REFUsol Photovoltaik-Wechselrichter AE ParkControl ... · BA_AE ParkControl_V01.3_EN 6 Contractual...

AE ParkControl – ParkRegulation

Operating Instructions

Version 01.3

REFUsol – Photovoltaik-Wechselrichter REFUsol 333K

Bedienungsanleitung

Version 01 (Vorläufig 06.06.2012)

BA_AE ParkControl_V01.3_EN

2

Title AE ParkControl – ParkRegulations

Type of Documentation Service Instructions

Purpose of Documentation This Service instructions is a summary of all the necessary information for the use of AE ParkControl.

Released By

REFUsol GmbH

Uracher Street 91 D-72555 Metzingen www.refusol.com

Legal Reservations

All data in this documentation was created with great care and checked. Despite that there could be errors or deviations because of the technical progress which could not be completely excluded. This does not pose any threat to the completeness of the document. The current updated version can be obtained under www.refusol.com.

Copyright

The data contained in this documentation is the property of REFUsol GmbH. The use as well as the publishing of this documentation even in extracts, requires the written approval of REFUsol GmbH.

Trademark AE ParkControl® is a registered mark of REFUsol GmbH.

Marking Output Position

Remarks

BA_AE ParkControl _V01.3_EN

01/2014/MR

http://www.refusol.com/



3

Index of Contents

1 0BSuggestions on Safety .........................................................................................................................5

2 2BIntroduction ..........................................................................................................................................7

2.1 On this Handbook ......................................................................................................................7

2.2 Scope of Supply .........................................................................................................................8

3 System Overview ..................................................................................................................................9

3.1 Overview of the Variants ............................................................................................................9

3.2 System Structure ..................................................................................................................... 10

4 Functional Description ....................................................................................................................... 14

4.1 Power Reduction ...................................................................................................................... 14

4.2 Reactive Power Control............................................................................................................ 15

4.3 Registering the Measurement................................................................................................... 16

4.4 Local Ethernet-Communication ................................................................................................ 16

4.5 Telecontrol Communication ...................................................................................................... 18

4.6 Sleep Mode Detection .............................................................................................................. 19

4.7 Datalogging.............................................................................................................................. 20

4.8 Error Reaction .......................................................................................................................... 21

5 6BApplication Planning .......................................................................................................................... 23

5.1 Ethernet-Communication and Integration in IT-Structure........................................................... 24

5.2 Data for IBS-Preparation .......................................................................................................... 25

6 7BExample of Wirings and Suggestions on Routing ............................................................................ 26

6.1 Example of Wiring .................................................................................................................... 27

6.1.1 Example of Wiring AE ParkControl Basic.................................................................................. 27

6.1.2 Example of Wiring AE ParkControl Classic ............................................................................... 28

66.1.3 8BExample of Wiring AE ParkControl Advanced........................................................................... 29

6.1.4 Example of Wiring AE ParkControl Professional ....................................................................... 30

6.2 Suggestions and Guidelines for Routing ................................................................................... 32

6.2.1 Routing Suggestions AE ParkControl – Power Supply .............................................................. 32

6.2.2 Connecting the S7-1200 ........................................................................................................... 32

6.2.3 Connection of SB 1232 AQ ...................................................................................................... 34

6.3 Connecting the CB 1241 RS485 ............................................................................................... 35

Connection of CB 1241 RS485 ............................................................................................................. 35

6.3.1 Connection of SENTRON PAC4200 ......................................................................................... 36

7 Parameterizing .................................................................................................................................... 37

9B7.1 System Pre Conditions ............................................................................................................. 37

7.2 Preparation .............................................................................................................................. 38

7.3 Parameterizing of the SENTRON PAC4200 ............................................................................. 39


4

7.3.1 Function ................................................................................................................................... 39

7.3.2 Precondition for Parameterizing ............................................................................................... 40

7.3.3 SENTRON PAC mounted and connected ................................................................................. 40

7.3.4 Parameterization ...................................................................................................................... 41

7.4 Parameterization of AE ParkControl ......................................................................................... 54

7.4.1 Basic Suggestions & required Software .................................................................................... 54

7.4.2 Access on the SIMATC Web server ......................................................................................... 55

7.4.3 Commissioning of S7-1200 ...................................................................................................... 57

7.4.4 Call of the Parameterization Page ............................................................................................ 59

7.4.5 Installation of the Siemens-Certificate....................................................................................... 60

7.4.6 Basic Structure of the Web pages ............................................................................................ 62

7.4.7 User Guide .............................................................................................................................. 63

7.4.8 Plausibility Check ..................................................................................................................... 65

7.4.9 Configuration to be executed .................................................................................................... 67

8 Configuration Example for AE ParkControl ...................................................................................... 97

8.1 AE ParkControl Basic – 4-polar Ripple control receiver ............................................................ 97

8.2 AE ParkControl Classic - Analog Specification ......................................................................... 99

8.4 AE ParkControl Advanced – 4-polar Ripple control receiver and Q(U) .................................... 106

8.6 TeleControl Specification ....................................................................................................... 111

8.7 AE ParkControl Professional 4-polar Ripple control receiver and Telecontrol specification incl.

Dynamic Graph change.......................................................................................................... 117

9 Current Status AE ParkControl ........................................................................................................ 125

9.2 Status of the digital and analog Input- and Output .................................................................. 127

9.3 Status of the current Feed load .............................................................................................. 128

9.4 Status of the Function Power reduction .................................................................................. 128

9.7 Access on available Datalogs ................................................................................................. 132

10 Commissioning and Maintenance ................................................................................................... 135

10.1 Exchange Concept in CPU-Defective ..................................................................................... 135

11 Technical Data ................................................................................................................................... 136

12 Documentation ................................................................................................................................. 137

13 Contact .............................................................................................................................................. 138


5

0BSuggestions on Safety

Concept of Warning

This Handbook contains references or suggestions which must be observed by you for your personal safety

as well as avoiding damages to goods. The suggestions to your personal safety are highlighted by a warning

triangle, References to exclusive damage to goods remain without the warning triangle. Depending on the

stage of danger or risk the warning note or suggestion in increasing sequence is represented as follows.

DANGER

Means that death or damages to the body can happen, if the corresponding preventive measures are not

taken.

WARNING

Means, that death or severe damages to the body can appear, if the corresponding Preventive measures are

not taken.

CAUTION

Means, that a slight damage to the body can appear, if the corresponding preventive measures are not

taken.

ATTENTION

Means, that damages to the goods can appear, if the corresponding preventive measures are not taken.

In case of appearance of multiple of danger always the warning suggestion for presently the highest stage is used. If in a warning suggestion with the warning triangle is made before the damages to the person, then in the same warning suggestion additionally a warning for damages to the goods can also be appended.

Qualified Personnel The product/system belonging to this documentation should be handled qualified Personnel only for the present task under the observation of the relevant documentation for the present task, specially with reference to the suggestions on safety warning contained therein. Qualified personnel, because of the training they receive and the experience they have, they are is a position to recognize the risks while going about with these products/systems and avoid possible dangers.


6

Contractual use of REFUsol Products

Please Note the following:

WARNING

REFUsol products should be used only for the cases of application considered or provided for in the catalog

and in the corresponding technical documentation. In case external products and -components are to be used, then these must be either recommended or permitted by REFUsol. The satisfactory and safe

operation of the products presupposes accordingly the transportation, the storage, installation, assembly,

commissioning, servicing and maintenance. The permissible environment conditions must be maintained.

Suggestions in the corresponding documentation must be noted.

Legal Disclaimer

We have checked the content of the publication with reference to its compliance with the hard- and software

described. Despite that there could be some deviations that perhaps could not be excluded. Therefore we do

not take up any warranty or guarantee for the complete compliance. The data in this publication must be

regularly checked, required corrections are made out and contained in the subsequent editions.


7

2BIntroduction

2.1 On this Handbook

Purpose and Content of the Handbook This Handbook is a summary of all the necessary information for the use of the software AE ParkControl.

Target Group The Handbook is directed to the user, who is actively involved in the configuration, parameterizing and monitoring of photo voltaic-systems with photo voltaic-inverters.

Required Basic Knowledge For understanding this Handbook the following knowledge is required:

Knowledge on the area of Automation Techniques

Experience with the Parameterization, Installation and Commissioning of PV-Systems

Basic knowledge of Computerized Networks and Communication Reports (TCP/IP)

Region of Validity for the Handbook The Handbook is valid for AE ParkControl from Version V 1.0.

Additional Information Detailed Information for individual System components can be derived from the corresponding Siemens-Documentation. A list with Download-Links can be found in the chapter "Documentation (Page 137)".

Additional Information on our REFUsol products and Systems can be located in the Internet http://www.refusol.com).



8

2.2 Scope of Supply

The following belongs to the supply of AE ParkControl:

1. Regulation and Control Unit

2. SD-Card with software AE ParkControl, Siemens SIMATIC S7 optional Sentron PAC4200

3. Documentation (Operation Handbook, Data for IBS-Preparation, Explanations of the Manufacturer etc.)


9

System Overview

3.1 Overview of the Variants

AE ParkControl fulfills the 2 main functions of reducing the power and reactive power regulation for PV-Systems with upto 128 REFUsol Inverters (Inverter and REFUpmu even in Combination).

For the different requirements and Solar park-Dimensions AE ParkControl can be obtained in different versions:

AE ParkControl Basic permits already a control of the active and reactive power by a power supply

company. It offers 6 digital inputs and outputs in a maximum of 8 participants (Inverter, REFUpmu).

AE ParkControl Classic offers the possibility, to connect many REFUsol inverters and by the control

with SIMATIC S7-1200 even a communication or a response on the IST-feed load.

In AE ParkControl Advanced the operation measurement values are measured by SENTRON PAC

and directly provided to the control. Thereby, for example, even a reactive power regulation as per the

graph is possible.

AE ParkControl Professional offers over the report IEC 60870-5-101 a direct system monitoring

through the EVU. The power supplier has here, not only the possibility of regulation, instead even the

access to the operation measurement values and the current system status. The Solar park can be

completely regulated or controlled and monitored by the control stand of the EVUs.

Variants

The following table gives an overview over the existing functions of the individual variants.

AE ParkControl

Functions Basic Classic Advanced Professional

Power reduction (See Chapter "Power reduction (Page 14)")

Binary Specifications ✓ ✓ ✓ ✓

Analog Specifications -- ✓ ✓ ✓

Specifications over the Telecontrol report 60870-5-101 -- -- -- ✓

Reactive power regulation (See Chapter "Reactive power regulation (Page 15)")

Binary theoretical values cosPhi ✓ ✓ ✓ ✓

Analog theoretical values cosPhi -- ✓ ✓ ✓

Theoretical values cosPhi over Q(U)-Graph / cosPhi(U)-Graph

-- -- ✓ ✓

Theoretical values cosPhi over cosPhi(P)-Graph -- -- ✓ ✓

Theoretical value cosPhi from a Fixed Value Q -- -- ✓ ✓

Theoretical value cosPhi over telecontrol report 60870-101 -- -- -- ✓

Registering the measurement (See Chapter "Registering the Measurement (Page 16)")

Registering the Measurement over the feed point -- -- ✓ ✓

Communication

Telecontrol communication (see Chapter " Telecontrol communication (Page 18)")

-- -- -- ✓

Sleep mode detection (see chapter "Sleep mode detection (Page 18)")

✓ ✓ ✓ ✓

Datalogging (see chapter "Datalogging (Page 19)") ✓ ✓ ✓ ✓

Additional Information on the technical characteristics can be found in the annexure "Characteristics (Page 136)".


10

3.2 System Structure

System Structure AE ParkControl Basic

The following representation shows for example, a structure with AE ParkControl Basic like it is typical for low

power networks upto 100 kW.

The Structure realizes the following Functions:

Upto 8 REFUsol Inverter (Inverter and REFUpmu, also in Combination)

Power reduction over binary specifications from EVU (receipt for example over ripple control receiver)

Reactive power control over binary theoretical values (cosPhi)

Reporting of the power reduction specified by the EVU and reactive power specifications

4 Status output

Commands and Communication EVU/

Others

Regulation and control unit 1211C

Power Supply, 230V


11

System Structure AE ParkControl Classic

The following representation shows for example, a structure with AE ParkControl Classic as to how it is typical

for low power networks over 100 kW.



Power reduction over binary or analog specifications of EVU (Receiving for example, Over ripple

control receiver)

Reactive power control over binary or analog theoretical values (cosPhi)

Ramp up gradient and ramp down gradient parameterized

IST-Feed load over analog input 0/4 ... 20 mA

Reporting of the power reduction specified by the EVU and Reactive power specifications

10 Status output

Power supply, 230V

Regulation and Control unit 1214C

Commands and Communication

EVU/

Others

1st-feed load


12

System Structure AE ParkControl Advanced

The following representation shows for example a structure with AE ParkControl Advanced like it is typical for

medium voltage (power) networks upto 1 MW.



Power reduction over binary or analog specifications of EVU (Receiving for example over ripple

control receiver)

Reactive powers control over binary or analog theoretical values (cosPhi), over dynamic graphs (Q(U)

/ cosPhi (P)-Regulation) or over a fixed value Q

Ramp up or ramp down gradient parameterized

IST-Feed load 0/4 ... 20 mA

Reporting of the power reduction specified by the EVU and specifications

10 Status outputs

EVU/

Others


1st-Feed Load

Power Supply, 230V

Regulation and Control

unit 1214C + SB1232

Multi Function Measurement

Equipment

Registering Measurement Value


13

System Structure AE ParkControl Professional

The following representation shows for example, a structure with AE ParkControl Professional like it is typical

for medium voltage networks over 1 MW (Telecontrol systems as per IEC 60870-5-101).


Upto 128 REFUsol Inverter (REFUsol Inverter und REFUpmu, also in Combination)

Power reduction over binary, analog Specifications or over the Telecontrol report IEC 60870-5-101.

Reactive power regulation over binary or analog theoretical values (cosPhi), over dynamic graphs

(Q(U) / cosPhi(P)-Regulation), over a fixed value Q or over specifications over the Telecontrol report

Ramp up and ramp down gradient parameterized

Individual- / Double Commands, Individual-/ Double communication

Measurement values and Diagnostics communication

Reporting of the power reduction specified by the EVU and Reactive power specifications

10 Status output

System Components

An overview of the system components to be used can be located in chapter "Applications Planning (Page

23)".

Registering Measurement Value

Multi Function Measurement

Equipment

Regulation and Control unit 1215C + CB1241

Power Supply, 230V


EVU/

Others

Report Converter


14

Functional Description

4.1 Power Reduction

General Information By power reduction one understands the throttling of generation systems, specified by the feed guide lines and a reduction of the feed load in over capacity in the network should be guaranteed. For this purpose, all generation systems over control display should be connected together and in case of requirement it should be uniformly reduced or reduced depending on the place

For the theoretical value transmission of power reduction, three different theoretical value sources are

supported by AE ParkControl:

Binary Specifications: realized over n-polar ripple control receiver or transfer marshaling panel

Analog Specifications: realized over transfer to marshaling panel

Specifications over Telecontrol report 60870-5-101

Theoretical value Sources and their Priorities

The three different theoretical value sources can be optionally combined. Because of this reason every

theoretical value source conveys a priority. The valid active theoretical value specification with the maximum priority is taken up and transmitted or transferred to the REFUsol Inverter. If in a parametrized theoretical

value source problems appear, then theoretical value sources with lower priority are searched and the valid

theoretical value specifications are taken over. If no further valid theoretical value specification are present,

then after a filter time of 1 minute the definite Default-Value for the power reduction is sent.

Theoretical value source Description Priority

Theoretical values over binary

inputs

The theoretical values with reference to power in %

calculated over static inputs or impulse inputs (Upto 14

different theoretical values with reference to power)

1

Theoretical value over

Telecontrol-Communication

The theoretical values with reference to power

calculated over telecontrol report in %

2

Theoretical value over analog

inputs

The theoretical values with reference to power

calculated over analog input as voltage value or

current value in %

3

In the theoretical values with reference to power over binary inputs, the static inputs and impulse inputs can

be optionally combined. Here it should be noted, that impulse specifications are deleted by static

specifications. Apart from that in multiple defined impulse inputs of presently last detected impulse with the

relevant theoretical values with reference to power are taken over.


15

4.2 Reactive Power Control

General Information By reactive power control one understands the control or regulation of a definite active power value at the Feed point of the generation system, which is specified by the feed guide lines.

For the calculation of theoretical value of active power specifications six different theoretical value sources are supported by AE ParkControl:

Binary Theoretical values cosPhi: realized over n-polar Ripple control receiver or Marshal panel

Analog Theoretical value cosPhi: realized over Marshal panel

Theoretical values cosPhi from a Q(U)-/ cosPhi(U)-Graph

Theoretical values cosPhi from a cosPhi(P)-Graph

Theoretical values cosPhi, which result from a fixed value Q

Theoretical values cosPhi over Telecontrol report 60870-5-101

The Theoretical value specifications cosPhi that appear are checked for plausibility and subsequently transferred over to the REFUsol Inverter. With AE ParkControl, the simultaneous parameterizing of all six

theoretical value sources is possible. The types of regulation Q(U), cosPhi(P) and fixed value Q are available

for AE ParkControl Advanced and Professional, the specification over telecontrol report is possible only with

AE ParkControl Professional.

Theoretical value sources and your Priorities The six different theoretical value sources can be optionally combined. Due to this reason, every theoretical

value source is allotted a priority. The valid active theoretical value specification with the highest priority is taken up and transmitted to the REFUsol Inverter. If in a parametrized theoretical value source problems

appear, then the theoretical value sources are searched with lower priority and the close valid theoretical

value specifications are taken over. If no further valid theoretical value specifications are present, then after a

filter time of 1 minute of the definite default-value for the reactive power regulation is sent.


Theoretical values over binary

inputs

The theoretical values cosPhi (Upto 14 different Theoretical

Values) transmitted over static Inputs or impulse inputs

1

Type of regulation Q(U)-Graph Theoretical value cosPhi from the parametrized Q(U)-graph for

the cases "Activated" and "Activated by Input"

2

Type of regulation cosPhi(P)-

Graph

Theoretical value cosPhi from parametrized cosPhi(P)-graph for

the cases "Activated" and "Activated by Input"

2

Type of regulation fixed value Q Theoretical value cosPhi resultant from definite reactive power

fixed value for the case "Activated" and "Activated by Input"

2

Type of regulation Q(U)-Graph Theoretical value cosPhi from parametrized Q(U)-graph for the

case "Activated if telecontrol cosPhi=1"

3

Type of regulation cosPhi(P)-

Graph

Theoretical value cosPhi from parametrized cosPhi(P)-graph for

the case "Activated if telecontrol cosPhi=1"

3

Type of regulation fixed value Q Theoretical value cosPhi resulting from a definite reactive power

fixed value for the case "Activated if Telecontrol cosPhi=1"

3


16


Theoretical value over Telecontrol

communication

Theoretical value cosPhi transmitted over telecontrol report 4

Theoretical value over Analog

input

Theoretical value cosPhi transmitted over Analog input as

voltage value or current value

5

In the theoretical values over binary inputs, static Inputs and impulse inputs can be optionally combined.

Thereby, it should be noted, that impulse specifications get deleted with static specifications. Apart from that

in multiple defined impulse inputs of presently last detected impulse with the relevant cos phi theoretical

values with reference to power are taken over. As even the three existing type of regulations for the run time

over binary inputs can be activated, the principle is similar like in the binary inputs.

The selection of the type of regulation over binary inputs can likewise be realized over static inputs that appear or impulse evaluation. Thus here, it is valid, that the stored impulse is reset, if an input appears that is static parametrized or another impulse is detected. An exception with reference to the theoretical value sources and their aligned priorities exists in AE ParkControl Professional. A new theoretical value specification transmitted over the telecontrol report has a higher priority than the stored binary impulse specification for fixed cosPhi-Value viz. the choice of the type of regulations.

4.3 Registering the Measurement

The registering of measurement over the feed point is available only in AE ParkControl Advanced and

Professional.

For the registering of the Measurement value the SENTRON PAC4200 is considered, which is connected over PROFINET to the present SPS. The wiring of the components is described in the chapter "Example of wiring and Suggestions for wiring (Page 26)".

Note

Please note, that for the registering of the measurement value manufacture transducer are needed, to convert

the 20 kV medium voltage viz. the measured current in correspondingly evaluated voltage and current. This

measurement converter is the ingredient of Trafos.

Alternatively the registering of the measurement value takes place on the 400 V-low voltage. In this case only

the curent converter is necessary.

The Reconciliation must take place with the relevant energy supply companies (EVU).

4.4 Local Ethernet-Communication

General Information

For the different functions of AE ParkControl, different Communication routines are used.

Basically one can differentiate between 3 types of Communication, which is described in the following table:


17

Type of Communication Description

Cyclic PROFINET-Communication for

SENTRON PAC4200

This type of Communication is contained in AE ParkControl Advanced

and Professional and serves the high frequency transmission of current

Measurement value on the feed point for S7-1200.

Cyclic Ethernet-Communication for REFUsol Inverters

This type of Communication serves for the distribution of the theoretical

values for power reduction and Blind feed specifications over the project

specific number and type of REFUsol Inverters.

HTTPS-Access on the Web server-Surfaces This Communication type serves the status overview and the

parameterizing of the present AE ParkControl variants. The first two

types of communications are system conditioned and cannot be

influenced. The access over port 443 on the AE ParkControl SPS can

thus be realized from the remote distance (see Chapter "Ethernet-

Communication and Embedding Into In The IT- Structures (Page 24)").

Communication with multiple REFUsol Inverters over Ethernet

Every AE ParkControl variant with the exception of AE ParkControl Basic (max. 8 REFUsol Inverter) supports

the connection of upto 128 REFUsol Inverters over Ethernet. The AE ParkControl SPS-Controls used are

available over 8 connection resources, which are simultaneously operated. The parametrized number over REFUsol Inverters are distributed uniformly on the connection resources, whereby in case of maximum

structure 16 participants per connection resource are placed behind each other. Please note that in case of

specific IT-Structures (managed switches, multiple cascaded switches, guided transmission etc.) the

communication can last longer or it could lead to time-out of the connection.

Parameterized Transmission Cycle

The transmission of the theoretical values to REFUsol Inverter takes place in a parametrized transmission

cycle. In the parameterizing of the communication of AE ParkControl one must pay attention to the fact that,

the transmission cycle that is chosen is not too low.

Note

Depending on the parametrized number of REFUsol Inverters, the distribution or division of the theoretical

values in the field lasts upto 50 seconds. In case of REFUpmu units the set transmission cycle of 50 seconds

is maintained, to permit sufficient time for the RS485-Communication.

In the following you find an overview of the guide values for the optimum setting of the transmission cycle while considering the number of REFUsol Inverter and the IT-Infrastructure.

Number REFUsol Inverter at

S7-1200

Number REFUpmu at S7-

1200

IT-Infrastructure Recommended

Transmission Cycle [s]

1 - 16 0 Ethernet Cable

(electrical / optical)

10 - 60



15 - 60



25 - 60


18

Number REFUsol Inverter

at S7-1200

Number REFUpmu at S7-

1200

IT-Infrastructure Recommended Transmission

Cycle [s]



30 - 60



45 - 60

1 - 128 0 Ethernet Transmission 45 - 60

0 - 96 1 and more Ethernet Cable


30 - 60

97 - 128 1 and more Ethernet Cable


45 - 60

0 - 128 1 and more Ethernet Transmission 45 - 60

It should be noted here like wise the required gradient from the present guidelines viz. from the technical conditions of connection (TABs) of the EVUs.

The set default-value 50 s that is preferred is maintained.

Principle of Theoretical Value Transfer The principle of the theoretical value transfer can be described as follows:

Existing theoretical values are sent in the parameterized transmission cycle to all REFUsol Inverter

repeatedly.

New Theoretical values are immediately transmitted.

Exception: Already a new Theoretical value of the parameterized transmission cycle is transferred or

transmitted (Transmission block).

4.5 Telecontrol Communication

The Connection of AE ParkControl over the telecontrol report IEC 60870-5-101 is possible with AE

ParkControl Professional. In AE ParkControl Professional the telecontrol report is implemented over RS485. If

the present transfer cabinet does not contain any converter from IEC 60870-5-104 (Ethernet) to IEC 60870-5-

101, then for example an Arctic IEC104 is used, to execute this

Configuration and Parameterizing

The Telecontrol report can be configured openly upto the fixed TK-Marking. While determining the telecontrol

data 7 parametrized types are differentiated:

Theoretical values (max. 3 - predefined)

Measurement Values (max. 23 - predefined)

Individual Communication (max. 14 – openly definable)

Double Communications (max. 2 – openly definable)

Individual Command (max. 10 – openly definable)

Double Command (max. 2 – openly definable)

Diagnostics Communication (max. 2 - predefined)


19

4.6 Sleep Mode Detection

General Information

In the parameterizing of AE ParkControl, under "General Parameters" there is the possibility, to activate the

Sleep mode detection.

This function serves firstly the suppression of error communication at night. This behavior is partly explicitly

desired by EVU and should be approved with him. An additional function of the sleep mode detection is the

targeted resetting of stored impulse specifications for power reduction and Blind feed regulation.

Note

If static theoretical values by means of impulse specifications where it remains to remain valid overnight, the

sleep mode detection is not activated. Impulse specification for graph operation thus remains obtained in

activation of the sleep mode detection over night.

Change in the Sleep Mode

In case of activated Sleep mode detection an interchange is done in the following conditions in the sleep

mode:

Condition Description

Updated feed load < 1% of the nominal power for at

least 5 minutes

This case ist relevant, if for example REFUpmu units are structured,

which in the standard case remains connected 24 h / day, where in

this will not lead to any communication errors.

Updated feed load < 1% of the nominal power and

at least 1 communication error

This case enables the quick change in the sleep mode for the case,

that REFUsol inverter is directly connected over Ethernet.

Note

Presupposition for the Sleep mode detection is the correct setting of the time of S7-1200.

Note

In case of activated Sleep mode detection, the power read and summed from the REFUsol Inverters is

considered. In case failure of switches or complete RS485-Strands this can lead to falsified results.


20

4.7 Datalogging

Function Datalogging

In the parameterizing of AE ParkControl in every variant under "General Parameter" the function

"Datalogging" can be activated. In case of activation this function is placed in two separate datalogs in the

format "*.csv" on the SIMATIC memory card. These datalogs enable a reporting of the power reduction and

the Blind feed specifications specified by the EVU.

Log-Files

The following two Datalogs are placed:

Power Reduction.csv (Log for Power Reduction)

Reactive Power.csv (Log for Blind feed Specifications)

Both the log- files are circulation buffered realized with 1500 Entries. While reaching the 1500 Entries, the

latest are overwritten.

Every entry of Log-File consists of the following information:

Entry number continuous

Date

Local time (considering Summer-/ Winter time switch)

Theoretical value (either Power Reduction in % or cosPhi-Value or fixed value Q in kVAR)

Theoretical value sources

Every Log-File requires with this Format ca. 430 KByte on the delivered SIMATIC Memory Card.

With reference to the possible theoretical value sources there exists the following definition for the attachment

of new Log-Entries:

Power Reduction Every new specification (binary, analog or telecontrol report)

Reactive Power Specification Every new specification in the following theoretical value sources: binary, analog

and telecontrol report

In the theoretical value sources Q(U), cosPhi(P) and fixed value Q the change in

this type of regulation can be logged

Access to the Log-Files

The access to these Log-Files is possible over the status page (see Chapter "Access to the availabe datalogs

(Page 132)").

Please note, that the complete Log-File, depending on the selected Browser, is only shown, if you have stored

this on your system.


21

4.8 Error Reaction

In this chapter the possible errors are illustrated and explained and it is described as to how this can be

diagnosed and how AE ParkControl can react conditioned by the system.

System Conditioned Reactions in case of Errors

Basically in case of errors that appear, if one cannot further react to that, after a filter time of 1 Minute,

Default-Values for power reduction and reactive power regulation are sent. This corresponds to the

deactivation of possible types of reactive power regulations viz the specifications that appear for cosPhi-

Values viz. power reduction. This procedure is all the same, only used, if no alternative reaction is possible.

As soon as the error search is increased, the old specification is again active.

The following table contains the possible errors and the system conditioned Reactions through ParkControl:

No. Error Description Reaction

1 Communications error for individual

REFUsol Inverter

Transmitting the theoretical values to the REFUsol Inverter cannot be

guaranteed

Subsequent error in the feed management cannot be excluded

No system conditioned reaction for the functions Power reduction

and reactive power regulation

2 Communication error over Telecontrol

report

Communication over 60870-5-101 is erroneous

Specifications over Telecontrol report are not valid any more

If no type of Regulation of lower priority is parameterized (Analog)

then Default-Values are sent

3 Communication error for SENTRON

PAC4200

Measurement value registering is erroneous

Type of Regulation Qs(U), cosPhi(P), Fixed value Q not possible

any more

Control loop for cosPhi is not possible at the feed point

If no type of Regulation of low priority is parameterized (Analog,

Telecontrol) Default-Values are sent

Function power reduction remains untouched

4 Unplausible phase voltages are measured

at the feed point

Voltage measurement on the feed point deviates by +/- 30 % of the

parameterized nominal voltage

Type of Regulation Qs(U), cosPhi(P), Fixed value Q not possible

any more

Control loop for cosPhi is not possible at the feed point

If no type of regulation of low priority is parameterized (Analog,

Telecontrol) Default-Values are sent


5 Parameterized Analog to the theoretical

value specification with 4 ... 20 mA,

currently measured current input < 3,9 mA

Analog Specification for power reduction viz. reactive power

specification is erroneous

As the analog input that has the lowest priority, the Default-Values

are sent

6 There are multiple static binary

specifications, for example. 30 and 60 %

Binary specification for power reduction or Blind feed specification

unplausible

If no theoretical value source of low priority is parameterized, the

Default-Values are sent


22

No. Error Description Reaction

7 There are multiple specifications for the

types of the reactive power regulations, for

example Q(U) and cosPhi(P)

Dynamic selection of the type of Regulation for the run time is

erroneous

If no theoretical value source of low priority is parameterized, the

Default-Values are sent


Definite priorities per every theoretical value source can be found in chapter "Power reduction (Page 14)" and

Chapter "Reactive power control (Page 15)".

Signaling of Errors

Errors that appear are signaled over the status page and over the parameterized binary output. Thus, without

wiring or connecting the binary outputs, the parameterizing with global status communications will be

meaningful, as then over the status page it is visible, as to which error has actually appeared. Thus without

the parameterizing of the binary outputs, every error communication is visible on the status page in the

present region (see Chapter "Current Status of ParkControl (Page 125)").

Parameterized Error Communication

Possible Parameterizing for the binary output can be found in the chapter "Configuration of the digital output

(Page 83)".

Following error Communicatios can thus be parametrized:

Communication Error: Corresponds to Error description 1

Measurement Error: Collective communication from Error description 3 und 4

Error Power Reduction: Collective communication from Error description 5 and 6 (presently for the

Function power reduction)

Error Reactive Power: Collective communication from Error description 5-7 (presently for the Function

Reactive power regulation)

Error TeleControl: Corresponds to the Error description 2


23

6BApplication Planning

General References and Guidelines

In the installation of the Hardware-Components, the requirements mentioned in the relevant

Handbooks for climate- and assembly conditions must be maintained.

Detailed information can be derived from the system Handbook of S7-1200 as well as the Handbooks

of individual components (see Chapter "Documentation (Page 137)").

The Routing or Wiring of individual Components can be derived from the Chapter "Example of Wiring

(Page 27)" be removed.

S7-1200 CPU-Variants and Company Versions

In case of AE ParkControl depending on the variant three types of CPU are used.

You distinguish above all in the number of integrated binary inputs, binary outputs and the size of the storage

space.

AE ParkControl Basic, Classic and Advanced are executable with the present CPU (see following

table) and the minimum requirement Firmware-Version 2.2 or newer versions.

The AE ParkControl Professional is executable only with the new CPU1215C, which is supplied by

the firm in version 3.0.

Used Hardware-Components in the AE ParkControl Variants

The following table provides the overview over the hardware-components of the AE ParkControl variants

used.

Description Order Number Compatible

with

AE ParkControl

Basic Classic Advanced Professional

CPU 1211C AC /D C /RLY,

Nominal 120/230 V AC, DE

6x24 V DC, D A 4xRelay 30 V

DC/250 V AC, 2 A, AE 2x10

Bit 0-10 V DC

6ES7211-1BE31-

0XB0

Predecessor

6ES7211-

1BD30-0XB0

(V2.2.0)

✓ -- -- --



14x24 V DC, D A 10xRelay 30

V DC/250 V AC, 2 A, AE 2x10

Bit 0-10 V DC

6ES7214-1BG31-

0XB0

Predecessor

6ES7214-

1BD30-0XB0

(V2.2.0)

-- ✓ ✓ --



14x24 V DC, D A 10xRelay 30

V DC/250 V AC, 2 A, AE 2x10

Bit 0-10 V DC, AA 2x10 Bit 0-

20 mA

6ES7215-1BG31-

0XB0

-- -- ✓

SB 1232 AQ;, AQ 1x12 Bit

±10 V AC oder 0-20 mA

6ES7232-4HA30-

0XB0

-- ✓ ✓ --

CB 1241 RS485 6ES7241-1CH30-

1XB0

-- -- -- ✓

Measuring equipment 7KM

PAC 4200 with screw

connection

7KM4212-0BA00-

3AA0

-- -- ✓ ✓


24

Description Order Number Compatible

with

AE ParkControl

Basic Classic Advanced Professional

Expansion module 7KM PAC

Switched Ethernet

7KM9300-0AE00-

0AA0

-- -- ✓ ✓

DIN rail adapter 7KM PAC

TMP2

7KM9900-

=0XA00-0AA0

-- -- ✓ ✓

5.1 Ethernet-Communication and Integration in IT-Structure

Below a few suggestions, guidelines and recommendations for the CONNECTION TO AE ParkControl with

reference to IT-Structures.

Allocation of IP-Addresses

For every variant of AE ParkControl, different IP-Addresses are required in an IP-Segment. These IP-

Addresses are freely editable for the required components of AE ParkControl. No overlapped address region must appear and no IP-Addresses must be provided double. The REFUsol inverter must be continuously

addressed.

Types of Lines for the Structure of Ethernet-Networks

The networking of Ethernet-enabled components can take place over copper cables (CAT5 / CAT6-Cable). If

larger distances are to be bridged or parallely power cables need to be laid, the LWL-Transmission is

preferred.

Use of Switches

While using switches, note, that depending on the possibility, unmanaged Switches are used. The background

is, that in a managed switch the address tables that are lodged are to be regularly refreshed with the help of

telegrams, which in case of integrated communication of AE ParkControl cannot be guaranteed in this cycle. The consequence is, that this could lead increased time delays in the connecting structure for REFUsol

Inverter, which could lead to errors due to exceeding time.

While using managed IT-Switches we recommend for the ports relevant for AE ParkControl the managed

mode to be disconnected or switched off as per the possibility or the transmission cycle to be reduced to the

Minimum possible (see Chapter "Local Ethernet-Communication (Page 16)").

Port Release for the Remote Access on the PV-Systems

For the remote access on the PV-Systems with the available AE ParkControl a connection to the internet must

take place and diverse port releases for the access must be carried out from outside. The following releases

are recommended:


25

Port 80 on all REFUsol Inverter connected over Ethernet ⇒ Connection an Web Portal

Port 21062 / 21063 on all diagnostics tools connected over Ethernet REFUsol Inverter ⇒ Access over

REFUsol

Port 443 on the AE ParkControl SPS ⇒ Access over HTML-Pages over HTTPS

Port 110 (S7-Report) on AE ParkControl ⇒ Diagnostics possibilities

Port 110 (S7-Report) on Sentron PAC4200 ⇒ Access over Sentron Power Config-Tool

The portal transmission enables the remote access on all the components participating in AE ParkControl by the use of REFUsol Service, under the presumption, that the system operator has provided the permission for

remote access.

Note

In case of remote access a registered Gateway-Address (in standard case, the local IP-Address of the

Routers) in required in all components located in the Ethernet-Network.

Connection to the Internet

For connection to the internet over UMTS, for example, the Lucom UR 5v.2 Basic UMTS Router can be used.

The further transmission of the yield data of the individual REFUsol Inverter is to be completely considered

isolated from the AE ParkControl variant. The present router should be configured in such a way, that a

dispatch of the data to the Web portal (IP-Address: 195.27.237.106) is port 80.

5.2 Data for IBS-Preparation

For simplifying the commissioning of AE ParkControl, there is data available with the help of which all the

required parameters are defined an can be approved with the EVU in the prefield.

The data that is filled in enables a simplified pre check of the parameterizing with the help of the REFUsol

Support.


26

7BExample of Wirings and Suggestions on Routing

In the following paragraphs examples of wiring for AE ParkControl have been shown. More information over

structural guidelines and further possibilities of connection can be derived from the operation instruction of S7-

1200.

An overview on the components for the structure of a Parkregulation can be found in the chapter "Application

planning (Page 23)".

A list of additional product documentation for the SIEMENS system components can be found in the annexure

"Documentation (Page 137)".


27

6.1 Example of Wiring

1.1.1 Example of Wiring AE ParkControl Basic

Requirement 4 Stages Power reduction (Ripple control receiver)

Structure

① Ripple control receiver ④ REFUsol Inverter

② S7-1211C AC/DC/Relay ⑤ Router (for example for web portal or Remote-Access)

③ Ethernet Switch

Figure 6-1 Example of wiring AE ParkControl Basic


28

1.1.2 Example of Wiring AE ParkControl Classic

Requirement

3 Stages Power reduction (Specification of EVU-Cabinet)

11 Stages cosPhi (Specification from EVU-Cabinet)

AE ParkControl Classic

① Specification from EVU-Cabinet

(potential open contact)

④ REFUsol Inverter

② S7-1214 AC/DC/Relay ⑤ REFUpmu

③ Ethernet Switch ⑥ Router (for example for WebPortal or Remote-Access)

Figure 6-2 Wiring example AE ParkControl Classic


29

66.1.3 8BExample of Wiring AE ParkControl Advanced

Requirement

4 stages Power reduction (Ripple control receiver)

alternatively Q(U) or fixed cosPhi 0,95 (by means of a remote-Command EVU)

AE ParkControl Advanced

① Ripple control receiver ⑤ REFUpmu

② S7-1214 AC/DC/Relay ⑥ Router (for example, WebPortal or Remote-Access)

③ Ethernet Switch ⑦ Sentron PAC4200

④ REFUsol Inverter ⑧ Registering Measurement Value at Medium Voltage

Figure 6-3 Wiring Example AE ParkControl Advanced


30

6.1.4 Example of Wiring AE ParkControl Professional

Requirement

Telecontrol report IEC 60870-5-101

Individual Communication: Earthing, Exciter and release through protection

Double Communication: Setting power switch

Double Command: Power switch AUS


31

AE ParkControl Professional

① Communication from the Transfer Station ⑥ Router (for example for Web Portal or Remote-Access)

② S7-1215C AC/DC/Relay ⑦ Sentron PAC4200

③ Double Command LS AUS ⑧ Registering the Measurement value over medium voltage

④ REFUsol exchange Guide ⑨ Ethernet Switch

⑤ REFUpmu

Figure 6-4 Wiring or Routing Example AE ParkControl Professional


32

6.2 Suggestions and Guidelines for Routing

6.2.1 Routing Suggestions AE ParkControl – Power Supply

In the following paragraphs the routing suggestions for AE ParkControl have been displayed. More

information over the structure guidelines and additional possibilities of connection can be derived from the

operation instructions of the present S7-1200.

6.2.2 Connecting the S7-1200

Connecting the S7-1200 (as an Example of CPU1214C)


33

(A) Power Suply: The S7 is to be provided with a voltage of AC 230 V / 50 Hz. We recommend, the S7-

1200 separately to secure over feed protection switch.

(B) Digital Input: The digital input is used as a rule for the potential free contact (for example, Ripple control

receiver, Communication contact of the transfer station etc.) is used. Thus a "Control voltage" DC+ is

connected over this contact on the input of the S7-1200. This "Control voltage" DC+ can also be used

from the generator supply DC 24 V of S7-1200.

① 24-V-DC-Generator voltage; to achieve additional stability, please connect "M" to the Mass (Earth),

even if you do not use any generator voltage.

② In the current drawing inputs "-" to "M" is connected (shown). In case of current supplying inputs "+"

to"M" is connected

(C) Analog Input: Over both the clamping inputs a theoretical specification can result for the power

reduction and Blind feed. Both the analog input of the S7-1200 CPU are placed on the works side for

the measurement of the voltage (0..10V).

To use the input also as "power input", you must connect for every 500 Ohm-resistance between the

clamps "0" and "2M" (viz. "1" and "2M").

If both the analog inputs are used, you should note, that the reference mass of both the analog

channels is the same.

(D) Digital Output: The digital output can be used for example, for error communication. Additionally in case

of AE ParkControl Professional it serves as an output for the individual command and double

command, which sends the EVU to the system by way of telecontrol report. A connected voltage L(+) is

connects to the common contact 1L (2L) of the relay output, to the corresponding outputs

0/.1/.2/…connect this potential then to a user.

(E) Analog Output for the transfer of the active power to the EVU: Building of the SB 1232 AQ (see Chapter

"Connect the SB 1232 AQ (Page 34)").

Serial Interface for the transfer of the Telecontrol report to the EVU: Building of CB 1241 (see Chapter

"Connect the CB 1241 RS485 (Page 35)").

(F) Communication: The Communication of AE ParkControl with the REFUsol inverter takes place

exclusively over Ethernet. For this purpose please use the Ethernet interface of S7-1200.

(Ethernet interface Profinet/LAN; depending on the CPU-Version upto 2 interfaces, both RJ45-

Connections can be used)

Figure 6-5 Connecting the S7-1200

Additional Documentation

For detailed Information for S7-1200 please read the System Handbook "S7-1200 Automation system"

(http://support.automation.siemens.com/WW/view/de/36932465).

http://support.automation.siemens.com/WW/view/de/36932465


34

6.2.3 Connection of SB 1232 AQ

Connection of SB 1232

The current output serves for the transfer of the updated actual feed to the EVU (Conveying upto 100 kW as

per EEG2012).

Figure 6-6 Connecting the SB 1232 AQ


Detailed Information for the setting up and for connection of SB1232 AQ can be found in the System

Handbook "S7-1200 Automation system" (http://support.automation.siemens.com/WW/view/de/36932465).



35

6.3 Connecting the CB 1241 RS485

Connection of CB 1241 RS485

The serial interface RS485 is exclusively required in the AE ParkControl Professional, to enable the

Communication with the energy provided (Telecontrol - Master before location).

① "TA" and TB" is connected as shown, to connect the network.

② Use shielded, twisted wire pair and connect the cable screen to earth.

Figure 6-7 Connecting the CB-1241


Detailed information for the structure and for connection of CB 1241 can be located in the System Handbook

"S7-1200 Automation system" (http://support.automation.siemens.com/WW/view/de/36932465).



36

6.3.1 Connection of SENTRON PAC4200

The SENTRON PAC is connected by means of LAN with the S7-1200 (normally over a Switch). For this

purpose, it is necessary, to use the interface of the expansion module, as otherwise the Communication does

not function with the S7-1200.

Use One of the both RJ45-Plug directly over the expansion module.

Figure 6-8 Connecting the Sentron PAC4200


For detailed Information for Sentron PAC4200 please read the System Handbook "Multifunction measuring

equipment as per SENTRON PAC4200 (http://support.automation.siemens.com/WW/view/de/34261595)"



37

Parameterizing

9B7.1 System Pre Conditions

Filled in data for IBS-Preparation

For simplification of the commissioning of AE ParkControl the data for IBS-Preparation (Page 25) is available,

with the help of which all required Parameterizing is defined in advance and can be approved with the EVU.

We recommend you, to keep this data ready with all details filled in for the parameterization.

System Compatibility

The following FW-Positions are necessary:

REFUsol Inverter from FW29-XX

REFUpmu FW4-5 or higher

For any required updates please contact the REFUsol Service (Page 138).

Windows-Operating System / Browser

For the Parameterization over the Web server a 32 bit- or 64 Bit-Operating system is needed.

As Browser you can use Firefox as well as Internet Explorer.

The Following versions can be used:

Firefox V18

Internet Explorer 8 and 9

Additional Browser or Revisions are not tested by the system.

Additional Configurations-Software

PMUvis: This software is needed, to carry out the Parameterization of the REFUpmu for the Parkregulation.

SENTRON PowerConfig (only in AE ParkControl Advanced and Professional) is contained in the scope of

supply. With SENTRON PowerConfig all Parameterization of the SENTRON PAC4200 are taken up.


38

7.2 Preparation

IP-Configuration of the REFUsol Inverter

Ever REFUsol Inverter, which is directly connected per Ethernet with the S7-1200 CPU, must contain a

"continuous" IP-Address. We recommend as start address the first REFUsol Inverters the IP-Address

xxx.xxx.xxx.101.

Orient yourself to the complete IP-Address on your Router (Gateway). If no router is used, use the address

192.168.0.xxx.

REFUsol Inverter Parameter

Variable cosPhi", Parameter P.1164 → "2"

The Parameterization can be carried out over the numeric List (by means of Display) as well as over the REFUpmu (by means PMUvis). Additional information can be found in the Handbooks of REFUsol Inverter.

Figure 7-1 Setting cosPhi with PMU vis


39

REFUpmu Setting

Apart from the preferred Standard-Settings of REFUpmu the type of Operation must be set on remote control

(see Operation instructions "REFUpmu").

Figure 7-2 Setting Type of Operation Remote Control

SENTRON PAC4200 (only in AE ParkControl Advanced and Professional)

The required Operation steps for assembly, Routing and Parameterizing of the SENTRON PAC4200 are

described in the chapter "Parameterizing of SENTRON PAC4200".

7.3 Parameterizing of the SENTRON PAC4200

7.3.1 Function

The SENTRON PAC4200 is used for the Measurement of Voltage (and Current) at Feed point of the PV-

System. The Measurement data is required, to implement the reactive power specification of the present EVU

at the feed point.

There are different Requirements:

Only Voltage measurement→ Q(U) Control

Voltage- and Current measurement → Q(U)- / cosPhi(P)-Control or Reactive power fixed value Q

Communication

The Transfer of the Measurement data over the S7-1200 takes over the PROFINET-Telegram. For the

Communication a complete IP-Configuration is required with IP, Sub network and Gateway. The Gateway in

this case, if available, is the Router (UMTS, GPRS, DSL, …).

The Parameterizing of this IP-Settings can take place over SENTRON PowerConfig or over the integrated

Display of the PAC4200.


40

Note

The PROFINET-Equipment name is absolutely needed and can be configured only over SENTRON

powerconfig.

7.3.2 Precondition for Parameterizing

The required Hardware- and the Software components

For Parameterizing of the SENTRON PAC you require the following hardware- and Software components:

AE ParkControl Advanced or Professional

Computer with installed SENTRON powerconfig-Software.

The Current Version is attached to the CD to the package of the SENTRON PAC4200.

SENTRON PAC4200 with switched Ethernet Profinet Module


Exhaustive Information for the Components "SENTRON PAC4200" and "Switched Ethernet Profinet Module"

can be located in the relevant Documentation.

7.3.3 SENTRON PAC mounted and connected

Switched Ethernet Module to be mounted

For the Parameterization the Switched Ethernet Module must be mounted on the SENTRON PAC4200. For

this purpose one of the two interfaces (MOD 1 or MOD 2) are used for the expansion module on the

equipment back side.

① Port MOD 1

② Port MOD 2

Figure 7-3 Interface MOD 1 and MOD 2 at PAC4200


41

SENTRON PAC over Ethernet with Computer to be connected

After the Assembly of the expansion module you connect one of the two PROFINET Interfaces (X1P1 or

X1P2) or over a switch with the ETHERNET-Interface of the Computer.

Figure 7-4 Switched Ethernet Module

7.3.4 Parameterization

7.3.4.1 Introduction SENTRON powerconfig

With SENTRON powerconfig all Parameterization of the SENTRON PAC4200 can be taken up, which is also

reachable over the integrated Display. Apart from that the Parameterization online is observed.

Even those Parameters are reachable, which cannot be configured over the Display, for example, the

equipment name PROFINET required for this Application.

7.3.4.2 SENTRON powerconfig to be started & Network-Connection to be configured

After the Opening of SENTRON powerconfig the start figure screen appears.

Project to be placed For the Parameterization of the SENTRON PAC4200 please generate a new Project over "Project" → "New".


42

Figure 7-5 Placing a new Project

Apart from the Project name even a Project description is lodged and the project path is changed.

The Project can be placed as Parameter-Backup, to quickly bring back the original condition of a system

configuration in case of equipment exchange.

Figure 7-6 Characteristics of the new project to be determined

After the Placing of the Project the Project view is displayed in SENTRON powerconfig.


43

Figure 7-7 Project view SENTRON powerconfig


44

Network connection to be configured

For the Finding of connected equipment you must configure an existing Network connection.

The SENTRON PAC is delivered without IP-Address, that means one can be reached over his MAC Address

from every Sub network. Therefore, it is important, that you already adapt the presently the local LAN-Settings

of the Network connection, in such a way that the desired SENTRON PAC IP-Address lies in the same Sub

network.

1. Open the Dialog "Characteristics of the Network connection"

Figure 7-8 Characteristics of the Network-Connection to be called

2. Open the Characteristics of the Internet Protocol (TCP / IP).

Figure 7-9 Characteristic of the Internet Protocol (TCP / IP) to be opened


45

3. In the Characteristics of the Internet Protocol (TCP / IP) you can provide your System an IP-

Address and a corresponding Subnetwork screen.

Give your Computer an IP-Address, which possibly lies at the end of the avalable address, so that there no double allocation of Address, specially while connecting REFUsol Inverters over

Ethernet.

Figure 7-10 Characteristic of the Internet Protocol (TCP / IP)

Confirm all Dialogs. The Network-Connection is searched, to Create a connection.


46

7.3.4.3 Search for the equipment to be Reached & Online/Offline Alignment

Search for the equipment to be Reached

As per the Configuration of the Network connection over the "Project" → "Search for available Equipment…"

the connected SENTRON PAC was found.

Figure 7-11 Equipment that is Reached in the current network to be searched

A window opens with the Equipment that is reached, in which the SENTRON PAC appears only with MAC-

Address without IP-Address.

With the "Attachment" you can take over the equipment its Offline-Project.


47

Note

If no reachable participant is displayed, then the cabling and the characteristics of its Network connection is

checked!

Figure 7-12 Representation of participants that are reachable

IP-Configuration

While take over of the equipment it is enquired in a Dialog, which the IP-Address, Sub network screen and

Gateway-Address the SENTRON PAC should receive. Pay attention to the fact, that the IP-Address for all the participants in the network (S7-1200, REFUpmu, REFUsol inverter connected over Ethernet, Router, …) are

clear and lies in the same Sub network.

Figure 7-13 Definition of the IP-Configuration for the Communication interface

Figure 7-14 Definition of Example of the IP-Configuration

Online/Offline Balancing of Parameter

As per the Parameterizing of the IP-Configuration it is enquired over a Dialog, whether the Online-Parameter

is to be taken over in the Offline-Project. Confirm this dialog with "yes".


48

Figure 7-15 Enquiry dialog for the Online/Offline Balancing of the Parameter

After the Confirmation the Offline-Configuration is checked.

Figure 7-16 Graphic Display of the Configuration Check Offline

Subsequently the Status of the upload-Process is represented in a specific Dialog.

Figure 7-17 Graphic Display of Upload Process of the Equipment Parameter

After the Online-Parameter is taken over in the Offline-Project, the Parameter view is displayed in the

SENTRON powerconfig.


49

Figure 7-18 Parameter view of the PAC4200 as per the Upload


50

7.3.4.4 Parameterization of the important Equipment characteristics

Relevant Parameter groups

The Parameter groups that are relevant for this application are found in the Region "Expansion port 1" or

"Expansion port 2" (dependant on which port the switched Ethernet module is mounted) and in the Region

"Base parameter".

Figure 7-19 Filtered Parameter view with PROFINET Interface & Clamping input

All additional Parameters are not absolutely necessary for this Application and can be taken subsequently

over the integrated Display. Subsequently enter in tab "Date / Time" the updated time, so that the Diagnostic

buffer in the SENTRON PAC which carries the correct time stamp.


51

PROFINET-Interface

In the Region "PROFINET-Interface" you can adapt the parameter for "IP-Address", "Sub network screen" and

"Gateway", in case, in the configuration menu before the upload erroneous or incomplete data was made.

Under "Station Name". you must Enter in the Clear text "pac4200", otherwise, a Communication can get built

between S7-1200 and SENTRON PAC.

Figure 7-20 Configuration of PROFINET Interface (Example)


52

Base parameter → Voltage- and Current Input

Under "Base parameter → Voltage Input" the standardization of the used measuring equipment is configured. A Standard case thus the Standardization "20 kV correspond to 100 V Phase voltage" is to be entered. The

Standardization unconditionally derives the technical Datasheet of the transducer or enquired in the

EVU.

Figure 7-21 Configuration of the Voltage input (Example)

Likewise one proceeds with the current input (during application), to enter the corresponding inverter data in

the tab "Current input".

Note

In the use of Current transducer and with it the the measurement of the feed, attention must be given, that on

the SENTRON PAC4200 in the feed operation the actual feed is positive. Otherwise in the Parameterization

with SENTRON powerconfig or over the Display of SENTRON PAC4200 an Inversion of the current is set.

7.3.4.5 Transfer of Offline-Parameter in the Equipment

Parameter to be loaded on the Equipment

For the transfer of the Parameter, the parameter must be loaded on the equipment.

1. Select the Equipment and take over the parameterizing either over the menu "Equipment" or over the

corresponding tab.


53

Figure 7-22 Download the Equipment parameter

2. For the Download to start, confirm the following Dialog with "yes".

Figure 7-23 Enquiry dialog before Download of the Equipment parameter

After the Confirmation there appears a Status dialog for the Download-Process.

Figure 7-24 Status display for the Download-Process


54

Parameterization to be checked

At this point the Parameterization of SENTRON PAC4200 is closed. You can check the parameterization in

which you search once again for attachable participants. In the search window the Equipment now is listed

with complete IP-Configuration.

Figure 7-25 Renewed Search of Equipment that can be reached for check of IP-Configuration

Note

You can adapt the Parameterization after the first commissioning every time over the integrated Display or

SENTRON powerconfig.

7.4 Parameterization of AE ParkControl

7.4.1 Basic Suggestions & required Software

General

The Parameterization takes place through user define Web pages. The Access to the integrated SIMATIC

Web server takes place exclusively over the HTTPS-Protocol.

As the integrated SIMATIC Web server in contrast to the parallel running control program reveals a

Subordinated priority, of then during call of the user defined web pages there is a longer Waiting time.

The scope of the Parameterization and with it the number and Complexity of the individual pages differs or

varies corresponding to the selected variant of AE ParkControl.

Pre Conditions

For the Parameterization of AE ParkControl the following is required:


55

A Computer with Ethernet-Interface.

A Standard-Browser (Firefox or Internet Explorer).

The released Versions of the Browser are mentioned in Chapter "System Requirements (Page 37)"

First Parameterizing

We recommend, the first parameterizing of AE ParkControl be carried out locally over S7-1200 without

connection to the Ethernet-Network.

7.4.2 Access on the SIMATC Web server

For reaching the Web server you must correspondingly parametrize the local Network connection. In relation

to the operation system the screens for Parameterization differentiates the LAN-Connection. The objective is,

to allocate the system an IP-Address and Subnetwork screen, in which the S7-1200 is also found.

IP-Address in the Supply Position

With an SD-Card inserted the S7-1200, it is reachable under the following IP-Address:

https://192.168.0.2/awp/start.html

Allocation of the IP-Address

For the first access over the Parameterized pages the system requires an IP-Address in the same Sub

network. Give the system an IP-Address, which lies possibly at the End of the accessible Addresses, so that

there is no double Address allocation.

Note

Equipping an existing Parkregulation

The Equipping of an existing Parkregulation with a new version is possible through SD-Card exchange.

Note, that the access to the CPU under specific conditions must take place not under the standard-IP-

Address, instead under the already configured IP-Address.


56

IP-Address allocation

1. Call for the Characteristics of the Network-Conditions.

Subsequently the following Dialog opens.

2. Open the Characteristics of Internet Protocol (TCP / IP).


57

3. Allocate for the system an IP-Address and enter the corresponding Subnetwork

screen.

7.4.3 Commissioning of S7-1200

S7-1200: Position of the Operation- and Connection elements

S7-1200 Front side of the equipment

① Power connection

② Slot for a Memory Card under the upper cover flap

③ Insert for bracket block for the user wire (behind the upper cover flap)

④ Status-LEDs for the integrated E/A

⑤ PROFINET-Connection (on the Lower side of the CPU)


58

Commissioning 1. Insert the SIMATIC Memory Card received in the scope of supply of AE ParkControl in the SD-Card

slot provided for this purpose ②.

2. Connect the S7-Control.

3. The Program is transferred from the Card in the S7-Control.

After the Boot process illuminates the RUN / STOP-LED continuously in Green.

Extract from the Operation Handbook S7-1200 for the Status-LEDs

The CPU offers the following Status displays:

STOP / RUN

- Yellow Continuous light shows the Operation condition STOP

- Green Continuous light shows the Operation condition RUN

- Blink (changing green and yellow) shows, that the CPU is in the operation position STARTUP

ERROR

- Flashing Red light shows an error, For example an internal error in the CPU, an error of the Memory Card or a Configuration error (not reconciliable module)

- Red continuous light shows Hardware defects

MAINT

- If you insert a Memory Card, the LED MAINT (Maintenance) blinks. The CPU then changes into the Operation position STOP. After the CPU has gone into the Operation position STOP, carry out the following Function, to start the Evaluation of the Memory Card: Switch off the CPU and switch on again.

S7-Condition for Parameterizing of the ParkControl

To be able to start the parameterizing of the ParkControl over the Web server, the LEDs must illuminate in the

following way:


59

STOP / RUN: Green continuous light

ERROR: Does not illuminate or red blinking light

MAINT: Does not illuminate

Note

Specialty in AE ParkControl Advanced and Professional

In AE ParkControl Advanced and Professional a SENTRON PAC is configured as a PROFINET-Device. In

the local Parameterizing at S7 there is a red blinking light on ERROR LED. As soon as the SENTRON PAC,

as well as the S7-1200 are connected over a switch, the ERROR-LED of S7-1200 does not illuminate any

more.

If the LED illuminates despite that, please check the Configuration instruction of the SENTRON PAC.

7.4.4 Call of the Parameterization Page

The general entry on the satisfactory Webpage takes place over the following Link:

https://192.168.0.2/awp/start.html

Note

The Web server can be reached only over HTTPS.

The access over HTTP is not possible.

After the call for the Webpage the Start figure screen of AE ParkControl (Example AE ParkControl

Advanced) appears.


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Figure 7-26 Start Page S7-1200 Web server

7.4.5 Installation of the Siemens-Certificate

Install before the first Parameterization the Security certificate for the HTTPS-Access. The installation is

possible on the user defined Webpage, as well as from the standard-Page of the SIMATIC Web server.


61

1. Click on the link "download certificate" for Download of the Safety certificate. The following Dialog

opens:

Figure 7-27 Enquiry Installation Certificate

2. With “Open” open the Security certificate.

Figure 7-28 Dialog Certificate

3. Over the tab "Install Certificate" the Siemens Certificate is installed in the database. Please install

reliable "Source Certificate" as storage location. This enables an access on the web server, without

the confirmation enquiry.


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7.4.6 Basic Structure of the Web pages

The Configuration pages and the Status page are subdivided in the following regions:

Figure 7-29 Structure of the Operating Surface

Position Description

① Header Lines The header lines contain the version of the ParkControl Package.

② Login-Region Login-Form for Login / Logout of the user. Changes on the parameterized values are

only possible in the connected position.

③ Navigation Region On the Status page:

The Navigation region contains on the Status page the following Elements:

Display of the current time and the current Date

Direct link for Download of the Security Certificate

Direct link for the Configuration of the ParkControl

④ Main Region The main region contains all relevant Display - and Configuration elements

depending on the updated web page. At the lower edge you find the tab region.


63

User authorization and Web server-Start page

On all the configuration there is a Login-Region.

To carry out the parameterization, the user must communicate as "admin".

For the Login the same password like for the parameterization of REFUsol Inverter is needed.

User Name: admin

Password: 72555

The Login-Region signals in color, whether the user "admin" is already connected.

User is not connected

User is connected

In the logged out condition the user field and the

Password-Field is lodged in red

In logged position the user field is lodged in green and the

Password-Field is blended.

Note

An automatic communication takes place after ca. 10 Minutes, if in this time no inputs have taken place.

Please note, that in un communicated condition no Parameterizing can be stored.

7.4.7 User Guide

In the configuration of AE ParkControl the user navigates in the parameterization through all configuration

pages. For this purpose, on every page the navigation tabs "BACK" and "NEXT" are available.


64

Operation Functions

Key Description

To the next page

One page back

The tab "SAVE" is available for saving the changes and is present on all

configuration pages. It brings about the transfer of the configuration from the web

server in the storage device of S7-1200. While activating the command "SAVE"

first an enquiry dialog is blended in, which you must confirm with OK.

Subsequently a service window is blended in, which blends out after the fresh

loading of the web page.

Most of the changes require an initialization run of S7-1200. With "EXECUTE"

you activate this initialization run. Note that first the changed configuration is to

be taken over into the storage device S7-1200 with "SAVE", before you carry out

the initialization run. Before the implementation of "EXECUTE" an enquiry dialog

is blended in, which you must confirm with OK.

Subsequently a service window is blended in, which blends out after the fresh

loading of the web page.

Note

Execution of Command "SAVE" and "EXECUTE"

It is absolutely necessary both Commands to be executed one after the other (under the Consideration of

Waiting time).


65

Note

Waiting time in Command "SAVE" and "EXECUTE" is to be noted

Depending on the CPU-type and the Complexity of the Configuration page the execution of the command

"SAVE" and "EXECUTE" should last upto one Minute.

After the confirmation of the tab the HTML-page is downloaded again.

Please wait till the corresponding wait window is blended out.

Individual Changes of the Configuration After the Configuration was completely run, in future, even individual changes are also possible.

Note

Even in case of subsequent smaller changes on a configuration page, the handling is carried out with the

commandos "SAVE" and "EXECUTE".

7.4.8 Plausibility Check

The Configuration requires different inputs through the user depending on the ParkControl-Variant. Thus a

large part is checked on plausibility.

The plausibility check is activated on every page always through the confirmation of the "SAVE"-Command.

A comprehensive check takes place, which can take some time. As per the check the values are taken over in

the storage device of the S7-1200.

Note

Please note that in the parameterization the functional overview of the individual types of Parkregulations (see

chapter "Technical Characteristics (Page Error! Text marks not defined)"), as the configuration, the limit

values and the validity of inputs can vary.

Display of Configuration Errors

If Configuration errors were determined, this is displayed over a window.


66

All wrongly Configured Elements are marked in color.

Figure 7-30 Representation in the error free configuration


67

7.4.9 Configuration to be executed

The first configuration of the ParkControl takes place from the start page over the global link “Configuration”.

Figure 7-31 Entry in the Configuration over the link "Configuration"

Note

In case during the Parameterization the values are not taken over from the control, they must be checked

in the Login-Region, whether the user "admin" is logged.

Overview of available Configuration pages The following overview shows, which Configuration pages are available for which AE ParkControl variant and

in which characterization.


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Figure 7-32 Overview of available Configuration pages

Note

The available Configuration pages can be matched even directly with the following Syntax:

https://<IP S7-1200>/awp/<Name Konfigurationsseite>.html

Example: https://192.168.0.2/awp/ipconfig.html


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7.4.9.1 IP-Configuration of S7-1200 (ipconfig.html)

Availability: AE ParkControl Basic till Professional On this Configuration page, there exists the possibility, the S7-1200 provides a new IP-Configuration.

This is necessary, if you connect the Components of the Park control (S7-1200, SENTRON PAC, REFUsol

Inverter, REFUpmu) in an existing IT-Network or the IT-Specifications must be fulfilled for a new network.

If no changes are necessary, then you can change over and move directly to "NEXT" for the next

Configuration page.

Note

Sub network, Gateway and IP-Address Allocation

All components, which are wired within the Ethernet-Network, must show the same sub network and the

same Gateway. Apart from that no double IP-Address should appear in the network!

We recommend the following IP-Addresses:

Gateway (valid for all Components): 192.168.0.1 Sub network (valid for all Components): 255.255.255.0 IP-Address Router 192.168.0.1 IP-Address S7-1200: 192.168.0.2 IP-Address SENTRON PAC4200: 192.168.0.3 IP Address REFUsol Inverter: 192.168.0.101-228

Figure 7-33 IP-Configuration of the S7-1200 (Default-Settings)

Procedure 1. Change the Standard-IP-Address for the Sub network, Gateway and S7-1200, in case this is needed,

for example, if you attach an existing network.


70

Parameter Description Value Region

IP IP-Address of the

S7-1200

open IP-Address allocation for the S7-1200 0…255 per Field

Subnet Sub network screen

of the network

Open Sub network screen allocation for the complete

network

0…255 per Field

Gateway Gateway-Address of

the Network

Open IP-Address allocation for the router of the Network 0…255 per Field

2. If you have entered your desired IP-Parameter, transfer the parameter with "SAVE" in the control

3. After the loading of the page, activate over "EXECUTE" the transfer of IP-Configuration through the S7-1200

Note

After the activation of IP-Change you must call the web server under the new IP-Address and the

previous step is repeated, under that the logging as Admin!

Note

In case your sub network or the IP-Address region has completely changed, you must change your

network connection again, as the system receives an IP in the sub network defined by you (see

Chapter "Access to the SIMATIC web server (page Error! Text marks not defined.)")!

4. With "NEXT" you reach the next Configuration page.

7.4.9.2 Configuration of Date & Time of S7-1200

Availability: AE ParkControl Basic to Professional

On this Configuration page set the Date and Time of S7-1200.

This Configuration should be carried out by you in any case, as this characteristic is used for the

communication of diagnosis and the internal Datalogs.

Note

The S7-1200 provides from the part of the system a switch over for the Summer -/ Winter time.

Please use the current time while setting the time and provide in the selection field, whether the summer time

is active.


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Figure 7-34 Configuration of Date and Time of S7-1200

Procedure 1. Provide the current values for Date and Time.

2. We recommend, the time 1 to 2 minutes to be preset and with "SAVE" transfer the same to the control.

First if the desired time is reached, set the time over "EXECUTE". Thus the delay between both the commands are balanced!

3. Check the set Time and the Date on the Configuration page.

4. With "NEXT" you reach the next Configuration page.

7.4.9.3 Basic configuration ParkControl


On this configuration page provide the basic data for Photovoltaic-System and for the required ParkControl-

Variant. This data is required for different functions of ParkControl and must be, therefore, absolutely

parameterized.


72

Figure 7-35 Configuration General System Data (Default-Settings)

The description of the individual elements is derived from the following table.

Parameter Application Limit Values

Nominal Power / Inverter

Sum

AC-Nominal power of the

system as sum of the inverter-

individual power

Operation power region

Preparation of current power over

the analog output

0…999999 kW

Transmitting Cycle Transfer cycle for theoretical

value and actual values Cycle for the communication for all

REFUsol inverters for theoretical

power reduction & cosPhi, as well

as the reading of the actual feed

power of REFUsol inverter

10…60 s

Max. Power Ramp Up... Power ramp for the increase

or the reduction of the system

power

Preventing high power jumps in

increase of reduction

Influence the process of the

system power in the previous

reduction per parameterized

transfer cycle

0…100 %

Max. Power Ramp Down... Power ramp for the reduction

of the system power Prevention of high power jumps in

the reduction

Influence of the reduction of the

system power per parameterized

transfer cycle

0…100 %

Default Value Power

Reduction [ % ]

Standard value for the power

reduction of the system Is transferred if no requirement of

a power reduction is present, in

case of partial load region and

also in case of error

0…100 %

Default Value Reactive

Power [ cosPhi ]

Standard value for cosPhi for

the reactive power control at

the feed point

Is transferred if no requirement is

present for the reactive power

control, in case of partial load

region and also in case of error

±0.9


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Parameter Application Limit Values

Activation of Datalogging Activation of the Datalogging-

Function If it is active, then every change of

the specification for the power

reduction and reactive power

control is logged with time stamp

and logged theoretical source

value

Deactivated /

Activated

Activation of Sleep Mode

Detection

Activation of the sleep

detection Suppressing the error

communication at night

Deleting of stored impulse

specification in case of day

change (only static specifications,

no graph selection )

Sleep mode active, if the system

power is longer than 5 minutes

and less than 1 % of the nominal

power

Leave the sleep mode, if the

system power is longer than 3

minutes or larger than 1 % of the

nominal power

Deactivated /

Activated

If you have entered your configuration, you can transfer the parameter into the control over "SAVE".

With "NEXT" you reach the next Configuration page.

7.4.9.4 Basic configuration Telecontrol report

Availability: AE ParkControl Professional

On this configuration page the basic configuration of the telecontrol report can be taken up as per 60870-5-

101. We recommend, the Excel-file "Process data_ParkControl500_60870_Vxxx.xls" to use the Configuration

and the data is transferred in the following Configuration pages (see Chapter “Data for IBS preparation (Page

25)").

Configuration of telecontrol report

On this page the following functions can be configured:

General Communication parameter

Activation of possible Theoretical value Specifications over the Telecontrol report

Activation of individual Measurement value preparation over Telecontrol report

Activation individual Diagnostics Communication over Telecontrol report


74

Figure 7-36 Configuration of the general Parameter and Theoretical value for Telecontrol report (Default-Settings)

Parameter Description Limit values

Link address Link-Address Determining the Link-Address as the

complete number (Combination from low

and high Byte)

0…65534

ASDU address ASDU-Address Determining the ASDU-address as

complete number (Combination from low

and high Byte)

0…65534

Minimum Treshhold... Measurement value for

threshold absolute

In case of exceeding of the threshold

value automatically a new telegram is

sent

0.01…100 %

Minimum Infeed Minimum feed for the take

over of the reactive power

specifications over the

telecontrol report

In case of falling short of the minimum

feed for longer than 3 minutes the

reactive power specifications are ignored

0…100 %

Set point Power Reduction

[%]

IOA Address Specifications of power reduction in %

over Telecontrol report

0…16777215

Set point Reactive Power

[MVar]

IOA Address Specification of the reactive power fixed

value in MVar over the Telecontrol report

0…16777215

Setpoint Reactive Power

[cosPhi]

IOA Address Specification cosPhi over Telecontrol

report

0…16777215

Measurement values, which are to be made available over the Telecontrol report, must be activated over an

IOA-Address ≠ 0.


75

Figure 7-37 Configuration Measurement Value Preparation and Diagnostics communication over Telecontrol report

Figure 7-38 Configuration Diagnostics Communication over Telecontrol report


Error Measurement (Sentron

PAC4200)

IOA-Address The communication with the SENTRON PAC4200

is disturbed or unplausible phase voltage is

measured.

0…16777215

Error Grid Management IOA-Address Collective Communication for error measurement,

Error Power Reduction and Error Reactive Power

(see chapter "Configuration of the digital output

(Page 83)").

0…16777215

IOA-Addresses


IOA-Address IOA-Address Clear IOA-Addresses for the activation and

alignment of telegram for the functions

0…16777215


76

Note

IOA-Addresses for the Telecontrol report 60870-5-101 must be clear over the complete project. This

plausibility check is not an ingredient part of parameterization.

Operation Instructions

All fields, in which the IOA-Address is configured as not equal to 0, brings about an activation of the

Function.

If you have entered your configuration, you can transfer the parameter over "SAVE".

With "EXECUTE" subsequently an initialization of the IOA-Addresses takes place.



77

7.4.9.5 Configuration of the REFUsol Inverter

Availability: AE ParkControl Basic and Professional

On this Configuration page the participants participating over the Parkregulation, that means, the REFUsol defined over the Ethernet REFUpmu or REFUsol Inverter. The number of participants is limited and is

different. The limitation is that you can derive a functional overview in the chapter “Technical Characteristics (Page 136)”. In the configuration a distinction is not made between REFUpmu and REFUsol inverter. Even the

mixed operation it is possible without problems.

The individual condition is, that the participant from a configured IP-Start address is continuously addressed

without gaps.

Figure 7-39 Configuration of REFUsol Inverter

Note

In AE ParkControl Basic the maximum number on REFUsol Inverters is limited to 8, in all other AE

ParkControl variants, the limitation lies at 128 REFUsol Inverters.

Parameter

The description of the individual Elements can be derived from the following Table.


IP Start Address IP-Start address Determining of IP-Start address in the sub

network already previously determined

1…255

Number of Partners Number REFUsol Inverter Number of continuously addressed

REFUsol Inverter of the configured IP-

Start address

0…128

With "SAVE" the parameter is transferred into the S7-1200.

With "EXECUTE" the initialization of the Communication is activated for the REFUsol Inverters.



78

7.4.9.6 Configuration of the Input-/Output of the S7-1200

On this Configuration page the digital as well as the analog inputs, as well as the digital outputs are

parameterized. Not required Input-/Output can be deactivated. Example for the wiring can be found in the

chapter "Examples of wiring and suggestions on wiring (Page 26)".

The input is required, to be able to evaluate the digital specifications of ripple control system and other

transfer interfaces over the control. The inputs can be completely openly parameterized, all the same, the

logical alignment coincides with the wiring, as it could lead to error functions.

The Configuration page is subdivided in 4 sections:

Configuration of digital Input

Configuration of the analog Inputs

Configuration der digital Outputs

Configuration of the Minimum feed power

With "SAVE" the Parameter is transferred in the S7.

In AE ParkControl Professional additionally with "EXECUTE" an initial run of the IOA-Address is activated.


Configuration of digital Inputs

The digital inputs which are available as variants depending on the AE ParkControl can be openly configured.

Apart from that, the possible function differs depending on the input.

Generally, in all four AE ParkControl variants the digital specification of performance reduction viz. cosPhi-

Specification is available.

Parameter

In the selection “Power Reduction” viz. “Power Reduction [Pulse]” additionally the relevant percentage value

for the performance reduction is entered.

In the selection “Reactive Power” viz. “Reactive Power [Pulse]” additionally, the relevant cosPhi-value for the

reactive power control is registered. The limit values can be derived from the following table.


Input Selection Selection field for every

digital input

Alignment of a function for a

digital input, if this input appears

this function is used

not relevant

"Power Reduction" or

"Power Reduction [Pulse]"

Input field for the power

reduction

Power reduction, which is

transferred, if this input appears*

0…100 %

"Reactive Power" or

"Reactive Power [Pulse] "

Input field cosPhi-Value for

the reactive power-control

cosPhi-Value, which is

transferred, if this input appears

± 0.9

* 100 % means, that the inverter serves out 100 % power

0 % means, that the inverter serves out 0 % power


79

Note

Input of Values

The value for the power reduction viz. Reactive Power specifications must be entered as

the same number with point instead of comma, otherwise the transfer of the values for S7-1200 does not function.

In the Reactive Power specifications inductive and capacitive must be defined on the

basis symbol, that means, a capacitive cosPhi von 0.95 must be entered as -0.95.

Configuration of the digital Inputs AE ParkControl Basic to Advanced

In AE ParkControl Basic 6 digital Inputs must be placed with the 4 Standard functions

In AE ParkControl Classic 14 digital Inputs are placed with the 4 Standard functions.

In AE ParkControl Advanced 14 digital Inputs are configured. For the 4 Standard functions there are the

functions of the graph selection which result over the digital inputs, which provides in to 10 functions per

digital Input.

Figure 7-40 Configuration of the digital Inputs on the example AE ParkControl Advanced

Configuration of the digital Inputs in AE ParkControl Professional

In AE ParkControl Professional 14 digital Inputs can be configured. For the 10 functions there are still the

Telecontrol communications, which in to yield 12 Functions per digital input. In addition to that an input field

appears for the IOA-Address.


80

Figure 7-41 Configuration of the digital Inputs on the example AE ParkControl Professional


IOA-Adress IOA-Addresses (only

relevant in selection

"Telecontrol…")

Clear IOA-Addresses for the activation

and alignment of telegram for functions

0…16777215

Functions and Availability

In the following table the individual functions as well as their availability is mentioned in the individual AE

ParkControl Variants.

Functional Name Description Availability AE ParkControl

Deactivated Digital Input not used --

Power Reduction Input that appears causes power

reduction with relevant percentage value

Basic, Classic, Advanced,

Professional

Power Reduction [Pulse] Impulse evaluation of the corresponding

input, Function s.o.


Professional

Reactive Power Input that appears causes cosPhi-

specifications with relevant cosPhi-value


Professional

Reactive Power [Pulse] Impulse evaluation of the corresponding



Professional

Regulation Q(U) 1 Input that appears brings about a

selection of the type of regulation Q(U)

Advanced, Professional

Regulation Q(U) [Pulse] 1 Impulse evaluation of the corresponding

input, Function s.o


Regulation cosPhi(P) 1 Input that appears brings about a

selection of the type of regulation cosPhi

(P)


Regulation cosPhi(P) [Pulse] 1 Impulse evaluation of the corresponding



Regulation Fixed Value Q 1 Input that appears brings about a

selection of the type of regulation fixed

value Q


Regulation Fixed Value Q [Pulse] 1 Impulse evaluation of the corresponding

input, Functions s.o.



81

Functional Name Description Availability AE ParkControl

Telecontrol Single Message Changing/alternating signal on the input

brings about a dispatch of a new telegram

with the corresponding IOA-Address

Professional

Telecontrol Double Message 1 Changing/alternating signal on the input DI

b.2 / b.3 brings about a dispatch of a new

telegram with the corresponding IOA-

Address

Professional

Telecontrol Double Message 1 Changing/alternating signal on the input DI

b.4 / b.5 brings about a dispatch of a new

telegram with the corresponding IOA-

Address

Professional

1Note: In case of application the corresponding types of regulation in the reactive power configuration (reactivepower.html)

is parameterized with "Activated by Input" (see chapter 87)").Configuration of Reactive power graphs.

The inputs that are available can be parameterized in all combinations of the functions. There are however the

following limitations:

Selection of the individual type of regulation only once for an input

Selection of the individual type of regulation is either static or with impulse evaluation

Selection of the Telecontrol report Double communication 1 only in DI b.2 and b.3

Selection of the Telecontrol report Double communication 1 only in DI b.4 and b.5

All other functions are optionally combinable

The Combination from Power Reduction or Reactive Power Specification with and without impulse evaluation

is possible, thereby it must be noted that the static inputs that appear have a higher priority.

The Plausibility of the Parameterization is comprehensively checked over Java script, where by the transfer of

error parameterization is suppressed.

For the transfer of the theoretical values during the operation the following rules are valid:

Inputs that statically appear is taken up after 1 second Filter time

Registered impulse is now taken up, if no static input appears

Impulses are simultaneously deleted, so that always the last registered impulse is taken up

If more than one static input appears, then after a waiting time of a minute the parameterized Default-

Value is taken up.


82

The detailed description is located in the chapter "Power Reduction (Page 14)" and in chapter "Reactive

Power Regulation (Page 15)". There even the collective priorities and reactions on incidents are described.

Note

IOA-Addresses for the telecontrol report 60870-5-101 must be clear over the complete parameterization. This

plausibility check is not an ingredient of the parameterization.

Configuration of the analog Inputs in AE ParkControl Classic to Professional

In the AE ParkControl Variants Classic to Professional, additionally possible digital specifications as well as

analog specifications over both the analog inputs AI0 and AI1 of S7-1200 are configured.

The Input AI0 is solidly aligned to the Power reduction specification

The Input AI1 is solidly aligned to the Reactive power specification.

In the configuration you specify, whether the signal is placed as current or as voltage on the input and which

as standardization is to the analog signal.

For the standardization of the analog signals the increasing as well as the falling lines are defined.

Figure 7-42 Configuration of the analog Input

Parameter

The available Parameter for the Configuration of the Analog inputs are mentioned in the following table.


AI 0 - Power

Reduction

Selection field for the

analog specification of

a power reduction

Activation and specification of the input signals for

the power reduction Deactivated

0…10 V

0…20 mA

4…20 mA

Input field for

performance value of

lower limits

Definition of a standardization for the definite

analog regions, Minimum Analog input

0…100 %

Input field for

performance value of

upper limits

Definition of a standardization for the definite

analog region, Maximum Analog input

0…100 %


83


AI 0 - Reactive

Power

Selection field for the

analog specifications

of cosPhi-Values

Activation and specification of the input signals for

the reactive power specification cosPhi Deactivated

0…10 V

0…20 mA

4…20 mA

Input field for cosPhi-

Value of lower limit

Definition of a standardization for the Definite

Analog Region, Minimum Analog Input

-0.9 (capacitive.)…

+0.9 (inductive)

Input field for cosPhi-

Value of upper limit

Definition of a standardization for the Definite

Analog Region, Maximum Analog Input

-0.9 (capacitive.)…

+0.9 (inductive)

Note

The analog Inputs AI0 and AI1 are the Clamping inputs (0…10 V). If the theoretical value source

delivers a current signal (0…20 mA or 4…20 mA), a 500 Ω resistance is connected between to convert

the current input in a voltage signal.

If both the analog inputs are used, it should be noted, that the reference mass of both the analog

channels is similar.

Configuration of the digital Output

The digital outputs available as a variant depending on the AE ParkControl are openly configurable. The

possible functions per output distinguishes likewise in relation to the AE ParkControl variants.

Generally in all 4 AE ParkControl variants 10 global Functions are available for Diagnosis and Status transfer.

The outputs available can be indicated over a selection field of a function.

Parameter


Output Selection Selection field for

every digital input

Alignment of a function for a digital input, if

this input appears, this function is used

not relevant

Note, that in every AE ParkControl variant many functions are available as outputs. We recommend, the

outputs to be used, which is required for response to the EVU or status transfer to the lamp etc.


84

Configuration of digital output in AE ParkControl Basic to Advanced

In AE ParkControl Basic 4 digital outputs can be placed with 10 available standard functions is placed.

In AE ParkControl Classic 10 digital outputs are placed with the 10 available standard functions.

In case of AE ParkControl Advanced 10 digital outputs can be configured. For the 10 standard functions

the functions for measurement value registration error and further activated type of reactive power

regulation. Into there are 14 functions that are available.

Figure 7-43 Configuration of digital outputs in AE ParkControl Basic, Classic and Advanced

Configuration of digital outputs in AE ParkControl Professional

In case of AE ParkControl Professional 10 digital outputs can be configured. For the 14 Functions, there are

the signals specific to telecontrol reports -. Into there are 20 Functions available.

Figure 7-44 Configuration of the digital output in ParkControl 500


85


IOA-Address IOA-Addresses (only

relevant in selection

"Telecontrol …")

Clear IOA-Address for activation and

alignment of Telegram for functions

0…16777215

Functions and Availability

In the following table the individual functions as well as their availability are mentioned in the individual AE

ParkControl variants.

Functions name Description Availability AE ParkControl

Deactivated Digital input unsupported --

Mirror Input Relevant input is illustrated with filter time 1s

from the output. Function only possible for the

inputs, which have a corresponding output


Professional

Power Reduction < 100 % System is reduced on the basis of a

specification on < 100%. Function does not

calculate any information over the current

actual feed load.


Professional

cosPhi ≠ 1.0 On the basis of a specification a capacitive or

inductive cosPhi-Value is sent. Function does

not calculate any information over the actual

cosPhi on the feed point.


Professional

Error Communication At least for one REFUsol Inverter there is a

communication problem


Professional

Error Measurement The communication for the SENTRON PAC is

disturbed or unplausible phase voltages are

measured


Error Power Reduction The function power reduction is disturbed. The

reason can be unplausible specifications,

general error or the un reach ability of

reduction over the feed point.


Professional

Error Reactive Power The function reactive power regulation its

disturbed. Reason could be unplausible

specifications, general error or the non reach

ability of the cosPhi-Specifications at the feed

point.


Professional

Error Telecontrol The communication over the telecontrol report

is disturbed.

Professional

Power Reduction Digital Active Power reduction: A digital specification is

active.


Professional

Power Reduction Analog Active Power reduction: An analog specification is

active.


Professional

Power Reduction Telecontrol Active Power reduction: A specification over

telecontrol report is active.

Professional

Reactive Power Digital Active Reactive power control: A digital Specification

is active.


Professional

Reactive Power Analog Active Reactive power control: A analog specification

is active.


Professional

Reactive Power Q(U) Active Reactive power control: The Q(U) Graph is

active.


Reactive Power cosPhi(P) Active Reactive power control: The cosPhi(P) Graph

is active.



86

Functions name Description Availability AE ParkControl

Reactive Power Fixed Value Active Reactive power control: The active type of

control is solid Reactive power value Q.


Reactive Power Telecontrol Active Reactive power control: A Specification over

telecontrol report is active.

Professional

Telecontrol Single Command A command obtained over telecontrol report

with the corresponding IOA-address is given

on this output.

Professional

Telecontrol Double Command 1 A double command obtained over telecontrol

report with the corresponding IOA-address is

given on the outputs a.6 and a.7.

Professional

Telecontrol Double Command 2 A double command obtained over telecontrol

report with the corresponding IOA-address is

given on the outputs b.0 and b.1.

Professional

Configuration of the Minimum feed for digital/analog Reactive power specification

Subsequently, on this configuration page even the minimum feed is defined, from which the digital and analog

reactive power specification is sent.

Figure 7-45 Configuration of the Minimum feed for digital / analog Reactive power specification (Default-Settings)


87


Minimum Infeed Minimum feed for take

over of digital or analog

reactive power

specification

In case of falling short of the minimum feed for

longer than 3 minutes the reactive power

specification is ignored

0…100 %

7.4.9.7 Configuration of the Reactive power graphs

Configuration of the Reactive power graphs

Availability: AE ParkControl Advanced and Professional

On this configuration page graphs for the die reactive power control can be configured.

Each of this starting of regulation requires a measurement value registering on the feed point. Thereby, for the

Q(U)-Graph at least a voltage measurement is necessary. For both the other types of regulations because of

the required power and the high dynamics a Voltage - and Current measurement is necessary.

Note

In agreement with the present EVU instead of a registration of measurement value in the

medium voltage measurement is carried out even in the low voltage. Provide the support

points in the parameterization of nominal voltage and the graphs with always the

corresponding values on the measurement point. A conversion in the medium voltage is not

needed.

This configuration page is divided into 4 sections:

General regulation parameter for the reactive power specification

Configuration of Q(U) Graph

Configuration of the cosPhi(P) Graph

Configuration of a Reactive power fixed value Q

With "SAVE" the parameter is transferred in theS7-1200 transferred.

With "NEXT" you reach the next configuration page.

Configuration of general Reactive power control parameter

The first section serves the configuration of two basic parameters. These are required for all 3 types of

regulations and must therefore be configured in every case.


88

Figure 7-46 Configuration of reactive power control: General parameter

General Parameter

The limit values and selection possibilities are mentioned in the following table.


Nominal Voltage Nominal

voltage on the

Measurement

point

Reference voltage for the Q(U)-Graph. The

measurement point can be differentiated by the

feed point!

100 ... 99999 V

Type of

Measurement

Type of

measurement

on the

measurement

point

Definition of the type of measurement over the

SENTRON PAC. None

Only Voltage

Voltage and Current

Depending on the selected type of measurement the following types of regulations can be configured.

Note

AE ParkControl Professional can also be used without SENTRON PAC. Thereby the implementation of the

telecontrol reports are possible even for clear systems. Configure here as the type of measurement "None".

Configuration of Q(U) Graph

The Q(U) graph enables the reactive power control on the feed point depending on the measured phase

voltage at the feed point. It serves for the stabilization of the network voltage and is most frequently required.

Operation for the realization of the Q(U)-graph is the registering of the measurement value of the phase

voltage on the feed point.

Figure 7-47 Configuration Reactive power control: Q(U)-Graph (Default-Settings)

Parameter

The limit values and selection possibilities are mentioned in the following table.


89


Q(U) Control Activation of the

Q(U)-control

The Q(U) graph can either directly received

over digital inputs for run time or activated if

cosPhi = 1 over telecontrol report,.

Deactivated

Activated

Activated by Input

Activated if Telecontrol

cosPhi=1

Handling

Measurement

Voltage

Selection of the

reference phase –

voltage

Definition of the reference phase voltage

which is used for the Q(U) Graph. L1/L2

L2/L3

L3/L1

Highest

Average

Minimum Infeed to

start reactive Power

by Q(U)

Minimum feed for

activation of the Q(U)

graph

While falling short of the minimum feed for

longer than 3 minutes, the graph is ignored

0…100 %

Minimum Voltage

Modification to send

new value

Hysteresis of the

measured phase

voltage

New value from the graph is first taken over if

the hysteresis in proportion for nominal

voltage was exceeded

0.1…100 %

Voltage / Reactive

Power

Q(U) Graph Upto 4 value pairs [U,cosPhi] as support

points of the Q(U) Graph

U: 100 V…99999 V cosPhi:

-0.9 (capacitive) … +0.9

(inductive)

Types of the Graph Activation

The following types of the Graph activation:

Activated:

Only the Q(U) control is activated and used, if no specification of higher priority appears. No cosPhi(P)

graph or fixed value Q control can be applied.

Activated by Input:

The type of regulation can be activated over the parameterized digital inputs and this a change of the type

regulation for the duration is possible. The graph is used if it was activated over the corresponding digital

input and no specification of higher priority appears.

Activated if Telecontrol cosPhi = 1:

The type of control is activated if on the telecontrol report a cosPhi-specification of 1 was received and no

specification of higher priority appears.

Note

The activation of graph if on the telecontrol report cosPhi=1 is sent, is possible only with AE

ParkControl Professional.

Configuration of the Q(U) Graph over support points

The Q(U) graph is defined with the help of support points. Support points following one another are connected

over a straight line and thus provide or result in a function over the complete voltage region. In case of lower

voltage less that which is defined at the first support point a constant cosPhi-value is realized which on the

first activated support point. In voltage that is defined higher than at the last support point, a constant cosPhi-

value is realised which was defined at the last activated support point. Accordingly the value pairs of function,

at which the increase of the function changes (compare graph example). The configuration of Q(U) Graph is

coupled on the following conditions:


90

Number of support points must be at least 2 and maximum 4

support points must be activated in an increasing order without gaps

support points are activated over a support point voltage ≠ 0 V

Voltage must be defined in an increasing order and in the same voltage region (Low voltage or Medium voltage)

Note

Provide the voltage of the support points corresponding to the measurement point (Low or Medium voltage).

Example E.ON Bayern:

Support Point 1 2 3 4

Voltage [V] 18350 18600 21400 21650

Reactive Power [cosPhi] -0.95 1.0 1.0 0.95

U

U>

U1

U2

= 20,0 kV

= 21,8 kV

= U> -2% U = 21,4 kV

= U> -0,75% U = 21,65 kV

Figure 7-48 Typical Q(U)-Graph of E.ON Bayern

Example EnBW:


Voltage [V] 19600 21200 0 0

Reactive Power [cosPhi] -0.95 0,95 0 * 0 *

* not relevant

Voltage in standard operation

Over excited

Under excited


91

Figure 7-49 Typical Q(U)-Graph of the EnBW

Configuration of the cosPhi(P) Graph

The cosPhi(P)-Graph enables the telecontrol on the Feed point depending on the currently measured feed

load on the Feed point. It enables the power related reactive power preparation. Condition for the realization

of cosPhi(P)-Graph is the registering of measurement value of the phase voltage and the phase current on

Feed point.

Figure 7-50 Configuration Telecontrol: cosPhi(P)-Graph (Default-Settings)

Parameter

The Limit values and selection possibilities are mentioned in the following table.

Under excited

Over excited


92

Parameter Description Limit Value

cosPhi(P) Control Activation of cosPhi

(P) – regulation The cosPhi(P) Graph can be activated either

directly, over digital inputs for the run time or if

cosPhi = 1 over Telecontrol report was

received.

Deactivated

Activated

Activated by Input


cosPhi=1

Minimum Infeed to

start Reactive

Power by

cosPhi(P)

Minimum infeed for

activation of the

cosPhi(P)

characteristics

In case of falling short of the minimum feed for

longer than 3 minutes the graph is ignored

0…100 %

Minimum of power

modification to

send new value

Hysterisis of the

measured feed

performance/service

New value from the graph is first taken over if

the hysteresis is exceeded in proportion to the

nominal load

1…100 %

Infeed / Reactive

Power

cosPhi(P)

characteristics Upto 4 value pairs [P,cosPhi] as support

points of the cosPhi(P) Graph

P: 0…100 %

cosPhi: -0.9 (capacitive)

…+0.9 (inductive)


There are following types of Graph Activation:

Activated:

Only the cosPhi(P)-Regulation is activated and used, if no specifications of higher priority. No Q(U)-

Graphs or fixed value Q Regulation is used.

Activated by Input:

The type of regulation can be activated over parametrized digital inputs and thus a change of the type of

regulation is enabled for the run time. The graph is used if is activated over the relevant digital Input and

no specifications of higher priority appears.

Activated if Telecontrol cosPhi=1:

The type of regulation is activated is received over telecontrol report cosPhi-Specification of 1 and no

specifications of higher priority appears.

Note

The activation of the graph if sent over telecontrol report cosPhi=1, is only possible with AE

ParkControl professional.

Configuration of cosPhi(P) Graph over Supporting point

The cosPhi(P) Graph is defined with the help of the supporting point. The supporting points following each

other is connected over a straight line and thus a function over the complete power region results. In case

lower power, a constant the first supporting point that is defined is the constant realized on the first activated

supporting point. In case of higher power as the last activated support point is defined a constant cosPhi-

Value is realized which was defined on the last activated support point. Support points are thus value pairs of

the function, on which the increase of the function changes (compare Graph example).

The Configuration of cosPhi(P) Graph is coupled on the following conditions:

Number of support points minimum 2 and maximum 4

Support points must be activated in an increasing order without gaps


93

Support points are activated over a support point (support point power) ≠ 0 % (Exception: support point

1)

Power must be defined in an increasing order

Example:


Infeed [% of nominal Power] 50 100 0 0

Reactive Power [cosPhi] 1 -0.95 0 * 0 *

* not relevant

Figure 7-51 Standard -Graph for cosPhi(P)

Configuration of a fixed Reactive power value Q

The regulation with a fixed Reactive powers values enables the constant preparation of reactive power on the

Feed point in relation to the currently measured feed load on the Feed point. The conditions for the realization

of the type of regulation fixed value Q is the registering of measurement value of phase clamping and the

phase current at the feed point.

Figure 7-52 Configuration Telecontrol: Fixed value Q (Default-Settings)

Parameter The Limit value and selection possibilities are mentioned in the following table.

Under

excited

O

ver

excited


94

Parameter Description Limit value

Fixed Value Control Activation of the

Fixed Value Q

regulation

The type of regulation fixed value Q can be

either directly activated, over digital inputs

for the runtime, or activated if cosPhi = 1 is

received over telecontrol report.

Deactivated

Activated

Activated by Input


cosPhi = 1

Minimum Infeed to

start Reactive Power

by Fixed Value

Minimum infeed

for activation of

the regulatory

fixed value Q

In case of falling short of minimum feed for

longer than 3 Min the graph is ignored

0 … 100 %

Minimum of power

modification to send

new value

Hysteris of

measured infeed

performance/servi

ce

New value from the graph is first taken up if

the hysteresis is exceeded in proportion to

the nominal power

1 … 100 %

Reactive Power Reactive

performance

value

Reactive power which is independent of the

current feed power at the feed point should

be prepared

-99999 … +99999 kVar

(additionally not > 13% of the

nominal feed load, as only an

angle offset of +/- 30 ° is

possible)

Note

The maximum reactive power which is made available depends on the existing feed load and should be correspondingly defined. In partial feed range the preparation of the Reactive power under the circumstances is not possible.


There are the following types of Graph activation:

Activated: Only the type of Regulation fixed value Q is activated and used, if no specification of higher priority appears. No Q(U) Graph or cosPhi(P) Graph is used.

Activated by Input: The type of Regulation can be activated over parametrized digital inputs and thereby a change of the type of regulation for the run time is made possible. The graph is used if it is activated over the relevant digital Input is activated and no specification of higher priority.

Activated if Telecontrol cosPhi = 1: The type of Regulation is activated if over telecontrol report a cosPhi-Specification of 1 was received and no specification of higher priority appears.

Note

The activation of the graph is sent over Telecontrol report cosPhi = 1, is possible only with AE ParkControl

Professional.

7.4.9.8 Configuration of the analog Preparation of Current feed load

Availability: AE ParkControl Classic and Advanced

On this Configuration page the preparation of the current feed load is configured over the analog signal board.

The current feed load is standardized given and gas a proportion to the nominal feed of the system for a

current value.


95

Figure 7-53 Configuration of the analog Preparation of the Actual-Feed load

Parameter

The Limit value and the selection possibilities are mentioned in the following table.


Activation of the signal

output

Standardizing the current output for the present feed load Deactivated

0…20 mA

4…20 mA

Input field for power

value of lower limits

Definition of a standardized straight line for the Defined

analog region, Minimum analog output

-1000…1000 %

Input field for power

value of upper limits

Definition of a standardized straight line for the Defined

analog region, Maximum analog output

-1000…1000 %

In standard cases the limit value lies in the region 0 to 100 %. A feed load of 0 to100 % is given out as signal

0 to 20 mA.

There exist partial specifications for the preparation of the current power designation, for example. 200 % of-

200 % is made available as signal 4 to 20 mA.

In case of parameterizing attention should be paid to the fact, that the power which is fed, has a positive

marking and the power which is consumed has a negative marking.

The background is, that the PV-System is considered in the parameterizing as a generator. The EVU sees the

PV-System frequently as the user, whereby the symbol is precisely exchanged.

Note

If the Analog output of the CPU is not wired, the actual preparation of the feed is activated on this

configuration page. It can be subsequently renewed if necessary.

With "SAVE" the parameter is transferred in the S7-1200.



96

7.4.9.9. Activation of AE ParkControl


On the previous configuration page you can activate the power reduction, the reactive powers regulation and

in the AE ParkControl professionally additionally the telecontrol communication can be activated over global

parameter. Later the functions can be later deactivated for the test purposes independent of each other.

Figure 7-54 Activation of the Function Power reduction, Telecontrol and Reactive power communication

Parameter

The Limit value and selection possibility is mentioned in the following table.


Power Reduction Performance Reduction Activation of power reduction Deactivated

Activated

Reactive Power

Control

Reactive Performance

Control

Global activation of all parametrized

reactive powers type of Regulations Deactivated

Activated

Telecontrol Effective distance

communication

Activation of Telecontrol communication

(Available only in AE ParkControl professional)

Deactivated

Activated

By <SAVE> you confirm the function and enable the run of the park control. Subsequently the local parameterizing of S7-1200 can be completed and a connection of REFUsol Inverter takes place with the S7-

1200 over the Ethernet.

Note

After the Confirmation of the Configuration with "SAVE" the CPU must be started again, to initialize a new run

with the selected configuration.

With "NEXT" you go to the start page of the ParkControl.


97

Configuration Example for AE ParkControl

8.1 AE ParkControl Basic – 4-polar Ripple control receiver

Configuration Example Overview

For the improved understanding here a configuration example is represented for AE ParkControl Basic. For

this purpose the following requirements are assumed:

SIMATIC S7 with Default IP-Settings

Nominal load: 76,8 kW (4 REFUsol 020K)

Transmission cycle: 30 s

Standard values for cosPhi and Power reduction

Datalogging is activated

No sleep mode detection

4 REFUsol 020K over Ethernet with progressive IP-Addresses from 192.168.0.77

4-polar Ripple control receiver power reduction with impulse evaluation

100 % / 60 % / 30 % / 0 %

Reflection of the Inputs for Response to EVU

Diagnosis process for Communication error and active Reduction

Activation of the Power reduction, Telecontrol can remain deactivated

IP-Configuration SIMATIC S7

Figure 8-1 Example of Configuration AE ParkControl Basic: IP-Configuration SIMATIC S7


98

General Parameter

Figure 8-2 Example of Configuration AE ParkControl Basic: General Parameter

Communication with REFUsol Inverters

Figure 8-3 Example of Configuration AE ParkControl Basic: Communication with REFUsol Inverters

Digital and analog Inputs

Figure 8-4 Example of Configuration AE ParkControl Basic: Digital and analog Inputs

Explanation: A “Value” of 100 means, that the inverter outputs 100 % power, a “Value” of 60 means, that the inverter outputs 60 % power.


99

Digital Output and Minimum feed

Figure 8-5 Example of Configuration AE ParkControl Basic: Digital Output and Minimum feed

Activation Power reduction

Figure 8-6 Example of Configuration AE ParkControl Basic: Activation Power reduction

8.2 AE ParkControl Classic - Analog Specification

Overview of Example of Configuration

For the better understanding here an example of configuration for AE ParkControl Classic is represented. For

this purpose, the following requirements are assumed:


Nominal load: 230,4 kW (12 REFUsol 020K)

Transmission cycle: 30 s

No Ramping up or Ramping down and standard values for cosPhi and power reduction


No Sleep mode detection

12 REFUsol 020K over Ethernet with progressive IP-Addresses 192.168.0.101


100

Ripple control receiver with analog specifications cosPhi and Power reduction over 4 … 20 mA Signal

Diagnosis output for Communication error and active Reduction

Analog Preparation for current Feed load

Activation of Power reduction and Telecontrol


Figure 8-7 Example of Configuration AE ParkControl Classic: IP-Configuration SIMATIC S7

General Parameter

Figure 8-8 Example of Configuration AE ParkControl Classic: General Parameter


101


Figure 8-9 Example of Configuration AE ParkControl Classic: Communication with REFUsol Inverters


Figure 8-10 Example of Configuration AE ParkControl Classic: Digital and analog Inputs


102


Figure 8-11 Example of Configuration AE ParkControl Classic: Digital Output and Minimum feed

Preparation of actual Feed load

Figure 8-12 Example of Configuration AE ParkControl Classic: Preparation of actual Feed load

Activation Power reduction and Reactive power

Figure 8-13 Example of Configuration AE ParkControl Classic: Activation Power reduction and Reactive power


103

8.3 AE ParkControl Classic – 14-polar Ripple Control Receiver

Overview on the Example of Configuration

For the better understanding here an example of configuration is represented for ParkControl Classic. For this

purpose the following requirements are assumed:


Nominal load: 340,8 kW (10 REFUsol 020K, 12 REFUsol 013K)

Transmission cycle: 50 s (Default)

No Ramping up and down and standard values for cosPhi and power reduction


Active Sleep mode detection

22 REFUsol Inverter over the Ethernet with progressive IP-Addresses from 192.168.0.112

Ripple control receiver with 4-polar Power reduction as statistical specification over

100 % / 60 % / 30 % / 0 %

Ripple control receiver with10-polar cosPhi-Specification

Diverse Diagnose output

Analog Preparation 4... 20 mA for current Feed load

Activation of the Power reduction and Reactive power


Figure 8-14 Example of Configuration AE ParkControl Classic: IP-Configuration SIMATIC S7


104

General Parameter

Figure 8-15 Example of Configuration AE ParkControl Classic: General Parameter

Communication with REFUsol Inverter

Figure 8-16 Example of Configuration AE ParkControl Classic: Communication with REFUsol Inverter


105


Figure 8-17 Example of Configuration AE ParkControl Classic: Digital and analog inputs


Figure 8-18 Example of Configuration AE ParkControl Classic: Digital Output and Minimum feed


106

Preparation of current Feed load

Figure 8-19 Example of Configuration AE ParkControl Classic: Preparation current Feed load

Activation Power reduction and Reactive power

Figure 8-20 Example of Configuration AE ParkControl Classic: Activation Power reduction and Reactive power

8.4 AE ParkControl Advanced – 4-polar Ripple control receiver and Q(U)


For the better understanding here an example of configuration for AE ParkControl advanced is

represented. For this purpose the following Requirements are assumed:

SIMATIC S7 with user specific IP-Settings (192.168.1.100)

Nominal load: 1920 kW (3 REFUpmu with 100 REFUsol 020K over RS485)


Ramoing up and down with max. 20 % Nominal load / minute




3 REFUpmu over Ethernet with progressive IP-Addresses from 192.168.0.105

Ripple control receiver with 4-polar Power reduction as static specification 100 % / 60 % / 30 % / 0 %


107

Diverse Diagnosis

Activated Q(U)-Graph as per specification EnBW Network

No analog Preparation for current Feed load

Activation of the Power reduction and Reactive power


Figure 8-21 Example of Configuration AE ParkControl Advanced: IP-Configuration SIMATIC S7

General Parameter

Figure 8-22 Example of Configuration AE ParkControl Advanced: General Parameter


108

Communication with REFUsol Inverter

Figure 8-23 Example of Configuration REFUsol Inverter: Communication with REFUsol Inverter


Figure 8-24 Example of Configuration REFUsol Inverter: Digital and analog Inputs


109


Figure 8-25 Example of Configuration AE ParkControl Advanced: digital Output and Minimum feed

Reactive power general Parameter and Q(U)-Graph

Figure 8-26 Example of Configuration (Example AE ParkControl Advanced).: Reactive power general Parameter and Q(U)-Graph


110

Reactive Power cosPhi(P) and Fixed value Q

Figure 8-27 Example of Configuration (Example AE ParkControl Advanced): Reactive power cosPhi(P) and Fixed value Q

No Preparation current Feed load

Figure 8-28 Example of Configuration (Example AE ParkControl Advanced): No Preparation current Feed load

Activation Power reduction and Telecontrol

Figure 8-29 Example of Configuration (Example AE ParkControl Advanced): Activation Power reduction and Telecontrol


111

8.5 AE ParkControl Professional – 4-polar Ripple control Receiver

8.6 TeleControl Specification

Overview of Example of Configuration

For the better understanding here an example of configuration for AE ParkControl Professional is

represented. For this purpose the following requirements are assumed:


Nominal load: 1920 kW (3 REFUpmu with 100 REFUsol 020K over RS485)

Transmission cysle: 50 s (Default)

No Ramping up and down


Datalogging is deactivated



Diverse Individual communications

No local Diagnosis output

Power reduction in % over Telecontrol report

Telecontrol cosPhi over Telecontrol report

Q(U)-Graph is run when cosPhi = 1 over Telecontrol report

Telecontrol report with diverse Measurement values, Theoretical value reversal and Diagnosis

communication

Activation of Power reduction and Telecontrol


112


Figure 8-30 Example of Configuration AE ParkControl Professional: IP-Configuration SIMATIC S7

General Parameter

Figure 8-31 Example of Configuration AE ParkControl Professional: General Parameter


113

Telecontrol report General and Theoretical Values

Figure 8-32 Example of Configuration AE ParkControl Professional: Telecontrol report General and Theoretical Values

Telecontrol report Measured Values and Diagnostics Communication

Figure 8-33 Example of Configuration AE ParkControl Professional: Telecontrol report Measured Values and Diagnostics Communication


114


Figure 8-34 Example of Configuration AE ParkControl Professional: Communication with REFUsol Inverters

Digital and Analog Inputs

Figure 8-35 Example of Configuration AE ParkControl Professional: Digital and Analog Inputs


115


Figure 8-36 Example of Configuration AE ParkControl Professional: Digital Output and Minimum feed

Reactive Power General Parameter and Q(U)-Graph

Figure 8-37 Example of Configuration AE ParkControl Professional: Reactive Power General Parameter and Q(U)-Graph


116

Reactive power cosPhi(P) and Fixed Value Q

Figure 8-38 Example of Configuration AE ParkControl Professional: Reactive power cosPhi(P) and Fixed Value Q

Activation Power Reduction, Telecontrol and Telecontrol Communication

Figure 8-39 Example of Configuration AE ParkControl Professional: Activation Power Reduction, Telecontrol and Telecontrol Communication


117

8.7 AE ParkControl Professional 4-polar Ripple control receiver and Telecontrol specification incl. Dynamic Graph change


For the better understanding here an example of configuration for AE ParkControl professional is represented.

For this purpose the following requirements are assumed:


Nominal load: 1939,2 kW (3 REFUpmu with 100 REFUsol 020K over RS485 and 1 REFUsol 020K over

Ethernet)


No Ramping up and down


Datalogging is deactivated



1 REFUsol 020K over Ethernet on the Address 14 with connected Sensor for Radiation and Outside

temperature

Receiver with 4-polar Power reduction as static Specification 100 % / 60 % / 30 % / 0 %

Diverse Diagnostics output

Power reduction in % over Telecontrol report

cosPhi(P)-Graph over digital Input (impulse) can be activated

Q(U)- Graph over digital Input (impulse) can be activated

Digital Inputs for the activation of the Graphs comes over Individual command from Telecontrol report ⇒

Wiring binary Output on binary Inputs

Telecontrol report with diverse Measurement values, Theoretical value reversal and Diagnostics commun

ication


118


Figure 8-40 Example of Configuration AE ParkControl Professional: IP-Configuration SIMATIC S7

Example of Configuration AE ParkControl Professional: General Parameter

Figure 8-41 Example of Configuration AE ParkControl Professional: General Parameter


119

Example of Configuration AE ParkControl Professional: Telecontrol report General and Theoretical

values

Figure 8-42 Example of Configuration AE ParkControl Professional: Telecontrol report General and Theoretical values


120

Example of Configuration AE ParkControl Professional: Telecontrol report Measurement values and

Diagnostics communication

Figure 8-43 Example of Configuration AE ParkControl Professional: Telecontrol report Measurement values and Diagnostics communication

Example of Configuration AE ParkControl Professional: Communication with REFUsol Inverters

Figure 8-44 Example of Configuration AE ParkControl Professional: Communication with REFUsol Inverters


121

Example of Configuration AE ParkControl Professional: Digital and analog Inputs

Figure 8-45 Example of Configuration AE ParkControl Professional: Digital and analog Inputs


122

Example of Configuration AE ParkControl Professional: Digital Output and Minimum feed

Figure 8-46 Example of Configuration AE ParkControl Professional: Digital Output and Minimum feed

Example of Configuration AE ParkControl Professional: Reactive power general Parameter and Q(U)-

Graph

Figure 8-47 Example of Configuration AE ParkControl Professional: Reactive power general Parameter and Q(U)-Graph


123

Example of Configuration AE ParkControl Professional: Reactive power cosPhi(P) and Fixed value Q

Figure 8-48 Example of Configuration AE ParkControl Professional: Reactive power cosPhi(P) and Fixed value Q

Example of Configuration AE ParkControl Professional: Power reduction, Telecontrol and Telecontrol

communication

Figure 8-49 Example of Configuration AE ParkControl Professional: Power reduction, Telecontrol and Telecontrol communication


124


125

Current Status AE ParkControl

The status page enables an overview on the present system status. From this page a large volume of

information can be derived. The page is updated in the background every 10 seconds, whereby the

represented values are current.

The status page is divided into 7 Sections, which are available in relation to the selected AE ParkControl

variants:

Section Availability AE ParkControl

Status of the Communication and the Measurement value

registering

Basic, Classic, Advanced, Professional

Status of the digital and analog Input and Output Classic, Advanced, Professional

Status of the current Feed load Basic, Classic, Advanced, Professional

Status of the Function Power reduction Basic, Classic, Advanced, Professional

Status of the Function Telecontrol Basic, Classic, Advanced, Professional

Representation of the Measurement values at the Feed

point


Access on available Datalogs Basic, Classic, Advanced, Professional

Figure 9-1 Extract of the start page with current status of AE ParkControl

The individual sections are described in detail in the following chapters.


126

9.1 Status of the Communication and the Measurement value registering

This section Serves the overview of the Current system status in Reference to the Communication. Upto 128 individual statuses per REFUsol Inverter, the Status of the connected Measurement value registering with the

SENTRON PAC, as well as the Communication status over the Telecontrol report 60870-5-101 is

represented.

Figure 9-2 Status of the Communication and the Measurement value registering

In the Table form, for every REFUsol Inverter it is represented, whether the Communication runs error free or

whether problems have appeared. Apart from that it is clear which IP-Addresses were configured and how

these are distributed on 8 available connection resources. The Communication status is clear on the basis of

the background color of the present square.

The color legend is represented on the page and is illustrated in the following table:

Table 9-1 Color legend for Status of Communication and Measurement value registering

Communication zu REFUsol Inverter

Green Communication to REFUsol Inverter error free

Red Communication to REFUsol Inverter disturbed

Orange No Communication to REFUsol Inverter and Sleep mode detection active

Grey No REFUsol Inverter parametrized (wild card)

Measurement value Registering

Green Measurement with SENTRON PAC parametrized and error free

Red Measurement with SENTRON PAC parametrized but disturbed

Grey No Measurement with SENTRON PAC parametrized

Communication over Telecontrol report

Green Communication over Telecontrol report error free

Red Communication over Telecontrol report disturbedd

In activated Sleep mode detection of the Inverter even this information is visible at place.


127

9.2 Status of the digital and analog Input- and Output

This section serves for the representation of the connected periphery. The digital as well as analog inputs and

the digital outputs are represented.

Figure 9-3 Status of the digital and analog Input and Output

The current signal status at the available digital inputs and outputs are represented. In the AE ParkControl

variants classic to professional corresponds to the 14 digital inputs and 10 digital output. It is visible over tool

tips in the digital inputs and outputs, with which function this input was configured, thus for example, with

power reduction 30 %.

Figure 9-4 Example status with Tooltips

The color legend for the digital inputs is represented in the following table.

Digital Inputs

Green Digital Input remains

Red Digital Input does not remain

Digital Output

Green Digital Output is placed

Red Digital Output is not placed

Apart from that the signal at the analog inputs with correspondingly configured standardized is represented, all

the same only if they were parametrized.


128

9.3 Status of the current Feed load

In this section all information on the topic current feed is represented.

Figure 9-5 Status of the current Feed load

Following information is visible:

Activation similar to the Output of the current Feed load

Current Feed load in KW

Current Feed load in reference to the Nominal load in %

At this place with one blink it is visible, as to how much power the PV-System currently delivers. The value of

the feed load is either determined over the SENTRON PAC, if a power measurement is present, or however, directly lead and summarized from the REFUsol Inverters. The update cycle of the feed load in the second

case, is dependent on the transmission cycle of the new specification, as these are directly coupled with each

other.

9.4 Status of the Function Power reduction

This section serves for the overview for the topic power reduction. It contains the following information:

Activation status of the Function Power reduction

Current Specification in % (value or "DEFAULT")

Momentary Transmission value in %

Global Status of the Function Power reduction

Source of the Specification value


129

Figure 9-6 Status of the Function Power reduction

If from the theoretical value sources an active specification is provided, the parametrized default-value for the

power reduction is sent. In case of the errors that appear this value is sent. The specification value is visible in

the status window under the point "Current Specification in %", in which then "DEFAULT" is placed instead of

a specification value.

The transmission value can differentiate itself from the specification value, if corresponding ramp up and ram

down is parametrized. First as per a specific number of transmission cycles then the specification value is

sent.

Sources for the Power reduction specification

For possible power reduction there exist 3 sources, which are available as per AE ParkControl variant:

Digital Specification

Analog Specification (only in AE ParkControl Classic to Professional)

Telecontrol report (only in AE ParkControl Professional)

Signalizing of disturbances

A Disturbance of the Power reduction is signaled over the global Status. Cause for a disturbance can be:

Unplausible Specification, for example, more than 2 digital Inputs appearing or Analog input < 3,9 mA in

the selection 4…20 mA

After 5 Transmission cycles the current Feed load on the Feed point > Specification value

Color legends for the Status of Power reduction

The Color legend for the Status of Power reduction can be derived from the following table.

Function Power reduction

Green Function Power reduction error free

Red Function Power reduction disturbed

Theoretical Value Sources

Green Theoretical value source active

Grey Theoretical value source inactive


130

9.5 Status of the Function Telecontrol

This Section serves for the overview for the subject Telecontrol. It contains the following information:

Activation status of the Function Telecontrol

Current Specification cosPhi (Value or "DEFAULT")

Momentary Transmission value cosPhi

Global Status of the Function Telecontrol

Source of the Specification values

Lower deviation of Minimum feed load for Digital/Analog Specification cosPhi

Lower deviation of Minimum feed load for Q(U) Graph

Lower deviation Minimum feed load for cosPhi(P) Graph

Lower deviation Minimum feed load for Fixed value Q Type of Regulation

Lower deviation Minimum feed load for Specification over Telecontrol report

Figure 9-7 Status of the Function Telecontrol including Minimum feed load

If from the theoretical value sources an active specification ensues, then the parametrized Default-Value for

the cosPhi is sent. Even in case of errors that appear this value is sent. In the status window under the point

"Current Specification cosPhi" is visible, in which then "DEFAULT" is represented instead of a specification

value.


131

The Transmission value can differentiate itself from the specification value, if corresponding to the cosPhi a

post regulation is done on the feed point. This requires a voltage- and Current measurement over the

SENTRON PAC. With the help of the regulation the transmission value is changed with every transmission

cycle over a system offset, to reach the Specification value on the feed point.

A parametrized type of Regulation is used only if the parametrized Minimum feed load of the present type of

regulation is present. It is visible in the lower section of the Status of telecontrol.

Sources for Reactive power specification

For possible Reactive power specification there exist 6 Sources, which are available depending on the AE

ParkControl variant:

Digital Specification

Analog Specification (only in AE ParkControl Classic to Professional)

Q(U) Graph (only in AE ParkControl Advanced and Professional)

cosPhi(P) Graph (Only in AE ParkControl Advanced and Professional)

Fixed value Q Regulation (only in AE ParkControl Advanced and Professional)

Telecontrol report (only in AE ParkControl Professional)

Signalizing of Disturbances

A Disturbance of the Telecontrol is signaled over the global Status. Cause for a disturbance can be:

Unplausible specification, for example more than 2 type of Regulations with the same Priority active or

Analog input < 3,9mA in the selection 4.20 mA

Current cosPhi-Value on the feed point differentiates itself as per the 5 Transmission cycles by more than

±0,01 of the cosPhi-Specification value

Color Legend for the Status of the Telecontrol

The color legend for the Status of the Telecontrol can be derived from the following tables.

Function Telecontrol

Green Function Telecontrol error free

Red Function Telecontrol disturbed

Theoretical value sources

Green Theoretical value source active

Grey Theoretical value source inactive

Type of regulation / Minimum feed load

Green Type of Regulation parametrized and sufficient feed load available

Red Type of Regulation parametrized but not sufficient feed load

Grey Type of Regulation not parametrized


132

9.6 Representation of the Measurement Values on the Feed point

Availability: AE ParkControl Advanced and Professional

In this section the relevant Measurement values of the SENTRON PAC are represented. The Units of all

physical sizes are provided. The following 17 Measurement values are represented in the Sum:

Power Phase/Phase and Phase/N

Current per Phase and N

Network frequency

cosPhi pro Phase

Active power

Reactive power

Apparent

9.7 Access on available Datalogs

Availability: AE ParkControl Classic to Professional

In this section the Datalog-Files are available. Precondition for this is the Activation of the Function in the

Parameterizing. Presently a Datalog for the power reduction and a Datalog for the Telecontrol generated.

Every Datalog that 1500 Entries and is realized as circulation buffer. The oldest Values are overwritten while

reaching the 1500 entries.

Basically every new Specification is Reported, independent from which theoretical value source the

Specification originates. A Limitation exists in the very dynamic type of Regulation Q(U), cosPhi(P) and fixed

value Q. Here only the change for this type of Regulation is reported, but no changes ensure from this type of

Regulation.

Figure 9-8 Access on the available Datalogs

The Datalog-File is displayed in the *.csv format and can be displayed with Microsoft Office Excel comfortably

or absolutely in every Text editor. Every entry in the Datalog-File consists of more information, which can be

derived from the following table:


133

No. Column Description

1 Entry Number Log entries are through numbered, in overall of 1500

entries are further numbered despite that

2 Date Date of Log entry

3 Local time Local time of the log entry: Summer-/Winter time is thus

considered

4 Theoretical Value New Specification value cosPhi bzw. Power reduction

5 Theoretical value source The Source of the theoretical value is logged as clear text,

depending on the Variant different sources are possible

Note

The Datalog-File is displayed completely depending on the used browsers, if it is previously stored on the

system. If you open the File directly online, under the circumstances only the last 10 Entries are represented.

Figure 9-9 Example: Datalog-File Power reduction in Excel


134

Figures 9-10 Example: Datalog-File power reduction in Excel as per Distribution in Columns

Note

If you open the *.csv File with Excel, you can go over the Function "Fields to be distributed in columns" with a

"comma" which represents different Information per Entry in column.

Figure 9-11 Example: Datalog-File Telecontrol in Excel


135

10 Commissioning and Maintenance

10.1 Exchange Concept in CPU-Defective

Defective CPU to be exchanged

In case of error the exchange of a defective CPU a hardware upgrade is handled as per the instructions. For

this purpose carry out the following steps:

1. Connect the power supply of the CPU

2. Remove the inserted SIMATIC Memory Card

3. Release the Clamping bracket above and below on the CPU and remove the Ethernet-Cable

4. Replace the defective CPU by a new CPU of the same type and insert a fresh the clamping bracket and the Ethernet-Cable

5. Secure the Datalog-Files (csv.-Files) of the SD-Cards on your local Computer

6. Delete the Datalog-Files of the SD-Card (see Note)

7. Insert the SIMATIC Memory Card in the SD-Card-Slot provided for that

8. Connect the Power Supply of the CPU

9. Wait upto the “RUN / STOP” LED green illuminates

10. Carry out a fresh the Configuration of AE ParkControl Variants with the help of the Prepared data (see Chapter "Data for IBS-Preparation) (Page 25)" and "Parameterization) (Page 37)")

Note

That, the old Datalog-Files cannot be continued on the basis of changed Log-Structure.


136

11 Technical Data

AE ParkControl Basic Classic Advanced Professional

APPLICATION

Typical Region < 100 kWp > 100 kWp Medium Voltage System

Telecontrol connection

HARDWARE

Regulation and Control Unit 1211C 1214C 1214C 1215C

Necessary Accessory module - SB1232 SB1232 CB1241

Multi function measuring equipment - - Switched Ethernet

Switched Ethernet

COMMUNICATION

Number of Participants 8 128 128 128

Parametrized IP-Start address Yes Yes Yes Yes

ON-/ OUTPUT

Digital Inputs for Active-/Reactive power 6 14 14 14

Impulse processing Yes Yes Yes Yes

Analog input for Active-/Reactive power - 2 2 2

Selection type of Regulation Reactive power - - Yes Yes

Single-/Double communication (60870-5-101) - - - 14/2

Single-/Double command (60870-5-101) - - - 10/2

Status output 4 10 10 10

IST-Feed load (analog 0/4…20mA) - Yes Yes -

CONTROL AND REGULATION

Transmission cycle [sec.] 10…60 10…60 10…60 10…60

Ramping up and ramping down behavior in Reduction - Yes Yes Yes

Static Theoretical value specification P [%] Yes Yes Yes Yes

Static Theoretical value specification Q [cosPhi] Yes Yes Yes Yes

Q(U)-Graph/cosPhi(U)-Graph - - Yes Yes

CosPhi(P)-Graph - - Yes Yes

Q Fixed value - - Yes Yes

Telecontrol report 60870-5-101 - - - Yes

MONITORING

InOut binary/analog - Yes Yes Yes

Active power reduction Basic Expanded Expanded Expanded

Telecontrol Basic Expanded Expanded Expanded

Feed load Yes Yes Yes Yes

Operation measurement values - - Yes Yes

ACCESSORIES

Report converter 60870-5-104 - - - optional


137

12 Documentation

Documentation for the System Components

AE ParkControl is part of a Systems. Further information for the System components can be located in the

present Product documentation in the Internet:

Product Documentation

SIMATIC S7-1200, CM 1241 RS485 System Handbook "S7-1200 Automation system"

(http://support.automation.siemens.com/WW/view/de/36932465)

REFUsol Inverter Operation Instructions REFUsol Inverter

(http://europe.refusol.com/de/downloads/downloads-de/)

REFUpmu Operation Instructions REFUpmu

(http://europe.refusol.com/de/downloads/downloads-de/)

SENTRON PAC4200 System Handbook "Multi function measuring equipment SENTRON PAC4200"


SENTRON Switched Ethernet

Profinet Module

Operation Instructions "SENTRON SWITCHED ETHERNET PROFINET Module"



http://europe.refusol.com/de/downloads/downloads-de/

http://europe.refusol.com/de/downloads/downloads-de/




138

13 Contact

In case of enquiry on disturbances or Technical Problems, please refer to:

Service-Hotline: +49 7123 969 202 (on Working days from 8:00 – 17:00 hrs, MEZ)

Telefax: +49 7123 969 30202

E-Mail: [email protected] H

Following Data should be already maintained:

Precise description of error, evt. HEX-Code of Error (P0017.00).

mailto:[email protected]

All Data without Warranty

Technical Changes and Errors to be noted

REFUsol GmbH

Uracherstrabe 91

D-72555 Metzingen / Deutschland

Tel: +49 7123 969-202

Fax: +49 7123 969-30202

[email protected]

www.refusol.com

Type No.: 0034780

mailto:[email protected]

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