thermal destruction of the modules.
The operating mode (SHUTDOWN MODE) is selected using switch S1.1, which is integrated
in the power supply. The power supply is shut down if one fan has failed and switch position
"ON" is set, or if two fans have failed and switch position "OFF" is set.
Switch off power to the rack before you remove the screws of the battery compartment.
The battery compartment cover must be unscrewed to actuate switch S1.
Observe the corresponding ESD directives.
The operating mode setting is indicated by the "SHUTDOWN MODE" LED on the front
panel.
See section "Status and fault displays (Page 42)".
If the modules require forced cooling (e.g. CPU555), always set the "SHUTDOWN MODE"
slide switch S1.1 to "ON" for air intake temperatures from 0 °C to 60 °C.
You may only set the position of switch S1.1 to "OFF" if it can be ensured that the air intake
temperature at the rack does not exceed 50 °C.
The power supply is not shut down on failure of a single fan, but the corresponding
backplane bus signal (FANAL*) is activated and can be detected by the configuration
software.
The fan tray is can be ordered as a replacement part and be replaced.
Electrostatic sensitive components can be destroyed by voltages and power levels far below
human perception. Components or modules are possibly exposed to such voltages when
touched by humans who have not been not electrostatically discharged. Following such
voltage peaks, it is usually impossible to identify malfunction of the component immediately,
as it needs an extended operating time before such malfunctions are disclosed.
If the fan tray is damaged, it may not be installed.
Proceed as follows to replace the fan tray:
1. Make sure that the leads to X2 and possibly X1 are de-energized and secure them
against reconnection.
2. Ensure that adjacent live parts cannot be touched.
3. Remove the power connector X2.
4. If necessary, remove the wires to X1 (including the strain relief and shield connection).
5. Loosen the 8 screws on the top and bottom of the fan tray.
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
Rack UR5213 with 21 slots forms the mechanical base for SIMATIC TDC and features an
integrated system power supply and integrated system fans. A high-performance 64-bit
backplane bus supports high-speed data exchange between the inserted modules.
Figure 3-4 Rack UR5213 (front view)
The power supply with integrated fan for forced convection is installed in the rear section of
the rack.
Screw terminal with screw lock (3*1.5 mm2, stranded
wires dressed with wire end ferrules with insulating
collars)
Make sure that the strain relief is properly mounted.
N Neutral conductor
PE/ground conductor
Cage clamp terminal (0.5 mm2 –1.5 mm2, stranded
wires dressed with wire end ferrules with insulating
collars)
Make sure that the strain relief is properly mounted.
1, 2
3, 4
5, 6
The
must be connected to the power supply. A PE/ground terminal
on the rack is inappropriate. The PE/ground conductor must be green with yellow stripe
(green/yellow).
Ungrounded installation of the rack is not planned.
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57
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Rack
3.2.7
Voltage monitoring
Input voltage
Input voltage
Reaction
ACFAIL
output voltages <85V
Output voltage
Voltage monitoring functions at the power supply
outlet
The power supply unit and therefore the system are restarted automatically on recovery from
a voltage dip below the permissible mains voltage.
The power on/off sequence (e.g. generation of a RESET or SYSFAIL signal) corresponds to
the reaction to manual operation of the mains switch.
All output voltages are monitored (e.g. for overload/short-circuit).
+5 V in the range from 4.75 V to 5.35 V “POWER OK” LED is lit green;
+ 3.3 V in the range from +3.18 V... +3.5 V
+ 12 V in the range from +11 V to +13 V
In all other cases, the “POWER OK” LED is lit red.
signal and CPU STOP, shutdown of
Select the "Object properties" in the "STOP" tab of
the relevant module to a system failure alarm (bus signal *
● Modules can reset their digital and analog outputs
● CPU modules can go into the "STOP" state ("H" is displayed permanently)
A backup battery must be installed in the power supply circuit to enable the backup of
configured values on power failure (using SAV function blocks).
Type 1 x Lithium AA
You may only use batteries that have been approved by Siemens!
Risk of injury, damage to assets, and emission of pollutants. Improper handling of a Lithium
battery may cause its explosion and incorrect disposal of used lithium batteries may lead to
emission of pollutants. For these reasons, you should strictly observe the following notes:
• Do not throw new or waste batteries into an open fire, or perform any soldering work on
the cell body (max. temperature 100° C), or recharge the battery - risk of explosion! Do
not open the battery and always replace it with one of the same type. Always order
replacements from Siemens. This ensures that you are in possession of a short circuitproof type.
• You should return waste batteries to the battery manufacturer, dispose of the batteries
as special waste at a recycling facility.
Sample calculation:
Capacity of the backup battery: 2.3 Ah, 63 % is assumed for calculation
Backup current: 200 µA (monitoring 20 µA + max. 180 µA for the slots, a CPU 551 needs
2.2 µA )
Backup time = 2.3 Ah * 0.63 / 200 µA = 7245 h ≙ 300 days
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
This time is valid for a rack that is switched off. Only the battery monitoring function draws a
current of 20 µA while the rack is powered on.
It is recommended to replace the batteries at annual intervals. The backup function is
deactivated while the fan tray is removed.
The CPU module inserted in slot 1 detects missing or low backup batteries and signals these
states with a flashing "b".
Unscsrew and remove the lid of the battery compartment to remove the battery. Observe
correct polarity when inserting the battery. You should also take care not to bend the
connection tabs of the battery holder during replacement.
You should always replace the battery while the rack is powered on in order to prevent data
loss.
Make sure that the modules you insert are properly aligned in their relevant slot.
Do not push the modules towards the left when inserting these, because you would risk
damage to the ESD braid of the modules already inserted.
Observe this particularly at slot 1, as a metal spring has been installed in this slot.
In SIMATIC TDC, the ground connections of all secondary voltages are grouped and bonded
to the rack enclosure in order to improve the signal to interference ratio and to ensure proper
grounding.
The rack is equipped with three fans for forced convection of the modules and with one fan
for the system power supply.
Since the rack is not equipped with an air filter, you should provide a filter on the cabinet if
necessary.
Equipotential bonding (Page 22)".
The fans are monitored (speed). Activation of the monitoring function is delayed in order to
enable the reliable startup of the rack after you switched on power.
On failure of one or two fans, the power supply is shut down depending on the operating
mode in order to prevent thermal destruction of the modules.
Select the operating mode (SHUTDOWN MODE) using switch S1.4 that is integrated in the
power supply. The power supply is shut down if one fan has failed and switch position "ON"
is set, or if two fans have failed and switch position "OFF" is set.
To set switch S1, unscrew the front panel and slightly pull it forward until you can reach the
switch through the gap. Switch off power to the rack before you open the panel.
Switch off power to the rack before you remove the front panel screws.
Observe the corresponding ESD Directives.
The operating mode setting is indicated by the "SHUTDOWN MODE" LED on the front
panel.
Refer to chapter “Status and fault displays”.
Always set the “Shutdown mode” dip switch S1.4 to “ON” for modules requiring forced
convection (e.g. CPU551) at air intake temperatures from 0 C to 60 °C.
You may only set the position of switch S1.4 to "OFF” if it can be assured that the air intake
temperature at the rack does not exceed 35 °C.
The power supply is not shut down on failure of a single fan, but the corresponding
backplane bus signal (FANAL*) is activated and can be detected by the configuration
software.
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
The following lists the maximum current load on the output voltages of the rack.
-12 V 4 A
Total output power may not exceed 320 W. This must be ensured i your configuration.
The output currents are listed in the respective description.
The output power limit of 320 W is not exceeded even in a full assembly of the rack
consisting of the module types CPU551, SM500, CP51M1, CP50M1 and CP52A0.
verify the
All outputs are sustained short circuit-proof and
Current load Approx. 20 µA for the monitoring function and
Rack UR5213 with 21 slots forms the mechanical base for SIMATIC TDC and features an
integrated system power supply and integrated system fans. A high-performance 64-bit
backplane bus supports high-speed data exchange between the inserted modules.
Figure 3-7 Rack UR5213 (front view)
The power supply with three fans is inserted and screw mounted in the upper section of the
rack.
3 signaling relays, 230 V floating potential (3 x 2 contacts)
A system stop triggered by fan failure can be set based on the switch position, i.e. “ONE”
setting for failure of one fan, or “TWO” setting for failure of two fans.
The three LEDs display the rack's operating status.
You can restart all modules by pressing the submerged pushbutton (rack RESET).
Compartment for backup batteries
(2 x 1.5 V leak-proof alkaline manganese cells type AA)
Mains switch
Line voltage connection
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
The power supply and therefore the system will be restarted on recovery from voltage dips to
approx. 5 % of the rated mains voltage and a duration longer than approx. 3 seconds.
The power on/off sequence (e.g. generation of a RESET or SYSFAIL signal) corresponds to
the reaction to manual operation of the mains switch.
The rack goes into standby state following voltage interruption of a duration shorter than
approx. 3 and dip to no less than approx. 5 % of the rated mains voltage. A usual power off
sequence precedes this state.
This state can only be cleared by cycling power off and on by means of the mains switch.
All output voltages are monitored (e.g. for overload/short-circuit).
+5 V in the range from 4.75 V to 5.35 V “POWER OK” LED is lit green;
+ 3.3 V in the range from +3.18 V... +3.5 V
+ 12 V in the range from +11 V to +13 V
•
output voltages <85V
signal and CPU STOP, shutdown of
In all other cases, the “POWER OK” LED is lit red.
Select the "Object properties" in the "STOP" tab of
the relevant module to a system failure alarm (bus signal *
● Modules can reset their digital and analog outputs
● CPU modules can go into the "STOP" state ("H" is displayed permanently)
In order to backup configured values to memory on power failure (using the SAV function
blocks), you need to install two commonly available size AA leak-proof alkaline manganese
batteries with a rated voltage of 1.5 V in the power supply circuit.
It is recommended to replace the batteries at annual intervals.
The backup function is no longer available if you remove the power supply unit (e.g. in the
case of malfunction, or fan replacement).
The CPU module inserted in slot 1 detects missing or low backup batteries and signals these
states with a flashing "b".
You should always replace the battery while the rack is powered on in order to prevent data
loss.
Note that
preparation for its
the battery you also need to take corresponding
.
in
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
The PS5213 power supply is equipped with three fans.
Since the rack is not equipped with an air filter, you should provide a filter on the cabinet if
necessary.
The fans are monitored (speed). Activation of the monitoring function is delayed in order to
enable the reliable startup of the rack after you switched on power.
On failure of one or two fans, the power supply is shut down in order to prevent thermal
destruction of the modules. Use the "Shutdown Mode" dip switch to select the mode (the
switch has the “ONE” or “TWO” settings). With switch position “ONE”, a power supply
shutdown is triggered on failure of at least one fan and in switch position “TWO” by the
failure of at least two fans.
Always set the “Shutdown mode” dip switch S1.4 to “ONE” for modules requiring forced
convection (e.g. CPU550) at air intake temperatures from 0 C to 55 °C.
You may only set switch position "TWO" if it can be assured that the air intake temperature
at the rack does not exceed 35 °C. The power supply is not shut down on failure of a single
fan, but the corresponding backplane bus signal (FANAL*) is activated and can be detected
by the configuration software.
At an ambient temperature of 55 °C, it is recommended to replace the fans at intervals of
approx.
Users cannot replace the fans.
Three 230V signaling relays with floating potential facilitate external evaluation of the rack's
system states.
Table 3- 5 Signaling relay
. The power supply must be removed for fan replacement.
CPU555 is a graphically freely configurable processor module, enabling the implementation
of sophisticated highly dynamic control functions.
Use cases include:
● Roll nip controls
● Hydraulic positioning functions
● Strip cooling systems
● HVDCT control systems (high voltage DC transmission)
CPU555 can only be used in the rack UR6021.CPU555 can only be configured with a version V8.1 or higher of the D7-SYS automation
The floating point unit used supports Floating Point data types, operations and exception
The CPU555 does not apply substitute values for invalid real values. This method
Operation of the CPU555 together with a CPU551 is Operation of the CPU555 together with a CPU550 is
software.
handling as defined in IEEE Standard 754 (2008). Floating point numbers are calculated
internally with 80 bits. This results in fewer rounding errors as compared to calculations
with only 64 bits (CPU551).
provides higher performance. Typically, invalid real values result from corrupted data
from external interfaces. Calculating with invalid real values can have unintended results.
Checking the input values with the CHK_R function block is recommended. With the
CHK_R function block, you can assign a substitute value for an error scenario.
approved.
approved.
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CPU modules
Note
Note the following for operation with modules:
Operation of the CPU555 with the CP5100 and CP50M0 modules that are being phased
out is not possible.
Use of a CP50M1 in combination with a CPU555 is only possible as of a firmware version
≥ 4
Use of a CP51M1 in combination with a CPU555 is only possible as of a functional status
≥ 8
Use of a CP52A0 with article number 6DD1660-0BH0 in combination with a CPU555 is
only possible as of a functional status ≥ 9
Use of a CP53M0 in combination with a CPU555 is only possible as of a functional status
≥ 9
Use of an SM500 in combination with a CPU555 is only possible as of a functional status
≥ 13
The processor number, states and faults are displayed using a 5x7 dot matrix LED array.
This button has two functions:
● Clearing the fault display:
The acknowledge button can be used to clear sporadic or non-critical fault displays on the
5x7 dot matrix LED. An additional fault is displayed after the first one has been
acknowledged.
The dot matrix shows the configured number of the CPU module (1 to 20) in normal
operation. Faults are indicated by a letter that informs you of the type of fault.
Slow alternation between the light and dark state of the dot matrix is referred to as flashing in
the following table.
Table 4- 1 Operating and fault states of CPU555
Configured number of the CPU module in normal operation.
User program is running
Initialization phase:
User program is not running
Individual initialization phases during startup are indicated by means
Module failure:
User program is not running
• Hardware failure => replace CPU555
• Fatal software error => contact the Hotline
Partial power failure, FPGA1 failure or errors on the module:
User program is not running
Diagnostics should start at the CPU module that was the first to dis-
play fault message “0”.
• Flashing "0" Faults on this module
• Permanent "0": Faults on a different module
If none of the CPU modules can be identified as having been the first
one, then the one inserted to the extreme left should first be selected
User program is running
Low-priority errors during initialization that allow the start of normal
operation and that are detected in the background process, e.g.: e.g.
• missing or low backup battery
• Missing program memory module
• Fan failure
• Invalid real value
• PN bus/group error (flashing; faulty module)
Note: The PN bus/group error can also be acknowledged while it
is still pending. After acknowledgment, this error is not displayed
again until it occurs again (new incoming event/error).
User program is running
Incorrect configuration of communication, or connection error
For more information on diagnostics functions, refer to the manual
A task could not be completed within the sampling time.
Task overflow
•
If a task that has not been not assigned top priority but needs to
be restarted.
•
No free local buffer
The data buffer is no longer released. The task start will be
skipped.
•
Software time monitoring
If the basic sampling time is not processed four times in succession. The basic clock cycle timer is re-initialized with the configured basic sampling time and processing is continued.
For more information on diagnostics functions, refer to the manual
"D7-SYS - STEP 7, CFC and SFC configuring
(http://support.automation.siemens.com/WW/view/de/8776786/0/en)",
Yes
User program is not running
Hardware or software problems causing a program crash.
• Flashing "H" Faults on this module
• Permanent "H": Faults on a different module
For more information on diagnostics functions, refer to the manual
"D7-SYS - STEP 7, CFC and SFC configuring
(http://support.automation.siemens.com/WW/view/de/8776786/0/en)",
No
SIMATIC TDC hardware
80System Manual, 08/2017, A5E01114865-AL
Page 81
CPU modules
4.1.4
Application notes and immunity to interference
NOTICE
CPU555 in the UR6021 rack
Note
For more information on fan operation, refer to section "
For more information on EMC and environmental conditions, refer to section "
technical specifications
Note
Shutdown behavior of various CPU modules
The various CPU modules exhibit slight time differences in their shutdown behavior when the
power supply is interrupted.
Each CPU555 can communicate with up to 7 additional CPU555 by means of the PCIe
interface via the backplane bus (P0 connector). This means that a point-to-point connection
always exists between any two CPU555 modules (see Areas of application (Page 39)).
The user program executed on the CPU module is configured on a PC using STEP 7 /
HW Config and CFC and then downloaded to program memory.
The program memory must be located in the CPU module slot provided (X4).
Direct user program download from the PC to program memory in the CPU module via
PROFINET interface (online loading).
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
The size of the user program (compressed to approx. 50 %) that was downloaded to
program memory and the size of free program memory can be viewed in the CFC by
selecting the following menu command:
● PLC / Load / Info
Average load (measured with block PSL) should not exceed 90%, since this may lead to
sporadic overload.
The user program created in CFC is downloaded to program memory. Program memory
features Flash EPROM (2, 4 or 8 MB).
Program memory for user program: See Additional components (Page 82)
The CPU550/CPU551 processor module can be customized by means of graphic interface
and enables the realization of demanding, highly dynamic automatic control systems.
Use cases include:
● Roll nip controls
● Hydraulic positioning functions
● Strip cooling systems
´Please note the following when using the CPU module CPU551 with the article number
6DD1600-
.
Up to D7-SYS V8.0: To configure the CPU module CPU551 "6DD1600-
Config, select the CPU551 "6DD1600-
For system and communications configuration, select SIMATIC D7-SYS as of V5.2. Only use memory cards whose configuration was created with SIMATIC D7-SYS as of
V5.2.
" in HW
".
-0BA3) with the communications module
.
SIMATIC TDC hardware
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Page 89
CPU modules
Operation with CP51M1
Note
CPU551 with CP51M1
To operate the CPU module CPU551 (6DD1600
CP51M1, use only a communications module CP51M1 with a functional status > 7
Substitute value behavior
Note
Floating decimal calculation
Please note that if you have
values" that the calculation with invalid Real values (NaN) can return different results with
versions 6DD1600
The processor number, states and faults are displayed using a 5x7 dot matrix LED array.
This button has two functions:
● Clearing the fault display:
The acknowledge button can be used to clear sporadic or non-critical fault displays on the
5x7 dot matrix LED. An additional fault is displayed after the first one has been
acknowledged.
● Digital signal input can be evaluated using the
function block.
Figure 4-3 Front panel of CPU551
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Page 91
CPU modules
4.2.4
Status and fault displays
Display
Operating and fault states
Can be
cleared with
S1
1... 20
User program is running
A User error
Diagnostics event, user-defined by means of USF function block
The configured number of the CPU module (1...20) is displayed in normal operation. Faults
are indicated by a letter that informs you of the type of fault.
Slow alternation between the lit and dark state of the 5x7 dot matrix LEDs is referred to as
flashing in the following table.
Table 4- 6 Operating and fault states of CPU550/CPU551
Configured number of the CPU module in normal operation.
User program is running
Initialization phase:
User program is not running
Individual initialization phases during startup are indicated by means
Module failure:
User program is not running
• Hardware failure => replace CPU550/CPU551
• Fatal software error => contact the Hotline
User program is not running
Diagnostics should start at the CPU module that was the first to dis-
play fault message “0”.
• Flashing "0" Faults on this module
• Permanent "0": Faults on a different module
If none of the CPU modules can be identified as having been the first
one, then of those which display a "0", the one inserted to the ex-
No
Yes
No
No
No
User program is running
Low-priority errors during initialization that allow the start of normal
operation and that are detected in the background process, e.g.: For
example,
• missing, low backup battery
• Missing program memory module
• Fan failure
• Invalid floating value (substitute value will be used)
SIMATIC TDC hardware
System Manual, 08/2017, A5E01114865-AL
User program is running
Incorrect configuration of communication, or connection error
For more information on diagnostics functions, refer to the manual
A task could not be completed within the sampling time.
Task overflow
•
If a task that has not been not assigned top priority needs to be
restarted.
•
No free local buffer
The data buffer is no longer released. The task start will be
skipped.
•
Software time monitoring
If the basic sampling time is not processed four times in succession. The basic clock cycle timer is re-initialized with the configured basic sampling time and processing is continued.
For more information on diagnostics functions, refer to the manual
"D7-SYS - STEP 7, CFC and SFC configuring
(http://support.automation.siemens.com/WW/view/de/8776786/0/en)",
Yes
User program is not running
Hardware or software problems causing a program crash.
• Flashing "H" Faults on this module
• Permanent "H": Faults on a different module
For more information on diagnostics functions, refer to the manual
"D7-SYS - STEP 7, CFC and SFC configuring
(http://support.automation.siemens.com/WW/view/de/8776786/0/en)",
No
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93
Page 94
CPU modules
4.2.5
Application notes and immunity to interference
Note
For more information on fan operation, refer to chapter "
For more information on EMC and environmental conditions, refer to chapter "
technical specifications
Note
Shutdown behavior of various CPU modules
The various CPU modules exhibit slight time differences in their shutdown behavior when
the power supply is interrupted.
An interface module is connected to the 10-pin RJ-45 socket with polarity reversal protection
via cable SC66.
Table 4- 9 Pin assignment X2 and cable SC66
3 Digital input 1 (supports interrupts) 3 2
5 Digital input 3 (supports interrupts) 5 4
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CPU modules
4.2.9
Technical specifications/performance features
Article number
CPU module CPU550
6DD1600-0BA0
6DD1600-0BA3
Note
Where two different values are specified for a feature (separated by "/") in the manual, the
first is valid for the module with article nu
module with article number 6DD1600
6DD1600
The user program executed on the CPU module is configured on a PC using
STEP7/HWConfig and CFC and then downloaded to program memory.
The program memory must be located in the CPU module slot provided.
There are two ways of loading the user program:
●
Carried out on the PC using an integrated or external PCMCIA programming adapter
("PC card").
●
Direct user program download from the PC to program memory in the CPU module via
serial service interface.
The size of the user program (compressed to approx. 50 %) that was downloaded to
program memory and the size of free program memory can be viewed in the CFC by
selecting the following menu command:
● PLC / Load / Info
Average load (measured with block PSL) should not exceed 95 %, since this may lead to
sporadic overload.
The user program created in CFC is downloaded to program memory. Program memory is
realized with Flash EPROM (2, 4 or 8 MB) and 8 KB EEPROM cache memory.
The following program memory may be used optionally, depending on the size of the user
program:
● MC500 (4 MB)
● MC510 (8 MB)
● MC521 (2 MB)
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