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3UF5 SIMOCODE-DP System Motor Protection and Control Device

3UF5 SIMOCODE-DP System Motor Protection and Control Device

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<strong>3UF5</strong> <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>System</strong> <strong>Motor</strong><br />

<strong>Protection</strong> <strong>and</strong> <strong>Control</strong> <strong>Device</strong>


Contents<br />

Page<br />

The <strong>3UF5</strong> <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>System</strong> 3<br />

Thermistor-Type <strong>Motor</strong> <strong>Protection</strong><br />

Without Compromise 4<br />

Wide Scope of <strong>Control</strong> Functions 5<br />

Extensive Diagnostics 7<br />

Communication – PROFIBUS-<strong>DP</strong> 8<br />

Exchange of Data 10<br />

Simple Start-Up 12<br />

Price Advantage with <strong>SIMOCODE</strong>-<strong>DP</strong> 14<br />

Modular <strong>Device</strong> Configuration 16<br />

SIVACON –<br />

The Communications-Capable<br />

Low-Voltage Switchgear 18<br />

Technical Specifications 19<br />

2


The <strong>3UF5</strong> <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>System</strong><br />

There is less <strong>and</strong> less time in between<br />

ordering <strong>and</strong> the start-up of<br />

a system – however, the requirements<br />

made on motor feeders are<br />

increasing. A system should, for<br />

example, be compact, intelligent<br />

<strong>and</strong> powerful. Every motor has<br />

optimum protection, the scope of<br />

wiring is as small as possible <strong>and</strong><br />

spares must not mean high storage<br />

costs.<br />

To meet all these requirements, the<br />

system designer has to have extensive<br />

knowledge of the complete range of<br />

low-voltage switchgear. The new<br />

communications-capable<br />

<strong>SIMOCODE</strong>®-<strong>DP</strong> <strong>3UF5</strong>0 – Siemens<br />

<strong>Motor</strong> <strong>Protection</strong> <strong>and</strong> <strong>Control</strong> <strong>Device</strong> -<br />

Decentralised Peripherals – makes life<br />

easier for the system designer.<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> is a tried <strong>and</strong><br />

tested system<br />

<strong>SIMOCODE</strong> 3UF10/20 devices have<br />

been in use all over the world for more<br />

than five years. They protect <strong>and</strong><br />

control motors for the chemical, oil <strong>and</strong><br />

gas industry. <strong>Motor</strong>s with heavy<br />

starting duty as used in paper, cement<br />

<strong>and</strong> metal production for example are<br />

no problem for <strong>SIMOCODE</strong>.<br />

<strong>SIMOCODE</strong> also helps ensure that<br />

high-availability systems such as coal,<br />

gas <strong>and</strong> hydro electric plants run<br />

around the clock. <strong>SIMOCODE</strong> provides<br />

the communication between the<br />

master level <strong>and</strong> the automation level<br />

via the PROFIBUS®-FMS/SINEC®-L2-<br />

bus.<br />

The new <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>3UF5</strong>0 with<br />

integrated PROFIBUS-<strong>DP</strong> interface has<br />

established itself worldwide in a short<br />

time span. It protects <strong>and</strong> controls for<br />

example Cement <strong>and</strong> Petrochemical<br />

industries in Malaysia; Paper,<br />

Chemical, Textile, Steel, Gas <strong>and</strong><br />

Waterwork plants in Europe; Chemical<br />

plants in South Africa; Food <strong>and</strong><br />

Consumergoods industries in South<br />

America <strong>and</strong> like the Steel industry in<br />

North America will soon be installed in<br />

a Steel plant in Australia.<br />

The new <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>3UF5</strong>0 is<br />

based on the tried <strong>and</strong> tested<br />

<strong>SIMOCODE</strong> 3UF10/20. In addition to<br />

the existing control functions, such as<br />

direct-, reversing-, star-delta starters,<br />

there is now the possibilty to<br />

implement user-specific controls by<br />

using the freely assignable inputs <strong>and</strong><br />

outputs <strong>and</strong> the built-in truth tables,<br />

timers <strong>and</strong> counters.<br />

The existing motor protection<br />

functions (overload, phase failure <strong>and</strong><br />

current imbalance detection) have<br />

been supplemented by thermistor<br />

motor protection <strong>and</strong> earth-fault<br />

monitoring.<br />

Supervisory level<br />

Master computer<br />

<strong>Control</strong> level<br />

Automation level<br />

ETHERNET<br />

PROFIBUS-<strong>DP</strong><br />

PLC e.g.<br />

SIMATIC<br />

K1 K2 K3<br />

K4<br />

Communicationscapable<br />

low-voltage<br />

switchgear<br />

<strong>SIMOCODE</strong>-<strong>DP</strong><br />

<strong>Motor</strong><br />

<strong>Motor</strong><br />

<strong>Motor</strong><br />

Field level<br />

Fans<br />

Conveyor<br />

belt<br />

Fans<br />

3


Thermistor-Type <strong>Motor</strong> <strong>Protection</strong><br />

Without Compromise<br />

Electrical equipment such as AC<br />

motors <strong>and</strong> transformers need<br />

protection against excessive heating.<br />

Unbalanced current consumption,<br />

phase failure or a stalled rotor are<br />

some of the possible causes of<br />

overloading.<br />

Overload protection<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> protects the load,<br />

independent of the automation level,<br />

against overload, phase failure <strong>and</strong><br />

current imbalance. The <strong>3UF5</strong>0 basic<br />

unit can also be used as an<br />

autonomous, solid-state overload relay<br />

for motor protection.<br />

Finely adjustable adaptation to<br />

start-up conditions<br />

It is possible to select a tripping class<br />

in six steps from CLASS 5 to CLASS<br />

30. The tripping time can be finely<br />

adjusted to the start-up conditions –<br />

<strong>and</strong> the utilisation of the motors can<br />

be optimised.<br />

Built-in thermistor motor protection<br />

Thermistor motor protection is used for<br />

the thermal protection of motors. The<br />

temperature is measured directly at<br />

the motor windings via a PTC or NTC<br />

thermistor detector <strong>and</strong> is evaluated by<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>.␣ No additional<br />

evaluation devices are required, thus<br />

saving space in the switchboard.<br />

Apart from binary thermistor detectors,<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> also evaluates<br />

analogous (KTY) thermistor detectors.<br />

KTY detectors incorporate a resistance<br />

curve which rises linearly with the<br />

temperature. Therefore, a warning <strong>and</strong><br />

a tripping threshold can be set in the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>.<br />

A considerable advantage.<br />

For motors with a thermally critical<br />

rotor, e.g. slipring <strong>and</strong> squirrel-cage<br />

motors with increased power, the combination<br />

of thermistor-type motor protection<br />

<strong>and</strong> electronically delayed overload<br />

relay offers full thermal protection –<br />

thermistor-type motor protection.<br />

Earth fault monitoring<br />

always available<br />

This protective function is also offered<br />

by the <strong>SIMOCODE</strong>-<strong>DP</strong> communications-capable<br />

motor protection <strong>and</strong><br />

control device. The internal earth fault<br />

detection can be activated in addition<br />

to the thermistor evaluation.<br />

4<br />

For motors with 3-wire connection,<br />

fault currents which exceed the<br />

current setting I e (during nominal<br />

operation) by 30% can be detected<br />

with the internal earth fault detection.<br />

The <strong>SIMOCODE</strong>-<strong>DP</strong> system is also<br />

suitable for a precise earth fault<br />

detection. A version is available with<br />

external earth fault detection. By<br />

connecting an external summation<br />

current transformer, fault currents of<br />

0.3 A, 0.5 A <strong>and</strong> 1 A can be detected<br />

for both 3 <strong>and</strong> 4-wire motors.<br />

An additional evaluation device is not<br />

required, <strong>and</strong> the space requirement in<br />

the cubicle is further reduced.<br />

<strong>Protection</strong> against stalled rotors<br />

<strong>Protection</strong> against the stalling of<br />

motors during normal operation is<br />

achieved by a comparison of a settable<br />

current limit.<br />

Resettable everywhere – manual,<br />

remote <strong>and</strong> automatic reset<br />

A reset at the device is implemented<br />

with the Test/Reset button. By connecting<br />

a pushbutton to the inputs, via<br />

PROFIBUS-<strong>DP</strong> or via the Test/Reset<br />

button at the operating module, a<br />

remote reset can be implemented. An<br />

automatic reset can also be<br />

configured.<br />

Reduction of variants by large<br />

setting ranges: 0.25 A – 820 A<br />

A current window from 0.25 A to<br />

820 A is covered using only six units.<br />

This reduces product selection – <strong>and</strong><br />

saves on spares costs.<br />

Tripping characteristics for 3-pole load<br />

Tripping time min<br />

s<br />

120<br />

100<br />

50<br />

20<br />

10<br />

5<br />

2<br />

1<br />

50<br />

20<br />

10<br />

5<br />

2<br />

15<br />

10<br />

Class 5<br />

Class 30<br />

25<br />

20<br />

0.6 1 2 5 10x I e<br />

Tripping current (Mean values)<br />

Tolerance < ± 10%<br />

With a tolerance of less than 10%,<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> has an accurate<br />

tripping curve which guarantees an<br />

optimum utilisation of motors.<br />

Long-term stability also contributes to<br />

the high degree of accuracy.<br />

Cost reduction by built-in current<br />

transformers<br />

Current detection is archieved via three<br />

current transformers which are<br />

integrated in the device. This means that<br />

savings are made three ways – i.e.<br />

space, wiring <strong>and</strong> additional device<br />

requirements.<br />

Easy ‘through feed ‘connection<br />

Feeder cables up to 100 A rating can be<br />

easily connected to the <strong>3UF5</strong>0. The<br />

cables are not terminated to the device,<br />

but are fed through 3 integral conduits<br />

in the device housing –<br />

a major saving in installation time.<br />

<strong>Protection</strong> of motors in the EExe range<br />

The <strong>SIMOCODE</strong>-<strong>DP</strong> system complies<br />

to the regulations for overload<br />

protection of explosion-protected<br />

motors of the „increased safety“ type<br />

EExe DIN EN 50019/ DIN VDE0165,<br />

DIN VDE 0170/0171 <strong>and</strong> to the test<br />

regulations of the Federal Institute for<br />

Physics <strong>and</strong> Technology <strong>and</strong> the test<br />

requirements of the Federal Institute<br />

for Physics <strong>and</strong> Technology No. 3.53-<br />

14605/96.<br />

Tripping characteristics for 2-pole load<br />

min<br />

Tripping time<br />

s<br />

120<br />

100<br />

50<br />

20<br />

10<br />

5<br />

2<br />

1<br />

50<br />

20<br />

10<br />

5<br />

2<br />

15<br />

10<br />

Class 5<br />

Class 30<br />

25<br />

20<br />

0.6 1 2 5 10x I e<br />

Tripping current (Mean values)


Wide Scope of <strong>Control</strong> Functions<br />

With the <strong>SIMOCODE</strong>-<strong>DP</strong> system nine<br />

different control functions can be<br />

implemented:<br />

• Overload relay<br />

• Direct starter<br />

• Reversing starter<br />

• Star-delta starter<br />

• Dahl<strong>and</strong>er<br />

• Pole-changing switch<br />

• Slide valve (Encoder)<br />

• Solenoid valve<br />

• SIKOSTART® 3RW22<br />

(Soft starter)<br />

In addition, permanent or nonmaintained<br />

comm<strong>and</strong> mode can be<br />

set. All control functions can be<br />

implemented using the <strong>3UF5</strong>0 basic<br />

unit. If more than four inputs <strong>and</strong> four<br />

outputs are required, an additional<br />

eight inputs <strong>and</strong> four outputs can be<br />

fitted by using an extension module.<br />

Cost reduction by pre-defined<br />

control functions<br />

In the <strong>SIMOCODE</strong>-<strong>DP</strong>, all necessary<br />

interlocking requirements for the<br />

relevant control function (e.g. with<br />

encoders the undelayed deactivation<br />

of the motor in case of an operation of<br />

the limit or torque switch) are implemented.<br />

This offers major advantages:<br />

• Reducing the dem<strong>and</strong>s put on the<br />

user program in the programmable<br />

controller, i.e. fast planning, fewer<br />

possibilities for errors, shorter<br />

program cycle times<br />

• Time-critical functions of the<br />

motor feeder are independent of<br />

the signal process time in the<br />

automation level <strong>and</strong> on the<br />

communication system.<br />

In addition, run time checks can be set<br />

for the start or stop of motors <strong>and</strong> for<br />

the slide valve control functions in<br />

between the limits.<br />

Safety by operator enable <strong>and</strong><br />

manual/automatic switch-over<br />

In the automatic mode, control<br />

comm<strong>and</strong>s (e.g. ON, OFF) are transmitted<br />

to <strong>SIMOCODE</strong>-<strong>DP</strong> via the bus.<br />

<strong>Control</strong> comm<strong>and</strong>s from the switchgear<br />

cubicle (e.g. of the operating<br />

module) or from the local control<br />

station are only possible in this<br />

operating mode if the corresponding<br />

operator enable comm<strong>and</strong>s have been<br />

set.<br />

3/N/PE~ 50/60 Hz 400/230 V<br />

L1<br />

L2<br />

L3<br />

NPE<br />

Q1<br />

1L1<br />

2L1<br />

1N<br />

2N<br />

F11<br />

Q1<br />

RMT<br />

l ><br />

2<br />

3<br />

-K1 -K2<br />

-K3<br />

Overload<br />

Current imbalance<br />

Phase failure<br />

Thermistor<br />

Earth fault<br />

Blocking protection<br />

Current value detection<br />

1<br />

A1A2 T1T2 1 2 3 4 5<br />

230 V AC<br />

<strong>3UF5</strong>0<br />

PROFIBUS-<strong>DP</strong><br />

6 7 8 9 10 11 B A SPE/PE<br />

Ready<br />

Gen. Fault<br />

Test/<br />

Reset<br />

Switching at the<br />

cubicle door via<br />

the <strong>3UF5</strong>2<br />

operating module<br />

ON<br />

OFF<br />

2<br />

3<br />

ON<br />

OFF<br />

Local<br />

1<br />

1U 1V 1W<br />

M<br />

3~<br />

2W<br />

2U<br />

2V<br />

-K1 -K2<br />

-K3<br />

5


If the automatic level switches to<br />

manual operation, or if local control is<br />

activated by means of a local manual/<br />

automatic key switch, the bus control<br />

comm<strong>and</strong>s are ignored <strong>and</strong> the feeder<br />

can now be exclusively controlled via<br />

the operating module or using the local<br />

control station.<br />

Reduction of failure times by<br />

autonomous operation<br />

In case of system failures on the<br />

communication system, <strong>SIMOCODE</strong>-<br />

<strong>DP</strong> automatically switches to manual<br />

mode.<br />

When this occurs, the load is either<br />

switched OFF or the operating state is<br />

maintained. Further control is possible<br />

using the manual mode.<br />

Downtimes in case of failures in the<br />

automation <strong>and</strong> communication level<br />

are considerably reduced: The process<br />

can still be safely continued locally due<br />

to the autonomous structure of the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>.<br />

The process can be resumed however<br />

surely by the self-sufficient structure of<br />

the system <strong>SIMOCODE</strong>-<strong>DP</strong> locally.<br />

It means self-sufficient that all<br />

protective relay for motor <strong>and</strong> control<br />

functions are processed independently<br />

of the automation level in the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>.<br />

Flexibility due to decentralised<br />

signal logic-, delays- <strong>and</strong><br />

conditioning<br />

The great flexibility of the <strong>SIMOCODE</strong>-<br />

<strong>DP</strong> system is especially characterised<br />

by the integrated:<br />

• 3 truth tables<br />

(3 inputs with 1 output each)<br />

• 1 truth table<br />

(5 inputs with 2 outputs)<br />

• 2 timers<br />

(0.5 s...60 min; output behavior:<br />

ON delay, OFF delay, fleeting<br />

NO contact)<br />

• 2 counters<br />

(0...65535)<br />

• 4 elements of signal processing<br />

– Inverted level without memory<br />

– Rising edge with memory<br />

– Falling edge with memory<br />

• Signal conditioning<br />

– 3 flashing modules<br />

– 3 flickering modules.<br />

• 2 elements of non-resetting<br />

onvoltage failure<br />

The inputs <strong>and</strong> outputs of the system<br />

can be assigned to predefined control<br />

functions as well as to the truth tables,<br />

timers <strong>and</strong> counters. Thus, a flexible<br />

use of the predefined control functions<br />

is possible.<br />

The make/break contact behavior of<br />

the outputs is set by the signal<br />

processing modules.<br />

Selective start of the system<br />

After a mains failure, the motor feeders<br />

can be restarted using time-grading.<br />

This makes a fast <strong>and</strong> selective start of<br />

the system possible.<br />

6<br />

<strong>Control</strong> <strong>and</strong> Signalling


Extensive Diagnostics<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> offers a large amount<br />

of operational <strong>and</strong> statistical data on<br />

the feeder, which is available to the<br />

user for visualisation <strong>and</strong> diagnostic<br />

purposes.<br />

This data can be accessed:<br />

• directly at the switchboard via the<br />

LED display of the h<strong>and</strong>-held-unit<br />

plugged into the basic unit or<br />

operator panel, or via a PC with<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Smart.<br />

• via PROFIBUS-<strong>DP</strong>. The data can be<br />

read by the user program <strong>and</strong> it can<br />

be transferred to a corresponding<br />

operator communication <strong>and</strong><br />

monitoring system. Thus, the various<br />

operational <strong>and</strong> statistical information<br />

can be displayed in the control room<br />

• over PROFIBUS-<strong>DP</strong>V1 with a<br />

communications processor which<br />

were in the PC/PU <strong>and</strong> the software<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional<br />

Always informed as to the current<br />

operating state<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> continuously informs<br />

the process engineer about the current<br />

operating state:<br />

• actual phase current in %<br />

• ON/OFF<br />

• Anti-clockwise, clockwise LEFT/<br />

RIGHT<br />

• Fast, slow<br />

• Slide open, closed, moving<br />

• Warning<br />

• Fault.<br />

Reduction of failures by the<br />

signalling of critical operating<br />

states<br />

The settable current limits inform the<br />

process engineer about critical states<br />

in the system. For example, a current<br />

which is below the lower current limit<br />

setting could mean a broken conveyor<br />

belt for example. The overloading of a<br />

mixing machine for example can be<br />

quickly detected by the display of<br />

‘upper current limit exceeded.’ To avoid<br />

an overload trip of the machine, the<br />

process engineer can take precise<br />

steps to change the working process,<br />

such as reducing the amount of<br />

material in the mixer.<br />

Display of other critical operating<br />

states:<br />

• Current imbalance<br />

• Overload warning/trip<br />

• Thermistor motor protection<br />

warning/trip<br />

• Earth fault warning/trip<br />

• Locked rotor protection<br />

• Warning/trip upper/lower current<br />

limit response.<br />

Reduction of maintenance times<br />

Maintenance intervals can be<br />

increased, as all statistical data relating<br />

to the condition of a particular feeder is<br />

transmitted from the <strong>SIMOCODE</strong>-<strong>DP</strong> to<br />

the PLC. <strong>SIMOCODE</strong>-<strong>DP</strong> registers the<br />

number of starts <strong>and</strong> the number of<br />

overload trips, counts the operating<br />

hours <strong>and</strong> calculates the current in %<br />

of the last trip. All data is stored in a<br />

non-volatile memory in <strong>SIMOCODE</strong>-<strong>DP</strong>.<br />

Analogue Current display<br />

For display of analogue current value<br />

through a display device on the panel<br />

door; the <strong>SIMOCODE</strong>-<strong>DP</strong> system is<br />

provided with an external current<br />

transformer (range 0.25 A-820 A/1A).<br />

With this it is also possible for the<br />

systemselector to inform about the<br />

actual current flowing in the motor<br />

feeder.<br />

Self-monitoring<br />

The correct function of the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> processor is<br />

permanently monitored. If there is a<br />

fault, <strong>SIMOCODE</strong>-<strong>DP</strong> switches the<br />

load to the adjustement, safe state<br />

(OFF, or maintain operating state -<br />

monostable or bistable behavior).<br />

Also testable ‘in action’<br />

This function gives <strong>SIMOCODE</strong>-<strong>DP</strong><br />

additional safety <strong>and</strong> better monitoring<br />

features.<br />

The operation of <strong>SIMOCODE</strong>-<strong>DP</strong> can<br />

be checked during running – without<br />

switching off of the motor. This saves<br />

time <strong>and</strong> avoids unnecessary<br />

interruptions of the operation.<br />

Display <strong>and</strong> Diagnoses with Win-<strong>SIMOCODE</strong>-<strong>DP</strong> software<br />

7


Communication –<br />

PROFIBUS-<strong>DP</strong><br />

PC or PU with<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/<br />

Professional<br />

PLC<br />

MMI<br />

with PROFIBUS-<strong>DP</strong>communicationprocessor<br />

PC or PU<br />

PROFIBUS-<strong>DP</strong>V1<br />

Online parametrization,<br />

diagnostics, control<br />

<strong>and</strong> test via acyclical<br />

reading <strong>and</strong> writing<br />

of data<br />

PROFIBUS-<strong>DP</strong><br />

Cyclical exchange of data of control-, <strong>and</strong><br />

signal data. Moreover exchange of diagnostics<br />

by changing <strong>and</strong> parameterization at communication<br />

processor running-up<br />

PC or PU with<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Smart<br />

or H<strong>and</strong>-Held-Unit<br />

PLC Programmable<br />

Logic <strong>Control</strong>ler<br />

MMI Man-Machine<br />

Interface<br />

PU/PC Programming Unit/<br />

Personal Computer<br />

<strong>3UF5</strong>0 <strong>SIMOCODE</strong>-<strong>DP</strong><br />

<strong>SIMOCODE</strong>-<strong>DP</strong> <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>SIMOCODE</strong>-<strong>DP</strong><br />

From point to point,<br />

parametrization, diagnostics,<br />

control <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>and</strong><br />

test via RS-232-Interface<br />

PROFIBUS-<strong>DP</strong> (Process Fieldbus -<br />

Decentralised Peripherals) provides<br />

high-performance communication<br />

between the <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>and</strong> the<br />

automation level. <strong>Control</strong> comm<strong>and</strong>s,<br />

operational data, statistical data <strong>and</strong><br />

parameter data are transmitted via the<br />

two-wire bus cable. There is also the<br />

possibility to use optical link modules<br />

so that the data transmission would be<br />

effected via plastic or glass fibre optic<br />

cables.<br />

Here, the communications processor<br />

(CP/IM) plugged into the programmable<br />

logic controller (PLC) provides the<br />

management of the <strong>SIMOCODE</strong>-<strong>DP</strong><br />

Technical specifications PROFIBUS-<strong>DP</strong><br />

Total stations<br />

Transmission medium<br />

max. distance<br />

Transmission medium<br />

devices connected to the bus <strong>and</strong><br />

forms the interface to the user<br />

program. Further processing of the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> data, i.e. the integration<br />

into the supervisory control<br />

system <strong>and</strong> any subsequent<br />

processing is h<strong>and</strong>led by the user<br />

program.<br />

Short transmission times<br />

To achieve short transmission times,<br />

PROFIBUS-<strong>DP</strong> features several data<br />

channels. Up to 12 bytes can be sent<br />

cyclically from <strong>SIMOCODE</strong>-<strong>DP</strong><br />

to the automation level <strong>and</strong> up to 4<br />

bytes can be returned.<br />

30 <strong>SIMOCODE</strong>-<strong>DP</strong> per segment;<br />

with RS485 repeaters 122 <strong>SIMOCODE</strong>-<strong>DP</strong><br />

shielded, twisted, pair cable or plastic fibre<br />

glass fibre optic cable<br />

9.6 km for two-wire, 100 km for glass fibre<br />

optic cable, 425 m for plastic fibre optic cable<br />

PROFIBUS-<strong>DP</strong> (EN 50170), PROFIBUS-<strong>DP</strong>V1<br />

The diagnostic data of 20 bytes is<br />

only sent to the automation level of<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> in case of a change,<br />

i.e. the diagnostic channel is eventcontrolled.<br />

213 bytes of parameter<br />

data are only sent to the <strong>SIMOCODE</strong>-<br />

<strong>DP</strong> during the start-up of the<br />

automation system.<br />

Communication –<br />

PROFIBUS-<strong>DP</strong>V1<br />

The PROFIBUS-<strong>DP</strong> st<strong>and</strong>ard has been<br />

extended around acyclic reading <strong>and</strong><br />

writing from data <strong>and</strong> with PROFIBUS-<br />

<strong>DP</strong>V1 this can be achieved. Acyclic<br />

reading <strong>and</strong> writing means for<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>, that from a central<br />

workstation over PROFIBUS-<strong>DP</strong>V1<br />

with a PC or PU fitted with<br />

communicatios processor <strong>and</strong> the<br />

software Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/<br />

Professional all control, diagnosis,<br />

test <strong>and</strong> parameter data can be<br />

read <strong>and</strong> written. The PROFIBUS-<strong>DP</strong>V1<br />

is a secondary protocol for the<br />

PROFIBUS-<strong>DP</strong>, <strong>and</strong> it does not<br />

require additional lines or interfaces.<br />

Transmission speed<br />

9.6, 45.45, 93.75, 187.5, 500, 1500 kBit/s<br />

8


The communication processors<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> can work with any<br />

st<strong>and</strong>ard <strong>DP</strong> master which is able to<br />

read GSD files <strong>and</strong> which is capable<br />

of processing the following amounts<br />

of data:<br />

• <strong>Control</strong> data 1 or 4 byte cyclic from<br />

the <strong>DP</strong> master to <strong>SIMOCODE</strong>-<strong>DP</strong><br />

• Signalling data 1/4/12 byte cyclic<br />

from <strong>SIMOCODE</strong>-<strong>DP</strong> to the <strong>DP</strong><br />

master<br />

• Diagnosis data 20 byte acyclic from<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> to the <strong>DP</strong> master<br />

• Parameter data 213 byte.<br />

For acyclic reading <strong>and</strong> writing from<br />

data the communication processor<br />

must be able the st<strong>and</strong>ard extension<br />

PROFIBUS-<strong>DP</strong>V1.<br />

Bus system exp<strong>and</strong>able<br />

If no bus system is applicable at the<br />

today‘s point in time, then can be<br />

easily re-tooled this later. Because<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> processes all<br />

protective relay for motor <strong>and</strong> control<br />

functions independently of the<br />

automation level.<br />

Naturally also <strong>SIMOCODE</strong>-<strong>DP</strong> is<br />

applicable as self-sufficient protective<br />

realy for motor <strong>and</strong> controller without<br />

PROFIBUS-<strong>DP</strong> genereally.<br />

‘OUT’ without<br />

PROFIBUS-<strong>DP</strong>.<br />

Siemens <strong>and</strong> 400 other<br />

manufacturers <strong>and</strong> users<br />

of communications-capable<br />

devices fully support the<br />

EN 50170 PROFIBUS<br />

st<strong>and</strong>ard. All are members<br />

of the PROFIBUS user<br />

organisation.<br />

Today, there are more<br />

than 700 PROFIBUS-related<br />

products.<br />

See for yourself. You can<br />

get information on the highperformance<br />

PROFIBUS<br />

simply by requesting the<br />

information diskette of the<br />

PROFIBUS user<br />

organisation or via the<br />

Internet. This will give you<br />

an immediate overview of<br />

all relevant products.<br />

9


Simple Start-Up<br />

PC or PU with<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/<br />

Professional<br />

PLC<br />

MMI<br />

with PROFIBUS-<strong>DP</strong>-<br />

Communication<br />

Processor<br />

PROFIBUS-<strong>DP</strong>V1<br />

Online Parameterization<br />

PROFIBUS-<strong>DP</strong><br />

Parameter data is written<br />

on every starting cycle of<br />

the communication processor<br />

PC or PU with<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Smart<br />

or h<strong>and</strong>-held-unit<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>SIMOCODE</strong>-<strong>DP</strong><br />

Point to point parameterization<br />

over <strong>SIMOCODE</strong>-<strong>DP</strong> system<br />

interface<br />

Möglichkeiten der Parametrierung<br />

Integrating many slaves using only<br />

one software<br />

The integration of <strong>SIMOCODE</strong>-<strong>DP</strong> into<br />

a PROFIBUS-<strong>DP</strong> network is easily<br />

achieved via the parameterising <strong>and</strong><br />

service programme of COM<br />

PROFIBUS Windows 3.1 or of<br />

SIMATIC S7: Step 7 Windows 95.<br />

Call up the parameterisation <strong>and</strong><br />

service program COM PROFIBUS -<br />

open the master system under File<br />

„New“ <strong>and</strong> add the individual slaves<br />

e.g. the <strong>SIMOCODE</strong>-<strong>DP</strong>, the<br />

PROFIBUS-<strong>DP</strong> interface for the circuitbreaker<br />

or the micro master -<br />

everything with just one software.<br />

Double-click on the <strong>SIMOCODE</strong>-<strong>DP</strong><br />

icon <strong>and</strong> now the required parameters<br />

for the motor feeder can be set.<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> – Online<br />

Parametrization<br />

Now the user can parameterize<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> „Online“ from a<br />

central workstation through<br />

PROFIBUS-<strong>DP</strong>.<br />

So, what is meant by „Online“?<br />

Previously it was possible to transfer<br />

the slave parameters through<br />

PROFIBUS-<strong>DP</strong> only in the start-up<br />

phase of the communication processor.<br />

But now exists the possibility that<br />

besides normal cyclic data exchange,<br />

acyclic reading <strong>and</strong> writing of<br />

parameters is also possible. This<br />

means now <strong>SIMOCODE</strong>-<strong>DP</strong> can be<br />

parameterized, controlled, observed<br />

<strong>and</strong> tested from a central project<br />

engineering workstation by using Win-<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional software.<br />

This central project engineering<br />

workstation should be equipped with a<br />

personnel computer (PC) or a<br />

programming unit (PU) with integrated<br />

PROFIBUS-<strong>DP</strong> communication<br />

processor. Another possibility is to use<br />

a Siemens PU, with integrated MPI<br />

interface <strong>and</strong> access the PROFIBUS-<br />

<strong>DP</strong> directly.<br />

Reduced comissioning time<br />

Now its not required to run around<br />

from switch room <strong>and</strong> parametrize the<br />

motor feeders. All <strong>SIMOCODE</strong>-<strong>DP</strong><br />

connected to PROFIBUS-<strong>DP</strong> can be<br />

parametrized from a central place.<br />

Moreover all parameters can also be<br />

read <strong>and</strong> written by that.<br />

Increased system availability<br />

In the past changing of parameters<br />

meant system deadlock. With Win-<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional the<br />

parameters in <strong>SIMOCODE</strong>-<strong>DP</strong> can be<br />

modified „Online“ through PROFIBUS-<br />

<strong>DP</strong> – wihtout bringing the system to a<br />

halt.<br />

10


„Totally Integrated“ in SIMATIC S7,<br />

C7, M7, PCS7 – OM-<strong>SIMOCODE</strong>-<strong>DP</strong><br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional is<br />

„Totally Integrated“ in SIMATIC S7/C7/<br />

M7 as well as PCS7. The call is made<br />

by STEP 7 from HW-Config. The OM-<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> therby implements<br />

the data interface.<br />

This results in a unique possibility; that<br />

only with one software package one<br />

can write the PLC user programme,<br />

configure PROFIBUS-<strong>DP</strong> <strong>and</strong><br />

parameterize <strong>SIMOCODE</strong>-<strong>DP</strong> <strong>3UF5</strong> –<br />

the communication capable motor<br />

protection <strong>and</strong> control device. Use of<br />

different complex software packages is<br />

omitted thereby.<br />

Totally Integrated in SIMATIC S7/M7/C7/PCS7<br />

A plus for commisioning<br />

Another advantage of the <strong>SIMOCODE</strong>-<br />

<strong>DP</strong> system is that a motor feeder can<br />

be tested during the commisioning<br />

stage with the Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/<br />

Professional software. This means,<br />

there lies a possibility, that one can<br />

switch on <strong>and</strong> off from a central<br />

workstation <strong>and</strong> also set the Testbits<br />

<strong>and</strong> enquire about the device state.<br />

Interconnectivity from <strong>SIMOCODE</strong>-<strong>DP</strong> to a PROFIBUS-<strong>DP</strong> network<br />

Parameterization with Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional<br />

11


Price Advantage with <strong>SIMOCODE</strong>-<strong>DP</strong><br />

Figure 1 shows the configuration of a<br />

typical communications-capable motor<br />

feeder with overload relay, thermistor<br />

motor protection device, earth fault<br />

detection, current value transmission<br />

via A/D converters <strong>and</strong> a decentralised<br />

peripheral system for the bus<br />

connection.<br />

Figures 2 <strong>and</strong> Figure 3 show the motor<br />

branch of the future.<br />

Reduced number of products<br />

cover the entire range<br />

For the complete control <strong>and</strong><br />

monitoring including connection to the<br />

PROFIBUS-<strong>DP</strong>, only <strong>SIMOCODE</strong>-<strong>DP</strong> is<br />

required. This means that no additional<br />

overload relays, thermistor evaluation<br />

devices etc. need to be installed.<br />

Reduction of the scope of wiring<br />

between field <strong>and</strong> control level<br />

Communication between the field<br />

level <strong>and</strong> the higher automation level<br />

(PLC or process control system DCS)<br />

is normally implemented via coupling<br />

devices <strong>and</strong> point-to-point connections<br />

to input <strong>and</strong> output modules of the<br />

PLC or DCS. With the application of<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>, the scope of wiring is<br />

reduced to a minimum - A two-wire<br />

PROFIBUS-<strong>DP</strong> cable for up to 100<br />

motor feeder; Coupling devices <strong>and</strong><br />

input/output modules, cable gallery are<br />

not required.<br />

Reduction in wiring costs in<br />

the field level<br />

In the case of the reverser starter<br />

(figure 3) no electrical interlocking is<br />

required, <strong>and</strong> no time-delay relay which<br />

prevents a direct switch-over from<br />

clockwise to anti-clockwise rotation is<br />

necessary. Everything is implemented<br />

with <strong>SIMOCODE</strong>-<strong>DP</strong>.␣ The only thing<br />

required is to set the desired switchover<br />

delay time<br />

Without <strong>3UF5</strong><br />

With <strong>3UF5</strong><br />

-Q1<br />

-K1<br />

3UL22<br />

-K2<br />

Earth fault<br />

detection<br />

3UL21<br />

Current value<br />

transmission<br />

–<br />

4...20 mA<br />

–<br />

-Q1<br />

-K1 -K2<br />

Overload<br />

Current imbalance<br />

Phase failure<br />

Earth fault protection<br />

Thermistor<br />

Blocking protection<br />

Current value detection<br />

Overload relay<br />

3RU50<br />

PROFIBUS-<strong>DP</strong><br />

Figure 1: Well-tried technology<br />

12<br />

3UN21<br />

Thermistor<br />

motor protection<br />

M<br />

3~<br />

DI AI DO<br />

Decentralized peripherals<br />

M<br />

3~<br />

Figure 2: <strong>Motor</strong> branch of the future


L1<br />

L2<br />

L3<br />

N<br />

PE<br />

3/N/PE~ 50/60 Hz<br />

400/230 V<br />

Q1<br />

1L1<br />

1N<br />

2L1<br />

2N<br />

F11<br />

Q1<br />

RMT<br />

-K1 -K2<br />

1<br />

2<br />

4<br />

l ><br />

2<br />

4<br />

Overload<br />

Current unbalance<br />

Phase failure<br />

Thermistor<br />

Earth fault<br />

Blocking protection<br />

Current value detection<br />

A1 A2 T1T2 1 2 3 4 5<br />

230 V AC<br />

<strong>3UF5</strong>0<br />

PROFIBUS-<strong>DP</strong><br />

6 7 8 9 10 11 B A SPE/PE<br />

Ready<br />

Gen. Fault<br />

Test/<br />

Reset<br />

Anti-clockwise<br />

Clockwise<br />

Off<br />

Local<br />

M<br />

3~<br />

-1<br />

-K1 -K2<br />

Figure 3: Reversing starter with <strong>SIMOCODE</strong>-<strong>DP</strong><br />

As all functions are integrated into one<br />

device, the following savings are<br />

possible.<br />

Savings possible:<br />

device variants in<br />

the motor feeders<br />

space requirement<br />

in the cubicle<br />

the wiring cost<br />

between control level<br />

<strong>and</strong> field level<br />

scope of wiring<br />

in the unit control<br />

level<br />

start-up<br />

times<br />

spares<br />

costs<br />

13


Modular <strong>Device</strong> Configuration<br />

The modular configuration of the<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> system means that it<br />

can be used as a protection <strong>and</strong><br />

control device for feeders. The system<br />

consists of the following components:<br />

<strong>3UF5</strong>0 basic unit<br />

The basic unit with four inputs <strong>and</strong><br />

four outputs implements all protection<br />

<strong>and</strong> control functions autonomously,<br />

<strong>and</strong> provides connection to the<br />

PROFIBUS-<strong>DP</strong>.␣ The four inputs are fed<br />

by the internal 24 V DC power supply.<br />

The extension module, the operating<br />

module, the manual operating device<br />

or the PC can be connected via the<br />

system interface. The basic unit is<br />

produced with three different control<br />

supply voltage<br />

(24 V DC, 115 V AC, 230 V AC).<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong><br />

Runs on any AT-compatible PC under<br />

Windows 95 or Windows NT. For startup,<br />

diagnostics <strong>and</strong> maintenance.<br />

Manual control (ON, OFF, ...)<br />

Diagnostics (current display, fault, ...)<br />

Parameterization (address, baud rate,<br />

set current, control function, ...)<br />

Includes Online Help <strong>and</strong> parameter<br />

data examples.<br />

<strong>3UF5</strong>1 extension module<br />

The extension module additionally<br />

provides eight inputs <strong>and</strong> four outputs<br />

to the system. The device itself is fed<br />

by the basic unit. The eight inputs<br />

must be connected to an external<br />

voltage supply. Here, there are three<br />

different voltage versions (24 V DC,<br />

115 V AC, 230 V AC). The connection to<br />

the basic unit <strong>and</strong> the connection to<br />

the operating module, to the manual<br />

operating device or to the PC is via the<br />

system interface.<br />

<strong>3UF5</strong>2 operating module<br />

For manual control of a drive in the<br />

cubicle. Can be connected to the basic<br />

unit <strong>and</strong> to the extension module.<br />

Power supply from the basic unit.<br />

Connection possibilities for the manual<br />

operating device or PC. Installation in<br />

the front panel or in the IP 54 cubicle<br />

door.<br />

Three buttons can be freely<br />

parameterised. Six signalling LEDs<br />

can be freely parameterised.<br />

14


Connection of a thermistor sensor circuit<br />

for optional thermistor-type motor<br />

Connection of a summation current<br />

transformer for earth fault monitoring<br />

Connection of control<br />

supply voltage<br />

- 24 V DC<br />

- 115 V AC<br />

- 230 V AC<br />

3 LED displays<br />

<strong>Device</strong> test, manual reset<br />

- Automatic reset parameterisable<br />

- Remote reset via bus or input<br />

3 + 1 relay outputs:<br />

- Function assignment<br />

parameterizable<br />

<strong>System</strong> interface<br />

- Connection to basic unit<br />

- Power supply from basic unit<br />

3 + 1 outputs:<br />

- Function assignment<br />

parameterisable<br />

2 status LEDs<br />

3 LED displays<br />

Function assignment<br />

parameterisable<br />

<strong>Device</strong> test<br />

Manual reset<br />

A1 A2 T1 T2 1 2 3 4 5<br />

AC 230V I1 I2 I3 I4 24VDC<br />

G/9520<br />

Ready<br />

Bus<br />

Gen. Fault<br />

25...100A<br />

Test/<br />

Reset<br />

PROFIBUS-<strong>DP</strong><br />

<strong>3UF5</strong>021-3AJ00-1<br />

01 02 03 03 PROFIBUS-<strong>DP</strong><br />

Sys.<br />

3UFS<br />

6 7 8 9 10 11 B A SPE/PE<br />

20 21 22 23 24 25 26 27 28<br />

15 16 17 18 19 10 11 12<br />

Sys.<br />

3UFS<br />

G/9520<br />

05 06 07 08<br />

Sys.<br />

3UFS<br />

<strong>3UF5</strong>100-0XX00-0AA0<br />

30 31 32 33 34 35 PE<br />

Ready<br />

Gen. Fault<br />

Test/<br />

Reset<br />

4 optocoupled inputs:<br />

- 24 V DC, internally supplied<br />

- Function assignment<br />

parameterisable<br />

<strong>System</strong> interface<br />

- Connection of extension<br />

module, operating module,<br />

manual operating device or PC<br />

PROFIBUS-<strong>DP</strong> bus connection<br />

- St<strong>and</strong>ard 9-pole SUB-D socket<br />

- Terminals, e.g. for drawout unit<br />

design<br />

8 optocupled inputs:<br />

- 24 V DC, 115 V AC<br />

230 V AC, externally supplied<br />

- Function assignment<br />

parameterisable<br />

<strong>System</strong> interface<br />

- Connection of<br />

operating module,<br />

manual operating device<br />

or PC<br />

3 buttons,<br />

function assignment<br />

parameterisable<br />

3 LED displays<br />

function assignment<br />

parameterisable<br />

9-pole SUB-D socket<br />

for the connection of the<br />

manual operating device<br />

or PC<br />

3WX36 manual operating device<br />

This can be connected to the basic<br />

unit, to the extension module or to the<br />

operating module. For commisioning,<br />

diagnostics <strong>and</strong> maintenance. Manual<br />

control (ON, OFF, ...) Diagnosis<br />

(Current display, fault, ...)<br />

Parameterisation (address,<br />

baud rate, set current, control<br />

function, ...)<br />

OM-<strong>SIMOCODE</strong>-<strong>DP</strong><br />

STEP 7-Object-Manager to call Win-<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional in STEP 7<br />

Connection cables with plugs<br />

Connection between basic unit,<br />

extension module or operating<br />

module.<br />

Bus terminal/bus termination<br />

modules<br />

If the PROFIBUS-<strong>DP</strong> is connected to<br />

the basic unit, the st<strong>and</strong>ard 9-pole Sub-<br />

D plugs with built-in bus terminating<br />

resistor can be used. Especially for the<br />

application of <strong>SIMOCODE</strong>-<strong>DP</strong> in <strong>Motor</strong><br />

<strong>Control</strong> Centers (MCC drawout unit<br />

design) there is a bus termination<br />

module with built-in power supply. This<br />

guarantees that even the last unit in<br />

the bus can be removed without any<br />

impairment of the data flow.<br />

Operating manual<br />

A manual for the <strong>SIMOCODE</strong>-<strong>DP</strong><br />

system is available which describes<br />

each detail of the functionality of<br />

<strong>SIMOCODE</strong>-<strong>DP</strong>. It is intended as an aid<br />

for project planning <strong>and</strong> system startup<br />

<strong>and</strong> it features a comprehensive<br />

description of the PROFIBUS-<strong>DP</strong><br />

communications interface <strong>and</strong> project<br />

examples.<br />

15


SIVACON – The Communications-Capable<br />

Low-Voltage Switchgear<br />

As well as the communicationscapable<br />

3WN6 circuit-breakers <strong>and</strong><br />

AS-Interface modules, <strong>SIMOCODE</strong>-<strong>DP</strong><br />

now provides another communications<br />

module for low-voltage switchgear.<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> can be used in<br />

SIVACON® for the control of all<br />

feeders in both fixed <strong>and</strong> drawout<br />

design.<br />

High availability - no problem with<br />

SIVACON drawout design<br />

SIVACON drawout design enables the<br />

system operator to adapt quickly to<br />

changing system requirements.<br />

With the integration of <strong>SIMOCODE</strong>-<strong>DP</strong><br />

directly into the drawout units, a clear<br />

connection to the feeder <strong>and</strong> the<br />

corresponding <strong>SIMOCODE</strong>-<strong>DP</strong> is<br />

reached. A replacement of drawout<br />

units is possible without interruption of<br />

the bus connection.<br />

Technical configuration of the<br />

SIVACON switchgear with<br />

<strong>SIMOCODE</strong>-<strong>DP</strong><br />

The <strong>3UF5</strong>2 operating module is always<br />

accessible from the front <strong>and</strong> is<br />

situated in the front panel of the<br />

relevant drawout unit.<br />

The <strong>3UF5</strong>0 basic unit with the integrated<br />

current transformers is built into<br />

the inside of the drawout units.<br />

Each feeder can be adjusted <strong>and</strong><br />

controlled autonomously at the<br />

switchboard by connecting the manual<br />

operating device or a PC with the WIN-<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> software to the<br />

operating module integrated into the<br />

front panel. In addition, all operation,<br />

diagnostic <strong>and</strong> statistical data<br />

determined by <strong>SIMOCODE</strong>-<strong>DP</strong> can be<br />

read.<br />

16


Technical Specification<br />

<strong>3UF5</strong>0 basic unit, <strong>3UF5</strong>1 extansion module, <strong>3UF5</strong>2 operator panel, 3WX3G h<strong>and</strong>-held-unit<br />

Permiss. ambient/storage temperature -25 °C to +60 °C/ -40 °C to +80 °C<br />

Site altitude<br />

up to 2000 m above sea level<br />

Degree of protection (in acc. IEC 529) IP 20 max. setting curent I e w 100 A; IP 00 max. setting current I e > 100 A;<br />

Shock resistance (sinewave)<br />

Mounting position<br />

Mounting<br />

10 g/5 ms<br />

free choice<br />

max. setting current I e w 100 A: snap-on mounting onto 35 mm top-hat rail or screw fixing<br />

with insertion clip<br />

max. setting current I e > 100 A: screw fixing directly to contactor of srewfiring<br />

EMC interference immunity Conducted interference, burst in acc. with IEC 61000-4-4: 2 kV (corr. to severity 3)<br />

Conducted interference, surge in acc. with IEC 61000-4-5: 2 kV (corr. to severity 3)<br />

Electrostatic discharge in acc. with IEC 61000-4-2: 8 kV (corr. to severity 3)<br />

Field-related interference in acc. with IEC 61000-4-3: 3 V/m (corr. to severity 2)<br />

(see special notes in the manual)<br />

EMC emitted interference Limit value class A in acc. with EN 55011 1991<br />

<strong>3UF5</strong>0 basic unit<br />

Display<br />

green LED „Ready“<br />

green LED „Bus“<br />

red LED „General Fault“<br />

Buttons<br />

Test/Reset<br />

<strong>System</strong> interface<br />

PROFIBUS-<strong>DP</strong> interface<br />

Main circuit<br />

Permanent light “Ready“<br />

Off “no control supply voltage“ or “function test negative, device blocked“<br />

Permanent light “Bus operation“<br />

Permanent light/flashing light “Branch fault“,␣␣e.g. overload tripping<br />

By pressing the Test/Reset button the device can be reset after a tripping or it can be<br />

tested as to its functionality<br />

RS232 for connection of extension module, operating module, manual operating device or PC<br />

RS485 for connection of the PROFIBUS-<strong>DP</strong> line via terminals (connection cross-section<br />

as with auxiliary contactors or via 9-pole SUB-D socket)<br />

Rated insulation voltage U I 690 V for blank/uninsulated conductor (<strong>3UF5</strong>001 - <strong>3UF5</strong>021)<br />

} for pollution degree 3<br />

1000 V for insulated conductor <strong>3UF5</strong>031 - <strong>3UF5</strong>051<br />

1000 V for blank/uninsulated conductor (<strong>3UF5</strong>031 <strong>and</strong> <strong>3UF5</strong>051)<br />

Rated impulse strength U imp<br />

6 kV <strong>3UF5</strong>001 - <strong>3UF5</strong>021<br />

8 kV <strong>3UF5</strong>031 - <strong>3UF5</strong>051<br />

Rated frequency <strong>and</strong> current type<br />

50 Hz/60 Hz; three-phase AC<br />

Diameter of push-through openings 10 mm (devices with max. setting current I e w 25 A)<br />

(max. I e w 100 A) 15 mm (devices with max. setting current I e 100 A)<br />

for devices with setting current I e >100 A: mounting with connection bars<br />

Busbar connection (Current range) 50 to 205 A 125 to 500 A 200 to 820 A<br />

Torque M8: 10 to 14 Nm M10: 14 to 24 Nm M10: 14 to 24 Nm<br />

M12: 20 to 35 Nm<br />

Flexible with cable lug 35 to 95 mm 2 50 to 240 mm 2 50 to 240 mm 2<br />

Str<strong>and</strong>ed with cable lug 50 to 120 mm 2 70 to 240 mm 2 70 to 240 mm 2<br />

Auxiliary circuit/control circuit<br />

Rated control supply voltage U e AC 50/60 Hz, 115 V <strong>and</strong> 230 V DC 24 V<br />

Working range AC 50/60 Hz, 0.85 to 1.1 U s DC 24 V, 0.85 to 1.2 U s (DIN 19240)<br />

Power consumption AC 50/60 Hz, 5 VA DC 24 V, 5 W<br />

Mains buffering time<br />

200 ms<br />

Rated insulation voltage U I 300 V (for pollution degree 3)<br />

Rated impulse strength U imp<br />

4 kV<br />

Outputs<br />

4 mono-/bistable outputs depending on the variant<br />

Auxiliary contacts of outputs<br />

3 outputs thereof are connected to a common potential <strong>and</strong> 1 is connected separately; can be freely assigned to the<br />

control functions (e.g. for activation of mains <strong>and</strong> star-delta contactor as well as signalling of the operating state)<br />

Upstream short-circuit protection for<br />

Fuse-links utilization category gL/gA 6 A, fast 10 A<br />

auxiliary contacts (outputs)<br />

Circuit-breaker 1.6 A, C characteristic<br />

Rated continuous current<br />

5 A<br />

17


Rated operating current<br />

(Switching capacity)<br />

Inputs<br />

AC-15; 6 A/24 V; 6 A/120 V; 3 A/230 V<br />

DC-13; 2 A/24 V; 0.55 A/60 V; 0.25 A/125 A<br />

4, own power supply due to device electronics (24 V DC); inputs connected to a common potential for the coupling<br />

of process signals such as e.g. local control station, key-operated switches or limit switches<br />

Thermistor motor protection<br />

Total cold resistance: 1.5 kO<br />

(PTC thermistor detector)<br />

Operating value: 2.7... 3.1 kO; release value: 1.5...1.65 kO<br />

Connection cross-section<br />

Torque<br />

0.8 to 1.2 Nm<br />

single-core <strong>and</strong> str<strong>and</strong>ed 1 x (0.5 to 4.0) mm 2 ; 2 x (0.5 to 2.5) mm 2<br />

flexible with/without conductor barrel 1 x (0.5 to 2.5) mm 2 ; 2 x (0.5 to 1.5) mm 2<br />

<strong>3UF5</strong>1 extension module<br />

<strong>System</strong> interface<br />

Auxiliary circuit/control circuit<br />

Rated insulation voltage U I 300 V (for pollution degree 3)<br />

Rated impulse strength U imp<br />

Outputs<br />

Auxiliary contacts of outputs<br />

Upstream short-circuit protection for<br />

auxiliary contacts (outputs)<br />

Rated continuous current<br />

Rated operating current<br />

(Switching capacity)<br />

Inputs<br />

RS232 as connection to the basic unit <strong>and</strong><br />

for connection of operating module, manual operating device or PC<br />

4 kV<br />

4 bistable outputs<br />

3 outputs thereof are connected to a common potential <strong>and</strong> 1 is connected separately;<br />

can be freely assigned to the control functions (e.g. for activation of mains <strong>and</strong> star-delta contactor as well as<br />

signalling of the operating state)<br />

Fuse-links utilization category gL/gA 6 A, fast 10 A<br />

Circuit-breaker 1.6 A, C characteristic<br />

5 A<br />

AC-15; 6 A/24 V; 6 A/120 V; 3 A/230 V<br />

DC-13; 2 A/24 V; 0.55 A/60 V; 0.25 A/125 A<br />

Connection cross-section<br />

Torque<br />

0.8 to 1.2 Nm<br />

single-core <strong>and</strong> str<strong>and</strong>ed 1 x (0.5 to 4.0) mm 2 ; 2 x (0.5 to 2.5) mm 2<br />

flexible with/without conductor barrel 1 x (0.5 to 2.5) mm 2 ; 2 x (0,5 to 1.5) mm 2<br />

<strong>3UF5</strong>2 operating module<br />

Displays<br />

green LED „Ready“<br />

8 externally supplied 24 V DC, 115 V AC, 230 V AC depending on the variant, inputs connected to a common potential<br />

for the coupling of process signals such as e.g. local control station, key-operated switches or limit switches<br />

Permanent light “Ready“<br />

OFF “no control supply voltage“ or “function test negative, device blocked“<br />

red LED „General Fault“<br />

Permanent light/flashing light “Branch fault“,␣␣e.g. overload tripping<br />

3 green und 3 yellow LEDs Feeder-specific displays can be freely assigned, e.g. manual/automatic mode,<br />

tripping, thermistor motor protection, clockwise/anti-clockwise rotation etc.<br />

Operating buttons<br />

Keys<br />

Test/Reset<br />

<strong>System</strong> interface<br />

For controlling the motor feeder, freely programmable<br />

By pressing the Test/Reset button the device can be reset after a trip<br />

or it can be tested as to its functionality<br />

RS232 for connection of manual operating device or PC<br />

3WX36 manual operating device<br />

Displays<br />

Keys<br />

Power supply<br />

2 lines, 16 letters.<br />

3 function keys, 4 cursor keys, 1 acknowledgement key<br />

4 batteries, type 1.5 V round cell<br />

18


Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional <strong>3UF5</strong>710<br />

Parameterization, Operate, Observe, Testing over <strong>DP</strong>V1<br />

Parameterization, Operate, Observe, Testing over RS-232<br />

Target system<br />

SIMATIC S5<br />

Automation <strong>System</strong><br />

SIMATIC S7/M7/C7/PCS7<br />

foreign system<br />

PC/PU requirements<br />

sea PC-/PU requirements Windows 95 or Windows NT ≥ 4.0<br />

free capacity harddisk<br />

minimum 10 MB<br />

STEP 7 requirements<br />

STEP 7 is not an absolute necessity. But when it is already installed it is necessary<br />

to have a Version ≥ 4.0. (These version contain the compatible support software for <strong>DP</strong>V1<br />

otherwise it will be directly loaded through Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Professional)<br />

PC/PU interface requirements<br />

PU integrated with MPI-SS or MPI-Board<br />

CP 5411, CP 5412 (A2), CP 5511 or CP 5611<br />

RS-232 with compatible interface cable 3RW29 20-1DA00<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> requirements <strong>DP</strong>V1-delivery date E10 (from June 98)<br />

Win-<strong>SIMOCODE</strong>-<strong>DP</strong>/Smart <strong>3UF5</strong>711<br />

PC/PU requirements<br />

sea PC-/PU preconditions Windows 95 or Windows NT ≥ 4.0<br />

free capacity harddisc<br />

minimum 10 MB<br />

PC/PU interface requirements<br />

OM-<strong>SIMOCODE</strong>-<strong>DP</strong> <strong>3UF5</strong>712<br />

SIMATIC requirements<br />

RS-232 with compatible interface cable 3RW29 20-1DA00<br />

SIMATIC S7/M7/C7/PCS7<br />

STEP 7 requirements Version ≥ 4.0<br />

PC/PU requirements Software STEP 7<br />

<strong>SIMOCODE</strong>-<strong>DP</strong> requirements <strong>DP</strong>V1 – delivery date E10 (from June 98)<br />

19


www.ad.siemens.de<br />

Automation <strong>and</strong> Drives Group<br />

Low Voltage <strong>Control</strong>s <strong>and</strong> Distribution Division<br />

P.O. Box 32 40, D-91050 Erlangen<br />

Siemens Aktiengesellschaft<br />

Subject to change without prior notice 4/98<br />

Order No. E20001-A230-P302-X-7600<br />

Printed in Germany<br />

Dispostelle 27615/SEK 30197<br />

21C7128 CPSM.52.1.03 PS 07013.0

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