Motor Protection and Control REM615 IEC 60870-5-103 Point ... · Motor Protection and Control REM615 IEC 60870-5-103 Point List Manual. Document ID: 1YHT530007D05 Issued: 2014-05-16

Relion® 615 series

Motor Protection and ControlREM615IEC 60870-5-103 Point List Manual

Document ID: 1YHT530007D05Issued: 2014-05-16

Revision: BProduct version: 4.1

© Copyright 2014 ABB. All rights reserved

CopyrightThis document and parts thereof must not be reproduced or copied without writtenpermission from ABB, and the contents thereof must not be imparted to a thirdparty, nor used for any unauthorized purpose.

The software or hardware described in this document is furnished under a licenseand may be used, copied, or disclosed only in accordance with the terms of suchlicense.

TrademarksABB and Relion are registered trademarks of the ABB Group. All other brand orproduct names mentioned in this document may be trademarks or registeredtrademarks of their respective holders.

WarrantyPlease inquire about the terms of warranty from your nearest ABB representative.

ABB

Nanjing SAC Power Grid Automation Co., Ltd.

No. 11 Phoenix Road, Jiangning Development Zone

211100 Nanjing

China

Telephone: +86 25 51183000

Facsimile: +86 25 51183883

Customer hotline: 4008876268

http://www.abb.com/substationautomation

HTTP://WWW.ABB.COM/SUBSTATIONAUTOMATION

DisclaimerThe data, examples and diagrams in this manual are included solely for the conceptor product description and are not to be deemed as a statement of guaranteedproperties. All persons responsible for applying the equipment addressed in thismanual must satisfy themselves that each intended application is suitable andacceptable, including that any applicable safety or other operational requirementsare complied with. In particular, any risks in applications where a system failure and/or product failure would create a risk for harm to property or persons (including butnot limited to personal injuries or death) shall be the sole responsibility of theperson or entity applying the equipment, and those so responsible are herebyrequested to ensure that all measures are taken to exclude or mitigate such risks.

This product has been designed to be connected and communicate data andinformation via a network interface which should be connected to a securenetwork. It is the sole responsibility of the person or entity responsible for networkadministration to ensure a secure connection to the network and to take thenecessary measures (such as, but not limited to, installation of firewalls, applicationof authentication measures, encryption of data, installation of anti virus programs,etc.) to protect the product and the network, its system and interface included,against any kind of security breaches, unauthorized access, interference, intrusion,leakage and/or theft of data or information. ABB is not liable for any such damagesand/or losses.

This document has been carefully checked by ABB but deviations cannot becompletely ruled out. In case any errors are detected, the reader is kindly requestedto notify the manufacturer. Other than under explicit contractual commitments, inno event shall ABB be responsible or liable for any loss or damage resulting fromthe use of this manual or the application of the equipment.

ConformityThis product complies with the directive of the Council of the EuropeanCommunities on the approximation of the laws of the Member States relating toelectromagnetic compatibility (EMC Directive 2004/108/EC) and concerningelectrical equipment for use within specified voltage limits (Low-voltage directive2006/95/EC). This conformity is the result of tests conducted by ABB inaccordance with the product standards EN 50263 and EN 60255-26 for the EMCdirective, and with the product standards EN 60255-1 and EN 60255-27 for the lowvoltage directive. The product is designed in accordance with the internationalstandards of the IEC 60255 series.

Table of contents

Section 1 Introduction.......................................................................3This manual........................................................................................3Intended audience..............................................................................3Product documentation.......................................................................4

Product documentation set............................................................4Document revision history.............................................................4Related documentation..................................................................5

Symbols and conventions...................................................................5Symbols.........................................................................................5Document conventions..................................................................5Functions, codes and symbols......................................................6

Section 2 IEC 60870-5-103 data mappings.....................................9Overview.............................................................................................9Point list for REM615 Ver.4.1 MC01-03 and MC51..........................11

Section 3 Interoperability profile for 615 series IEC60870-5-103...................................................................23Physical layer...................................................................................23

Electrical interface.......................................................................23Optical interface...........................................................................23Transmission speed....................................................................23

Link layer..........................................................................................23Application layer...............................................................................24

Transmission mode for application data......................................24COMMON ADDRESS of ASDU..................................................24Selection of standard information numbers in monitordirection.......................................................................................24

System functions in monitor directions...................................24Status indications in monitor direction....................................24Supervision indications in monitor direction...........................25Earth fault indications in monitor direction..............................25Fault indications in monitor direction......................................25Auto-reclosure indications in monitor direction.......................26Measurands in monitor direction............................................27Generic functions in monitor direction....................................27

Selection of standard information numbers in controldirection.......................................................................................27

System functions in control direction......................................27Generic functions in monitor direction....................................27

Table of contents

REM615 1Point List Manual

Basic application functions..........................................................28Miscellaneous..............................................................................28

Section 4 Glossary.........................................................................29

Table of contents

2 REM615Point List Manual

Section 1 Introduction

1.1 This manual

The point list manual describes the outlook and properties of the data pointsspecific to the IED. The manual should be used in conjunction with thecorresponding communication protocol manual.

1.2 Intended audience

This manual addresses the communication system engineer or system integratorresponsible for pre-engineering and engineering for communication setup in asubstation from an IED perspective.

The system engineer or system integrator must have a basic knowledge ofcommunication in protection and control systems and thorough knowledge of thespecific communication protocol.

1YHT530007D05 B Section 1Introduction


1.3 Product documentation

1.3.1 Product documentation set

Pla

nn

ing

&

pu

rch

ase

En

gin

ee

rin

g

Insta

llatio

n

Co

mm

issio

nin

g

Op

era

tio

n

Ma

inte

na

nce

De

co

mm

issio

nin

g,

de

insta

llatio

n &

dis

po

sa

l

Quick start guide

Quick installation guide

Brochure

Product guide

Operation manual

Installation manual

Connection diagram

Engineering manual

Technical manual

Application manual

Communication protocol manual

IEC 61850 Engineering guide

Point list manual

c

c

GUID-12DC16B2-2DC1-48DF-8734-0C8B7116124C V1 EN

Figure 1: The intended use of documents during the product life cycle

Product series- and product-specific manuals can be downloadedfrom the ABB Website http://www.abb.com/relion.

1.3.2 Document revision historyDocument revision/date Product version HistoryA/2010-07-02 3.0 First release

B/2014-05-16 4.1 Content updated to correspond to theproduct version

Download the latest documents from the ABB web sitehttp://www.abb.com/substationautomation.

Section 1 1YHT530007D05 BIntroduction


http://www.abb.com/relion

HTTP://WWW.ABB.COM/SUBSTATIONAUTOMATION

1.3.3 Related documentationName of the document Document IDIEC 60870-5-103 Communication Protocol Manual 1MRS756710

1.4 Symbols and conventions

1.4.1 Symbols

The caution icon indicates important information or warning relatedto the concept discussed in the text. It might indicate the presenceof a hazard which could result in corruption of software or damageto equipment or property.

The information icon alerts the reader of important facts andconditions.

The tip icon indicates advice on, for example, how to design yourproject or how to use a certain function.

Although warning hazards are related to personal injury, it is necessary tounderstand that under certain operational conditions, operation of damagedequipment may result in degraded process performance leading to personal injuryor death. Therefore, comply fully with all warning and caution notices.

1.4.2 Document conventionsA particular convention may not be used in this manual.

• Abbreviations and acronyms are spelled out in the glossary. The glossary alsocontains definitions of important terms.

• Push button navigation in the LHMI menu structure is presented by using thepush button icons.To navigate between the options, use and .

• Menu paths are presented in bold.Select Main menu/Settings.

• LHMI messages are shown in Courier font.To save the changes in non-volatile memory, select Yes and press .

• Parameter names are shown in italics.The function can be enabled and disabled with the Operation setting.

• Parameter values are indicated with quotation marks.



The corresponding parameter values are "On" and "Off".• IED input/output messages and monitored data names are shown in Courier font.

When the function starts, the START output is set to TRUE.• This document assumes that the parameter setting visibility is "Advanced".

1.4.3 Functions, codes and symbolsTable 1: REM615 functions, codes and symbols

Function IEC 61850 IEC 60617 IEC-ANSIProtection

Three-phase non-directional overcurrentprotection, low stage PHLPTOC1 3I> (1) 51P-1 (1)

Three-phase non-directional overcurrentprotection, instantaneous stage PHIPTOC1 3I>>> (1) 50P/51P (1)

Non-directional earth-fault protection, low stage EFLPTOC1 Io> (1) 51N-1 (1)

Non-directional earth-fault protection, high stage EFHPTOC1 Io>> (1) 51N-2 (1)

Directional earth-fault protection, low stage DEFLPDEF1 Io> -> (1) 67N-1 (1)

Three-phase undervoltage protection PHPTUV1 3U< (1) 27 (1)

Positive-sequence undervoltage protection PSPTUV1 U1< (1) 47U+ (1)

Negative-sequence overvoltage protection NSPTOV1 U2> (1) 47O- (1)

Frequency protection FRPFRQ1 f>/f<,df/dt (1) 81 (1)

FRPFRQ2 f>/f<,df/dt (2) 81 (2)

Negative-sequence overcurrent protection formotors

MNSPTOC1 I2>M (1) 46M (1)

MNSPTOC2 I2>M (2) 46M (2)

Loss of load supervision LOFLPTUC1 3I< 37

Motor load jam protection JAMPTOC1 Ist> 51LR

Motor start-up supervision STTPMSU1 Is2t n< 49,66,48,51LR

Phase reversal protection PREVPTOC1 I2>> 46R

Thermal overload protection for motors MPTTR1 3Ith>M 49M

Circuit breaker failure protection CCBRBRF1 3I>/Io>BF 51BF/51NBF

Master trip TRPPTRC1 Master Trip (1) 94/86 (1)

TRPPTRC2 Master Trip (2) 94/86 (2)

Arc protection ARCSARC1 ARC (1) 50L/50NL (1)

ARCSARC2 ARC (2) 50L/50NL (2)

ARCSARC3 ARC (3) 50L/50NL (3)

Multi-purpose protection MAPGAPC1 MAP (1) MAP (1)

MAPGAPC2 MAP (2) MAP (2)





Table continues on next page

Section 1 1YHT530007D05 BIntroduction


Function IEC 61850 IEC 60617 IEC-ANSIControl

Circuit-breaker control CBXCBR1 I <-> O CB I <-> O CB

Disconnector control DCXSWI1 I <-> O DCC (1) I <-> O DCC (1)

DCXSWI2 I <-> O DCC (2) I <-> O DCC (2)

Earthing switch control ESXSWI1 I <-> O ESC I <-> O ESC

Disconnector position indication DCSXSWI1 I <-> O DC (1) I <-> O DC (1)

DCSXSWI2 I <-> O DC (2) I <-> O DC (2)

DCSXSWI3 I <-> O DC (3) I <-> O DC (3)

Earthing switch indication ESSXSWI1 I <-> O ES (1) I <-> O ES (1)

ESSXSWI2 I <-> O ES (2) I <-> O ES (2)

Emergergency startup ESMGAPC1 ESTART ESTART

Condition monitoring

Circuit-breaker condition monitoring SSCBR1 CBCM CBCM

Trip circuit supervision TCSSCBR1 TCS (1) TCM (1)

TCSSCBR2 TCS (2) TCM (2)

Current circuit supervision CCRDIF1 MCS 3I MCS 3I

Fuse failure supervision SEQRFUF1 FUSEF 60

Runtime counter for machines and devices MDSOPT1 OPTS OPTM

Measurement

Disturbance recorder RDRE1 - -

Three-phase current measurement CMMXU1 3I 3I

Sequence current measurement CSMSQI1 I1, I2, I0 I1, I2, I0

Residual current measurement RESCMMXU1 Io In

Three-phase voltage measurement VMMXU1 3U 3U

Residual voltage measurement RESVMMXU1 Uo Vn

Sequence voltage measurement VSMSQI1 U1, U2, U0 U1, U2, U0

Three-phase power and energy measurement PEMMXU1 P, E P, E

RTD/mA measurement XRGGIO130 X130 (RTD) X130 (RTD)

Frequency measurement FMMXU1 f f



8

Section 2 IEC 60870-5-103 data mappings

2.1 Overview

These tables show the default point definitions. The user is able to freely remap allthese data. In that case PCM600 can provide an updated point list export of the newoutlook.

Indications and controls table columns

IEC 61850 name Internal signal that is mapped to the IEC 60870-5-103 point.Expressed in the form 'Logical Device.Logical Node.DataObject.Data Attribute'.

AFL-Common SA name AFL name of the corresponding data signal.

Description Signal description.

DPI value Value description. DPI value 10 means ON and value 01means OFF.

FUN Default Function Type definition for the point. Observe thatFunction Type 0 means that FUN in practice contains thegiven Device Function Type. The user-definable FunctionType definition is set to the same FUN value as default.

INF Default Information Number definition for the point. The user-definable Information Number definition is set to the sameINF value as default.

InUse 1 means that the point is taken in use as default, and 0 thatthe point is not in use as default.

ASDU ASDU point type. 1 and 2 are indications in monitoringdirection. 20 means that the point is controllable.

GI Default setting for General Interrogation. 1 means ON, 0means OFF.

Coding IEC 60870-5-103 DPI value coding. 1 means that the pointshows OFF (01) and ON (10) values only. 2 means that thepoint shows values Intermediate (00), OFF (01), ON (10)and Error (11).

Class 2 data table columns

Index Value position within the Class2 frame.

IEC 61850 name Internal signal that is mapped to the IEC 60870-5-103 point.

Description Signal description.

Default scale Value that corresponds to the maximum IEC 60870-5-103measurand value 1.


1YHT530007D05 B Section 2IEC 60870-5-103 data mappings


Frame No6 Shows if the value is present in Class2 frame 6.

Frame No7 Shows if the value is present in Class2 frame 7.

Comment Additional information.

Section 2 1YHT530007D05 BIEC 60870-5-103 data mappings


2.2 Point list for REM615 Ver.4.1 MC01-03 and MC51



Tabl

e 2:

Indi

catio

ns a

nd c

ontro

ls

IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

Dev

ice

func

tion

type

- st

anda

rd d

ata

LD0.

LLN

0.LE

DR

s1.c

tlVal

-LE

D re

set

10=R

eset

indi

catio

ns a

nd a

larm

LED

s0

191

200

1

LD0.

LLN

0.Be

h.st

Val (

Test

mod

e)-

Test

mod

e10

=Tes

t mod

e O

N, 0

1=Te

st m

ode

OFF

021

11

11

LD0.

I3C

GG

IO1.

ActS

G.c

tlVal

-Pa

ram

eter

set

ting

grou

p 1

10=S

ettin

g gr

oup

1 in

use

023

11,

201

1LD

0.I3

CG

GIO

1.Ac

tSG

.ctlV

al-

Para

met

er s

ettin

g gr

oup

210

=Set

ting

grou

p 2

in u

se0

241

1,20

11

LD0.

I3C

GG

IO1.

ActS

G.c

tlVal

-Pa

ram

eter

set

ting

grou

p 3

10=S

ettin

g gr

oup

3 in

use

025

11,

201

1LD

0.I3

CG

GIO

1.Ac

tSG

.ctlV

al-

Para

met

er s

ettin

g gr

oup

410

=Set

ting

grou

p 4

in u

se0

261

1,20

11

LD0.

I3C

GG

IO1.

ActS

G.c

tlVal

-Pa

ram

eter

set

ting

grou

p 5

10=S

ettin

g gr

oup

5 in

use

027

11,

201

1LD

0.I3

CG

GIO

1.Ac

tSG

.ctlV

al-

Para

met

er s

ettin

g gr

oup

610

=Set

ting

grou

p 6

in u

se0

281

1,20

11

LD0.

TCSS

CBR

1.C

irAlm

.stV

alTC

SSC

BR1.

ALAR

MTr

ip c

ircui

t 1 a

larm

10=T

CS1

ala

rm0

361

11

1LD

0.LE

DPT

RC

1.O

p.ge

nera

l-

Glo

bal o

pera

te10

=Ope

rate

(LED

PTR

C)

068

12

01

LD0.

LED

PTR

C1.

Str.g

ener

al-

Glo

bal s

tart

10=S

tart

(LED

PTR

C)

084

12

11

Dev

ice

func

tion

type

- pr

ivat

e da

taLD

0.TR

PPTR

C1.

Op.

gene

ral

-TR

PTR

C1

inpu

t sig

nal

10=I

nput

sig

nal O

N10

11

20

1LD

0.TR

PPTR

C1.

Tr.g

ener

al-

TRPT

RC

1 tri

p ou

tput

sig

nal

10=T

rip o

utpu

t sig

nal O

N10

21

20

1LD

0.TR

PPTR

C2.

Op.

gene

ral

-TR

PTR

C2

inpu

t sig

nal

10=I

nput

sig

nal O

N10

31

20

1LD

0.TR

PPTR

C2.

Tr.g

ener

al-

TRPT

RC

2 tri

p ou

tput

sig

nal

10=T

rip o

utpu

t sig

nal O

N10

41

20

1C

TRL.

LLN

0.Lo

c.st

Val

-Lo

cal/R

emot

e st

ate

10=L

ocal

, 01=

Rem

ote

1010

11

11

CTR

L.LL

N0.

LocR

em.s

tVal

.Sta

tion

-St

atio

n st

ate

10=S

tatio

n O

N, 0

1=O

FF10

111

11

1LD

0.LL

N0.

LED

Rs2

.ctlV

al-

Res

et a

larm

LED

s10

=Res

et a

larm

LED

s on

ly10

211

200

1LD

0.TC

SSC

BR2.

CirA

lm.s

tVal

TCSS

CBR

2.AL

ARM

Trip

circ

uit 2

ala

rm10

=TC

S2 a

larm

1036

11

11

DR

.RD

RE1

.Rcd

Trg.

ctlV

al-

Trig

DR

reco

rdin

g10

=Ext

erna

l DR

trig

1041

120

01

DR

.RD

RE1

.Mem

Clr.

ctlV

al-

Cle

ar D

R m

emor

y10

=Cle

ar m

emor

y10

421

200

1LD

0.C

MST

A1.R

ecR

s.ct

lVal

-R

eset

CM

MXU

1 m

ax.d

eman

ds10

=Res

et m

ax v

alue

s10

451

200

1LD

0.LE

DPT

RC

1.St

r.phs

A-

Glo

bal s

tart-

phs

A10

=Sta

rt ph

sA10

610

21

1LD

0.LE

DPT

RC

1.St

r.phs

B-

Glo

bal s

tart-

phs

B10

=Sta

rt ph

sB10

620

21

1LD

0.LE

DPT

RC

1.St

r.phs

C-

Glo

bal s

tart-

phs

C10

=Sta

rt ph

sC10

630

21

1LD

0.LE

DPT

RC

1.O

p.ph

sA-

Glo

bal o

pera

te -p

hsA

10=O

pera

te p

hsA

1065

02

01

LD0.

LED

PTR

C1.

Op.

phsB

-G

loba

l ope

rate

-phs

B10

=Ope

rate

phs

B10

660

20

1LD

0.LE

DPT

RC

1.O

p.ph

sC-

Glo

bal o

pera

te -p

hsC

10=O

pera

te p

hsC

1067

02

01

LD0.

LLN

0.Se

tSel

d.st

Val

-Pa

ram

eter

set

ting

right

sre

serv

ed10

=Res

erve

d10

801

10

1LD

0.LL

N0.

SetC

hg.s

tVal

-Pa

ram

eter

set

tings

cha

nged

10=C

hang

ed10

811

10

1M

ultip

urpo

se in

puts

LD0.

MVG

APC

1.Q

1.st

Val

-M

VGAP

C1

inpu

t 1 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

10

11

1LD

0.M

VGAP

C1.

Q2.

stVa

l-

MVG

APC

1 in

put 2

sig

nal

10=I

nput

ON

, 01=

OFF

112

01

11

LD0.

MVG

APC

1.Q

3.st

Val

-M

VGAP

C1

inpu

t 3 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

30

11

1

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

MVG

APC

1.Q

4.st

Val

-M

VGAP

C1

inpu

t 4 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

40

11

1LD

0.M

VGAP

C1.

Q5.

stVa

l-

MVG

APC

1 in

put 5

sig

nal

10=I

nput

ON

, 01=

OFF

115

01

11

LD0.

MVG

APC

1.Q

6.st

Val

-M

VGAP

C1

inpu

t 6 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

60

11

1LD

0.M

VGAP

C1.

Q7.

stVa

l-

MVG

APC

1 in

put 7

sig

nal

10=I

nput

ON

, 01=

OFF

117

01

11

LD0.

MVG

APC

1.Q

8.st

Val

-M

VGAP

C1

inpu

t 8 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

80

11

1LD

0.M

VGAP

C2.

Q1.

stVa

l-

MVG

APC

2 in

put 1

sig

nal

10=I

nput

ON

, 01=

OFF

1111

01

11

LD0.

MVG

APC

2.Q

2.st

Val

-M

VGAP

C2

inpu

t 2 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

120

11

1LD

0.M

VGAP

C2.

Q3.

stVa

l-

MVG

APC

2 in

put 3

sig

nal

10=I

nput

ON

, 01=

OFF

1113

01

11

LD0.

MVG

APC

2.Q

4.st

Val

-M

VGAP

C2

inpu

t 4 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

140

11

1LD

0.M

VGAP

C2.

Q5.

stVa

l-

MVG

APC

2 in

put 5

sig

nal

10=I

nput

ON

, 01=

OFF

1115

01

11

LD0.

MVG

APC

2.Q

6.st

Val

-M

VGAP

C2

inpu

t 6 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

160

11

1LD

0.M

VGAP

C2.

Q7.

stVa

l-

MVG

APC

2 in

put 7

sig

nal

10=I

nput

ON

, 01=

OFF

1117

01

11

LD0.

MVG

APC

2.Q

8.st

Val

-M

VGAP

C2

inpu

t 8 s

igna

l10

=Inp

ut O

N, 0

1=O

FF11

180

11

1SR

GAP

C1,

flip

-flop

rese

t con

trol

LD0.

SRG

APC

1.R

s1.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

110

=Res

et11

101

120

01

LD0.

SRG

APC

1.R

s2.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

210

=Res

et11

102

120

01

LD0.

SRG

APC

1.R

s3.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

310

=Res

et11

103

120

01

LD0.

SRG

APC

1.R

s4.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

410

=Res

et11

104

120

01

LD0.

SRG

APC

1.R

s5.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

510

=Res

et11

105

120

01

LD0.

SRG

APC

1.R

s6.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

610

=Res

et11

106

120

01

LD0.

SRG

APC

1.R

s7.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

710

=Res

et11

107

120

01

LD0.

SRG

APC

1.R

s8.c

tlVal

-R

eset

SR

GAP

C1

flip-

flop

810

=Res

et11

108

120

01

SRG

APC

2, fl

ip-fl

op re

set c

ontro

lLD

0.SR

GAP

C2.

Rs1

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 1

10=R

eset

1111

11

200

1LD

0.SR

GAP

C2.

Rs2

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 2

10=R

eset

1111

21

200

1LD

0.SR

GAP

C2.

Rs3

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 3

10=R

eset

1111

31

200

1LD

0.SR

GAP

C2.

Rs4

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 4

10=R

eset

1111

41

200

1LD

0.SR

GAP

C2.

Rs5

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 5

10=R

eset

1111

51

200

1LD

0.SR

GAP

C2.

Rs6

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 6

10=R

eset

1111

61

200

1LD

0.SR

GAP

C2.

Rs7

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 7

10=R

eset

1111

71

200

1LD

0.SR

GAP

C2.

Rs8

.ctlV

al-

Res

et S

RG

APC

2 fli

p-flo

p 8

10=R

eset

1111

81

200

1M

ultip

urpo

se b

inar

y ou

tput

sLD

0.SP

CG

GIO

1.SP

CS0

1.O

per.c

tlVal

-O

utpu

t con

trol 1

10/0

1=O

n/O

ff11

141

120

01

LD0.

SPC

GG

IO1.

SPC

S02.

Ope

r.ctlV

al-

Out

put c

ontro

l 210

/01=

On/

Off

1114

21

200

1LD

0.SP

CG

GIO

1.SP

CS0

3.O

per.c

tlVal

-O

utpu

t con

trol 3

10/0

1=O

n/O

ff11

143

120

01

LD0.

SPC

GG

IO1.

SPC

S04.

Ope

r.ctlV

al-

Out

put c

ontro

l 410

/01=

On/

Off

1114

41

200

1LD

0.SP

CG

GIO

1.SP

CS0

5.O

per.c

tlVal

-O

utpu

t con

trol 5

10/0

1=O

n/O

ff11

145

120

01

LD0.

SPC

GG

IO1.

SPC

S06.

Ope

r.ctlV

al-

Out

put c

ontro

l 610

/01=

On/

Off

1114

61

200

1LD

0.SP

CG

GIO

1.SP

CS0

7.O

per.c

tlVal

-O

utpu

t con

trol 7

10/0

1=O

n/O

ff11

147

120

01

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

SPC

GG

IO1.

SPC

S08.

Ope

r.ctlV

al-

Out

put c

ontro

l 810

/01=

On/

Off

1114

81

200

1LD

0.SP

CG

GIO

1.SP

CS0

9.O

per.c

tlVal

-O

utpu

t con

trol 9

10/0

1=O

n/O

ff11

149

120

01

LD0.

SPC

GG

IO1.

SPC

S10.

Ope

r.ctlV

al-

Out

put c

ontro

l 10

10/0

1=O

n/O

ff11

150

120

01

LD0.

SPC

GG

IO1.

SPC

S11.

Ope

r.ctlV

al-

Out

put c

ontro

l 11

10/0

1=O

n/O

ff11

151

120

01

LD0.

SPC

GG

IO1.

SPC

S12.

Ope

r.ctlV

al-

Out

put c

ontro

l 12

10/0

1=O

n/O

ff11

152

120

01

LD0.

SPC

GG

IO1.

SPC

S13.

Ope

r.ctlV

al-

Out

put c

ontro

l 13

10/0

1=O

n/O

ff11

153

120

01

LD0.

SPC

GG

IO1.

SPC

S14.

Ope

r.ctlV

al-

Out

put c

ontro

l 14

10/0

1=O

n/O

ff11

154

120

01

LD0.

SPC

GG

IO1.

SPC

S15.

Ope

r.ctlV

al-

Out

put c

ontro

l 15

10/0

1=O

n/O

ff11

155

120

01

LD0.

SPC

GG

IO1.

SPC

S16.

Ope

r.ctlV

al-

Out

put c

ontro

l 16

10/0

1=O

n/O

ff11

156

120

01

LD0.

SPC

GG

IO2.

SPC

S01.

Ope

r.ctlV

al-

Out

put c

ontro

l 110

/01=

On/

Off

1118

11

1,20

01

LD0.

SPC

GG

IO2.

SPC

S02.

Ope

r.ctlV

al-

Out

put c

ontro

l 210

/01=

On/

Off

1118

21

1,20

01

LD0.

SPC

GG

IO2.

SPC

S03.

Ope

r.ctlV

al-

Out

put c

ontro

l 310

/01=

On/

Off

1118

31

1,20

01

LD0.

SPC

GG

IO2.

SPC

S04.

Ope

r.ctlV

al-

Out

put c

ontro

l 410

/01=

On/

Off

1118

41

1,20

01

LD0.

SPC

GG

IO2.

SPC

S05.

Ope

r.ctlV

al-

Out

put c

ontro

l 510

/01=

On/

Off

1118

51

1,20

01

LD0.

SPC

GG

IO2.

SPC

S06.

Ope

r.ctlV

al-

Out

put c

ontro

l 610

/01=

On/

Off

1118

61

1,20

01

LD0.

SPC

GG

IO2.

SPC

S07.

Ope

r.ctlV

al-

Out

put c

ontro

l 710

/01=

On/

Off

1118

71

1,20

01

LD0.

SPC

GG

IO2.

SPC

S08.

Ope

r.ctlV

al-

Out

put c

ontro

l 810

/01=

On/

Off

1118

81

1,20

01

LD0.

SPC

GG

IO2.

SPC

S09.

Ope

r.ctlV

al-

Out

put c

ontro

l 910

/01=

On/

Off

1118

91

1,20

01

LD0.

SPC

GG

IO2.

SPC

S10.

Ope

r.ctlV

al-

Out

put c

ontro

l 10

10/0

1=O

n/O

ff11

190

11,

200

1LD

0.SP

CG

GIO

2.SP

CS1

1.O

per.c

tlVal

-O

utpu

t con

trol 1

110

/01=

On/

Off

1119

11

1,20

01

LD0.

SPC

GG

IO2.

SPC

S12.

Ope

r.ctlV

al-

Out

put c

ontro

l 12

10/0

1=O

n/O

ff11

192

11,

200

1LD

0.SP

CG

GIO

2.SP

CS1

3.O

per.c

tlVal

-O

utpu

t con

trol 1

310

/01=

On/

Off

1119

31

1,20

01

LD0.

SPC

GG

IO2.

SPC

S14.

Ope

r.ctlV

al-

Out

put c

ontro

l 14

10/0

1=O

n/O

ff11

194

11,

200

1LD

0.SP

CG

GIO

2.SP

CS1

5.O

per.c

tlVal

-O

utpu

t con

trol 1

510

/01=

On/

Off

1119

51

1,20

01

LD0.

SPC

GG

IO2.

SPC

S16.

Ope

r.ctlV

al-

Out

put c

ontro

l 16

10/0

1=O

n/O

ff11

196

11,

200

1Fu

se fa

ilure

pro

tect

ion

LD0.

SEQ

RFU

F1.S

tr.ge

nera

lSE

QR

FUF1

.FU

SEF_

UG

ener

al s

tart

10=G

ener

al s

tart

2284

12

11

LD0.

SEQ

RFU

F1.S

tr3Ph

.gen

eral

SEQ

RFU

F1.F

USE

F_3P

H3

phas

e st

art

10=3

pha

se s

tart

2294

12

11

Cur

rent

circ

uit f

ailu

re p

rote

ctio

nC

TRL.

CC

RD

IF1.

Alm

.stV

alC

CR

DIF

1.FA

ILC

urre

nt c

ircui

t fai

lure

ala

rm10

= A

larm

231

11

11

CTR

L.C

CR

DIF

1.O

p.ge

nera

lC

CR

DIF

1.AL

ARM

Cur

rent

circ

uit f

ailu

re o

pera

te10

= O

pera

te23

901

20

1Fr

eque

ncy

prot

ectio

n, 2

sta

ges

(MC

02,0

3,51

)LD

0.FR

PTR

C1.

Str.g

ener

alFR

PFR

Q1.

STAR

TSt

age

1 st

art

10 =

Sta

ge1

star

t27

111

21

1

LD0.

FRPT

OF1

.Op.

gene

ral

FRPF

RQ

1.O

PR_O

FRQ

Ope

rate

1 s

igna

l for

over

frequ

ency

10 =

Sta

ge1

over

frequ

ency

ope

rate

2712

12

01

LD0.

FRPT

UF1

.Op.

gene

ral

FRPF

RQ

1.O

PR_U

FRQ

Ope

rate

1 s

igna

l for

unde

rfreq

uenc

y10

= S

tage

1 un

derfr

eque

ncy

oper

ate

2713

12

01

LD0.

FRPF

RC

1.O

p.ge

nera

lFR

PFR

Q1.

OPR

_FR

GO

pera

te 1

sig

nal f

or fr

eque

ncy

grad

ient

10=

Stag

e1 fr

eque

ncy

grad

ient

oper

ate

2714

12

01

LD0.

FRPT

RC

2.St

r.gen

eral

FRPF

RQ

2.ST

ART

Stag

e 2

star

t10

= S

tage

2 st

art

2721

12

11

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

FRPT

OF2

.Op.

gene

ral

FRPF

RQ

2.O

PR_O

FRQ

Ope

rate

2 s

igna

l for

over

frequ

ency

10 =

Sta

ge2

over

frequ

ency

ope

rate

2722

12

01

LD0.

FRPT

UF2

.Op.

gene

ral

FRPF

RQ

2.O

PR_U

FRQ

Ope

rate

2 s

igna

l for

unde

rfreq

uenc

y10

= S

tage

2 un

derfr

eque

ncy

oper

ate

2723

12

01

LD0.

FRPF

RC

2.O

p.ge

nera

lFR

PFR

Q2.

OPR

_FR

GO

pera

te 2

sig

nal f

or fr

eque

ncy

grad

ient

10 =

Sta

ge2

frequ

ency

gra

dien

top

erat

e27

241

20

1M

ultip

urpo

se a

nalo

g pr

otec

tion

func

tions

(6 s

tage

s) (M

C01

,MC

02)

LD0.

MAP

GAP

C1.

Str.g

ener

alM

APG

APC

1.ST

ART

Stag

e 1

Star

t10

= S

tage

1 st

art

2715

10

10

1LD

0.M

APG

APC

1.O

p.ge

nera

lM

APG

APC

1.O

PER

ATE

Stag

e 1

Ope

rate

10 =

Sta

ge1

oper

ate

2715

20

10

1LD

0.M

APG

APC

2.St

r.gen

eral

MAP

GAP

C2.

STAR

TSt

age

2 St

art

10 =

Sta

ge2

star

t27

153

01

01

LD0.

MAP

GAP

C2.

Op.

gene

ral

MAP

GAP

C2.

OPE

RAT

ESt

age

2 O

pera

te10

= S

tage

2 op

erat

e27

154

01

01

LD0.

MAP

GAP

C3.

Str.g

ener

alM

APG

APC

3.ST

ART

Stag

e 3

Star

t10

= S

tage

3 st

art

2715

50

10

1LD

0.M

APG

APC

3.O

p.ge

nera

lM

APG

APC

3.O

PER

ATE

Stag

e 3

Ope

rate

10 =

Sta

ge3

oper

ate

2715

60

10

1LD

0.M

APG

APC

4.St

r.gen

eral

MAP

GAP

C4.

STAR

TSt

age

4 st

art

10=S

tart

2715

70

10

1LD

0.M

APG

APC

4.O

p.ge

nera

lM

APG

APC

4.O

PER

ATE

Stag

e 4

oper

ate

10=S

tart

2715

80

10

1LD

0.M

APG

APC

5.St

r.gen

eral

MAP

GAP

C5.

STAR

TSt

age

5 st

art

10=S

tart

2715

90

10

1LD

0.M

APG

APC

5.O

p.ge

nera

lM

APG

APC

5.O

PER

ATE

Stag

e 5

oper

ate

10=S

tart

2716

00

10

1LD

0.M

APG

APC

6.St

r.gen

eral

MAP

GAP

C6.

STAR

TSt

age

6 st

art

10=S

tart

2716

10

10

1LD

0.M

APG

APC

6.O

p.ge

nera

lM

APG

APC

6.O

PER

ATE

Stag

e 6

oper

ate

10=S

tart

2716

20

10

1XR

GG

IO13

0 Al

arm

/War

ning

(MC

01,M

C02

)LD

0.XR

GG

IO13

0.W

rn.s

tVal

XRG

GIO

130.

WAR

NIN

GXR

GG

IO13

0 W

arni

ng10

= W

arni

ng27

201

01

01

LD0.

XRG

GIO

130.

Alm

.stV

alXR

GG

IO13

0.AL

ARM

XRG

GIO

130

Alar

m10

= A

larm

2720

20

10

1Ph

ase

unde

rvol

tage

pro

tect

ion

(1 s

tage

) (M

C02

,03,

51)

LD0.

PHPT

UV1

.Str.

phsA

-St

art[.

phsA

]10

=Phs

A st

art

4164

02

11

LD0.

PHPT

UV1

.Str.

phsB

-St

art[.

phsB

]10

=Phs

B st

art

4165

02

11

LD0.

PHPT

UV1

.Str.

phsC

-St

art[.

phsC

]10

=Phs

B st

art

4166

02

11

LD0.

PHPT

UV1

.Str.

gene

ral

PHPT

UV1

.STA

RT

Star

t[.ge

nera

l]10

=Sta

rt ge

nera

l41

841

21

1LD

0.PH

PTU

V1.O

p.ge

nera

lPH

PTU

V1.O

PER

ATE

Ope

rate

[.gen

eral

]10

=Ope

rate

gen

eral

4190

12

01

Posi

tive

sequ

ence

und

ervo

ltage

pro

tect

ion

(1 s

tage

) (M

C02

,03,

51)

LD0.

PSPT

UV1

.Str.

gene

ral

PSPT

UV1

.STA

RT

Star

t[.ge

nera

l]10

=Sta

rt ge

nera

l42

841

21

1LD

0.PS

PTU

V1.O

p.ge

nera

lPS

PTU

V1.O

PER

ATE

Ope

rate

[.gen

eral

]10

=Ope

rate

gen

eral

4290

12

01

Neg

ativ

e se

quen

ce o

verv

olta

ge p

rote

ctio

n (1

sta

ge) (

MC

02,0

3,51

)LD

0.N

SPTO

V1.S

tr.ge

nera

lN

SPTO

V1.S

TAR

TSt

art[.

gene

ral]

10=S

tart

gene

ral

4384

12

11

LD0.

NSP

TOV1

.Op.

gene

ral

NSP

TOV1

.OPE

RAT

EO

pera

te[.g

ener

al]

10=O

pera

te g

ener

al43

901

20

1Ph

ysic

al b

inar

y I/O

sig

nals

LD0.

XGG

IO12

0.In

d1.s

tVal

-X1

20-In

put 1

10=O

N, 0

1=O

FF51

11

11

1LD

0.XG

GIO

120.

Ind2

.stV

al-

X120

-Inpu

t 210

=ON

, 01=

OFF

512

11

11

LD0.

XGG

IO12

0.In

d3.s

tVal

-X1

20-In

put 3

10=O

N, 0

1=O

FF51

31

11

1LD

0.XG

GIO

120.

Ind4

.stV

al-

X120

-Inpu

t 410

=ON

, 01=

OFF

514

11

11

LD0.

XGG

IO11

0.In

d1.s

tVal

-X1

10-In

put 1

10=O

N, 0

1=O

FF52

11

11

1

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

XGG

IO11

0.In

d2.s

tVal

-X1

10-In

put 2

10=O

N, 0

1=O

FF52

21

11

1LD

0.XG

GIO

110.

Ind3

.stV

al-

X110

-Inpu

t 310

=ON

, 01=

OFF

523

11

11

LD0.

XGG

IO11

0.In

d4.s

tVal

-X1

10-In

put 4

10=O

N, 0

1=O

FF52

41

11

1LD

0.XG

GIO

110.

Ind5

.stV

al-

X110

-Inpu

t 510

=ON

, 01=

OFF

525

11

11

LD0.

XGG

IO11

0.In

d6.s

tVal

-X1

10-In

put 6

10=O

N, 0

1=O

FF52

61

11

1LD

0.XG

GIO

110.

Ind7

.stV

al-

X110

-Inpu

t 710

=ON

, 01=

OFF

527

11

11

LD0.

XGG

IO11

0.In

d8.s

tVal

-X1

10-In

put 8

10=O

N, 0

1=O

FF52

81

11

1LD

0.XG

GIO

110.

SPC

SO1.

stVa

l-

X110

-Out

put 1

10=O

N, 0

1=O

FF52

101

01

11

LD0.

XGG

IO11

0.SP

CSO

2.st

Val

-X1

10-O

utpu

t 210

=ON

, 01=

OFF

5210

20

11

1LD

0.XG

GIO

110.

SPC

SO3.

stVa

l-

X110

-Out

put 3

10=O

N, 0

1=O

FF52

103

01

11

LD0.

XGG

IO11

0.SP

CSO

4.st

Val

-X1

10-O

utpu

t 410

=ON

, 01=

OFF

5210

40

11

1LD

0.XG

GIO

100.

SPC

SO1.

stVa

l-

X100

-Out

put 1

10=O

N, 0

1=O

FF53

101

01

11

LD0.

XGG

IO10

0.SP

CSO

2.st

Val

-X1

00-O

utpu

t 210

=ON

, 01=

OFF

5310

20

11

1LD

0.XG

GIO

100.

SPC

SO3.

stVa

l-

X100

-Out

put 3

10=O

N, 0

1=O

FF53

103

01

11

LD0.

XGG

IO10

0.SP

CSO

4.st

Val

-X1

00-O

utpu

t 410

=ON

, 01=

OFF

5310

40

11

1LD

0.XG

GIO

100.

SPC

SO5.

stVa

l-

X100

-Out

put 5

10=O

N, 0

1=O

FF53

105

01

11

LD0.

XGG

IO10

0.SP

CSO

6.st

Val

-X1

00-O

utpu

t 610

=ON

, 01=

OFF

5310

60

11

1LD

0.XA

GG

IO13

0.In

d1.s

tVal

-XA

130-

Inpu

t 110

=ON

, 01=

OFF

541

01

11

LD0.

XAG

GIO

130.

Ind2

.stV

al-

XA13

0-In

put 2

10=O

N, 0

1=O

FF54

20

11

1LD

0.XA

GG

IO13

0.In

d3.s

tVal

-XA

130-

Inpu

t 310

=ON

, 01=

OFF

543

01

11

LD0.

XAG

GIO

130.

Ind4

.stV

al-

XA13

0-In

put 4

10=O

N, 0

1=O

FF54

40

11

1G

ener

ic o

pera

tion

time

supe

rvis

ion

LD0.

MD

SOPT

1.O

pTm

Wrn

.stV

alM

DSO

PT1.

WAR

NIN

GAc

cum

. ope

ratio

n tim

e W

arni

ng10

=War

ning

711

11

11

LD0.

MD

SOPT

1.O

pTm

Alm

.stV

alM

DSO

PT1.

ALAR

MAc

cum

. ope

ratio

n tim

e Al

arm

10=A

larm

712

11

11

Neg

ativ

e se

quen

ce o

verc

urre

nt p

rote

ctio

n fo

r mot

ors

(2 s

tage

s)LD

0.M

NSP

TOC

1.St

r.gen

eral

MN

SPTO

C1.

STAR

TSt

age1

sta

rt10

=Sta

ge1

star

t72

841

21

1LD

0.M

NSP

TOC

1.O

p.ge

nera

lM

NSP

TOC

1.O

PER

ATE

Stag

e1 o

pera

te10

=Sta

ge1

oper

ate

7290

12

01

LD0.

MN

SPTO

C2.

Str.g

ener

alM

NSP

TOC

2.ST

ART

Stag

e2 s

tart

10=S

tage

2 st

art

7294

12

11

LD0.

MN

SPTO

C2.

Op.

gene

ral

MN

SPTO

C2.

OPE

RAT

ESt

age2

ope

rate

10=S

tage

2 op

erat

e72

911

20

1St

alle

d m

otor

pro

tect

ion

LD0.

JAM

PTO

C1.

Op.

gene

ral

JAM

PTO

C1.

OPE

RAT

EO

pera

te[.g

ener

al]

10=S

tage

ope

rate

7390

12

01

Mot

or s

tartu

p su

perv

isio

nLD

0.ST

TPM

SS1.

Str.g

ener

alST

TPM

SU.M

OT_

STAR

TM

otor

sta

rtup

in p

rogr

ess

10=S

tartu

p74

841

21

1LD

0.ST

TPM

SS1.

Op.

gene

ral

STTP

MSU

.OPR

_IIT

Ther

mal

stre

ss o

pera

te10

=Ope

rate

7490

12

01

LD0.

STTP

RM

I1.O

p.ge

nera

lST

TPM

SU.O

PR_S

TALL

Stal

ling

oper

ate

10=O

pera

te74

911

20

1Ph

ase

reve

rsal

pro

tect

ion

LD0.

PREV

PTO

C1.

Str.g

ener

alPR

EVPT

EOC

1.ST

ART

Stag

e st

art

10=S

tage

sta

rt75

841

21

1LD

0.PR

EVPT

OO

1.O

p.ge

nera

lPR

EVPT

EOC

1.O

PER

ATE

Stag

e op

erat

e10

=Sta

ge o

pera

te75

901

20

1M

otor

ther

mal

ove

rload

pro

tect

ion

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

MPP

TR1.

StrIn

h.ge

nera

lM

PTTR

1.BL

K_R

ESTA

RT

Bloc

k re

star

t10

=Blo

ck re

star

t76

831

21

1LD

0.M

PPTR

1.Al

mTh

m.g

ener

alM

PTTR

1.AL

ARM

Ther

mal

ala

rm10

=Ala

rm76

851

21

1LD

0.M

PPTR

1.O

p.ge

nera

lM

PTTR

1.O

PER

ATE

Ther

mal

ope

rate

10=O

pera

te76

901

20

1Em

egen

cy s

tart

enab

led

LD0.

EMSG

APC

1.St

r.gen

eral

ESM

GAP

C1.

ST_E

MER

G_E

NA

Emer

genc

y st

art

10=E

mer

genc

y st

art

7784

12

11

Loss

of l

oad

prot

ectio

nLD

0.LO

FLPT

UC

1.St

r.gen

eral

LOFL

PTU

C1.

STAR

TSt

age1

sta

rt10

=Sta

ge1

star

t78

841

21

1LD

0.LO

FLPT

UC

1.O

p.ge

nera

lLO

FLPT

UC

1.O

PER

ATE

Stag

e1 o

pera

te10

=Sta

ge1

oper

ate

7890

12

01

Arc

prot

ectio

nLD

0.AR

CSA

RC

1.FA

Det

.stV

alAR

CSA

RC

1.AR

C_F

LT_D

ETSt

age1

Fau

lt ar

c de

tect

ed10

=Sta

ge1

arc

dete

cted

156

211

11

01

LD0.

ARC

SAR

C1.

InR

emFA

.stV

al

Stag

e1 R

emot

e fa

ult a

rcde

tect

ed10

=Sta

ge1

Rem

ote

arc

dete

cted

156

212

11

01

LD0.

ARC

PTR

C1.

Op.

gene

ral

ARC

SAR

C1.

OPE

RAT

ESt

age1

Ope

rate

10=S

tage

1 op

erat

e15

621

31

20

1LD

0.AR

CSA

RC

2.FA

Det

.stV

alAR

CSA

RC

2.AR

C_F

LT_D

ETSt

age2

Fau

lt ar

c de

tect

ed10

=Sta

ge2

arc

dete

cted

156

221

11

01

LD0.

ARC

SAR

C2.

InR

emFA

.stV

al

Stag

e2 R

emot

e fa

ult a

rcde

tect

ed10

=Sta

ge2

Rem

ote

arc

dete

cted

156

222

11

01

LD0.

ARC

PTR

C2.

Op.

gene

ral

ARC

SAR

C2.

OPE

RAT

ESt

age2

Ope

rate

10=S

tage

2 op

erat

e15

622

31

20

1LD

0.AR

CSA

RC

3.FA

Det

.stV

alAR

CSA

RC

3.AR

C_F

LT_D

ETSt

age3

Fau

lt ar

c de

tect

ed10

=Sta

ge3

arc

dete

cted

156

231

11

01

LD0.

ARC

SAR

C3.

InR

emFA

.stV

al

Stag

e3 R

emot

e fa

ult a

rcde

tect

ed10

=Sta

ge3

Rem

ote

arc

dete

cted

156

232

11

01

LD0.

ARC

PTR

C3.

Op.

gene

ral

ARC

SAR

C3.

OPE

RAT

ESt

age3

Ope

rate

10=S

tage

3 op

erat

e15

623

31

20

1N

on-d

irect

iona

l ear

thfa

ult p

rote

ctio

n, 2

sta

ges

(MC

01 o

nly)

LD0.

EFLP

TOC

1.St

r.gen

eral

EFLP

TOC

1.ST

ART

Low

(1) s

tage

Sta

rt10

=Low

(1) s

tage

sta

rt15

984

12

11

LD0.

EFLP

TOC

1.O

p.ge

nera

lEF

LPTO

C1.

OPE

RAT

ELo

w(1

) sta

ge O

pera

te10

=Low

(1) s

tage

ope

rate

159

901

20

1LD

0.EF

HPT

OC

1.St

r.gen

eral

EFH

PTO

C1.

STAR

TH

igh

stag

e st

art

10=H

igh

Stag

e st

art

159

961

21

1LD

0.EF

HPT

OC

1.O

p.ge

nera

lEF

HPT

OC

1.O

PER

ATE

Hig

h st

age

oper

ate

10=H

igh

Stag

e op

erat

e15

998

12

01

Phas

e ov

ercu

rrent

pro

tect

ion

(2 s

tage

s)LD

0.PH

IPTO

C1.

Str.p

hsA

-In

stan

teou

s st

age

Star

t[.ph

sA]

10=I

nst.S

tage

phs

A st

art

162

340

21

1LD

0.PH

IPTO

C1.

Str.p

hsB

-In

stan

teou

s st

age

Star

t[.ph

sB]

10=I

nst.S

tage

phs

B st

art

162

350

21

1LD

0.PH

IPTO

C1.

Str.p

hsC

-In

stan

teou

s st

age

Star

t[.ph

sC]

10=I

nst.S

tage

phs

C s

tart

162

360

21

1LD

0.PH

LPTO

C1.

Str.p

hsA

-Lo

w s

tage

Sta

rt[.p

hsA]

10=L

ow S

tage

phs

A st

art

162

640

21

1LD

0.PH

LPTO

C1.

Str.p

hsB

-Lo

w s

tage

Sta

rt[.p

hsB]

10=L

ow S

tage

phs

B st

art

162

650

21

1LD

0.PH

LPTO

C1.

Str.p

hsC

-Lo

w s

tage

Sta

rt[.p

hsC

]10

=Low

Sta

ge p

hsC

sta

rt16

266

02

11

LD0.

PHLP

TOC

1.St

r.gen

eral

PHLP

TOC

1.ST

ART

Low

sta

ge S

tart[

.gen

eral

]10

=Low

Sta

ge s

tart

162

841

21

1LD

0.PH

LPTO

C1.

Op.

gene

ral

PHLP

TOC

1.O

PER

ATE

Low

sta

ge O

pera

te[.g

ener

al]

10=L

ow S

tage

ope

rate

162

901

20

1LD

0.PH

IPTO

C1.

Str.g

ener

alPH

IPTO

C1.

STAR

TIn

stan

teou

s sta

ge S

tart[

.gen

eral

]10

=Ins

t Sta

ge s

tart

162

971

21

1

LD0.

PHIP

TOC

1.O

p.ge

nera

lPH

IPTO

C1.

OPE

RAT

EIn

stan

teou

s st

age

Ope

rate

[.gen

eral

]10

=Ins

t Sta

ge o

pera

te16

299

12

01

Dire

ctio

nal e

arth

-faul

t pro

tect

ion

(1 s

tage

) (M

C02

,03,

51)

LD0.

DEF

LPTO

C1.

Str.g

ener

alD

EFLP

DEF

1.ST

ART

Low

sta

ge s

tart

10=L

ow S

tage

sta

rt16

384

12

11

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

DEF

LPTO

C1.

Op.

gene

ral

DEF

LPD

EF1.

OPE

RAT

ELo

w s

tage

ope

rate

10=L

ow S

tage

ope

rate

163

901

20

1Ph

ase

curre

nts

limit

supe

rvis

onLD

0.C

MM

XU1.

HiA

lm.s

tVal

CM

MXU

1.H

IGH

_ALA

RM

Phas

e cu

rrent

s H

igh

alar

m10

=Hig

h al

arm

210

11

11

1LD

0.C

MM

XU1.

HiW

rn.s

tVal

CM

MXU

1.H

IGH

_WAR

NPh

ase

curre

nts

Hig

h w

arni

ng10

=Hig

h w

arni

ng21

02

11

11

LD0.

CM

MXU

1.Lo

Wrn

.stV

alC

MM

XU1.

LOW

_WAR

NPh

ase

curre

nts

Low

war

ning

10=L

ow w

arni

ng21

03

11

11

LD0.

CM

MXU

1.Lo

Alm

.stV

alC

MM

XU1.

LOW

_ALA

RM

Phas

e cu

rrent

s Lo

w a

larm

10=L

ow a

larm

210

41

11

1R

esid

ual c

urre

nt li

mit

supe

rvis

ion

LD0.

RES

CM

MXU

1.H

iAlm

.stV

alR

ESC

MM

XU1.

HIG

H_A

LAR

MR

esid

ual c

urre

nt H

igh

alar

m10

=Hig

h al

arm

210

111

11

1LD

0.R

ESC

MM

XU1.

HiW

rn.s

tVal

RES

CM

MXU

1.H

IGH

_WAR

NR

esid

ual c

urre

nt H

igh

war

ning

10=H

igh

war

ning

210

121

11

1Ph

ase-

to-p

hase

vol

tage

lim

it su

perv

isio

n (M

C02

,03,

51)

LD0.

VMM

XU1.

HiA

lm.s

tVal

VMM

XU1.

HIG

H_A

LAR

MPh

-Ph

volta

ge H

igh

alar

m10

=Hig

h al

arm

211

11

11

1LD

0.VM

MXU

1.H

iWrn

.stV

alVM

MXU

1.H

IGH

_WAR

NPh

-Ph

volta

ge H

igh

war

ning

10=H

igh

war

ning

211

21

11

1LD

0.VM

MXU

1.Lo

Wrn

.stV

alVM

MXU

1.LO

W_W

ARN

Ph-P

h vo

ltage

Low

war

ning

10=L

ow w

arni

ng21

13

11

11

LD0.

VMM

XU1.

LoAl

m.s

tVal

VMM

XU1.

LOW

_ALA

RM

Ph-P

h vo

ltage

Low

ala

rm10

=Low

ala

rm21

14

11

11

Res

idua

l vol

tage

lim

it su

perv

isio

nLD

0.R

ESVM

MXU

1.H

iAlm

.stV

alR

ESVM

MXU

1.H

IGH

_ALA

RM

Res

idua

l vol

tage

Hig

h al

arm

10=H

igh

alar

m21

111

11

11

LD0.

RES

VMM

XU1.

HiW

rn.s

tVal

RES

VMM

XU1.

HIG

H_W

ARN

Res

idua

l vol

tage

Hig

h w

arni

ng10

=Hig

h w

arni

ng21

112

11

11

Circ

uit b

reak

er p

ositi

on a

nd fa

ilure

pro

tect

ion

CTR

L.C

BCIL

O1.

EnaO

pn.s

tVal

CBX

CBR

1.EN

A_O

PEN

CB

open

ena

bled

10=O

pen

enab

led

240

211

11

1C

TRL.

CBC

ILO

1.En

aCls

.stV

alC

BXC

BR1.

ENA_

CLO

SEC

B cl

ose

enab

led

10=C

lose

ena

bled

240

221

11

1C

TRL.

CBX

CBR

1.Bl

kOpn

.stV

alC

BXC

BR1.

BLK_

OPE

NC

B op

en b

lock

ed10

=Ope

n bl

ocke

d24

023

11

11

CTR

L.C

BXC

BR1.

BlkC

ls.s

tVal

CBX

CBR

1.BL

K_C

LOSE

CB

clos

e bl

ocke

d10

=Clo

se b

lock

ed24

024

11

11

CTR

L.C

BCIL

O1.

ItlBy

Pss.

stVa

lC

BXC

BR1.

ITL_

BYPA

SSC

B in

terlo

ckin

g by

pass

10=I

nter

lock

ing

bypa

ssed

240

250

11

1C

TRL.

CC

BRBR

F1.S

tr.ge

nera

lC

CBR

BRF1

.CB_

FAU

LT_A

LC

BFP

Star

t, tim

er ru

nnin

g10

=Sta

rt,tim

er ru

nnin

g24

010

10

21

1C

TRL.

CC

BRBR

F1.O

pEx.

gene

ral

CC

BRBR

F1.T

RBU

CBF

P Fa

ilure

, ext

erna

l trip

10=F

ailu

re,e

xter

nal t

rip24

010

20

20

1C

TRL.

CC

BRBR

F1.O

pIn.

gene

ral

CC

BRBR

F1.T

RR

ETC

BFP

Ope

rate

, int

erna

l ret

rip10

=Ope

rate

, int

erna

l re-

trip

240

103

02

01

CTR

L.C

BCSW

I.Pos

.stS

eld

C

B se

lect

ed10

=Sel

ecte

d24

012

01

21

1

CTR

L.C

BCSW

I1.P

os.s

tVal

CBX

CBR

1.PO

SITI

ON

Circ

uit b

reak

er p

ositi

on10

=Clo

se; 0

1=O

pen;

00=I

nter

med

iate

; 11=

Erro

r24

016

01

1,20

12

Circ

uit b

reak

er c

ondi

tion

mon

itorin

gLD

0.SS

CBR

1.R

sAcc

APw

r.ctlV

alSS

CBR

1.R

ST_I

POW

Res

et a

ccum

ulat

ion

ener

gy10

=Res

et24

219

120

01

LD0.

SSC

BR1.

RsC

BWea

r.ctlV

alSS

CBR

1.R

ST_C

B_W

EAR

Res

et C

B re

mai

ning

life

and

op.c

ount

ers

10=R

eset

242

201

200

1LD

0.SS

CBR

1.R

sTrv

Tm.c

tlVal

SSC

BR1.

RST

_TR

V_T

Res

et C

B tra

vellin

g tim

e al

arm

10=R

eset

242

211

200

1

LD0.

SSC

BR1.

RsS

prC

haTm

.ctlV

alSS

CBR

1.R

ST_S

PR_T

Res

et C

B sp

ring

char

ge ti

me

alar

m10

=Res

et24

222

120

01

LD0.

SSC

BR1.

Opn

Alm

.stV

alSS

CBR

1.TR

V_T_

OP_

ALM

Ope

n tra

vel t

ime

exce

eded

10=O

pen

trave

l tim

e al

arm

242

101

01

01

LD0.

SSC

BR1.

Cls

Alm

.stV

alSS

CBR

1.TR

V_T_

CL_

ALM

Clo

se tr

avel

tim

e ex

ceed

ed10

=Clo

se tr

avel

tim

e al

arm

242

102

01

01

LD0.

SSC

BR1.

SprC

haAl

m.s

tVal

SSC

BR1.

SPR

_CH

R_A

LMSp

ring

char

ging

tim

e ex

ceed

ed10

=Spr

ing

char

ging

tim

e al

arm

242

103

01

01

LD0.

SSC

BR1.

OpN

umAl

m.s

tVal

SSC

BR1.

OPR

_ALM

Num

of C

B op

erat

ions

ala

rm10

=CB

oper

atio

ns a

larm

242

104

01

01

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

LD0.

SSC

BR1.

OpN

umLO

.stV

alSS

CBR

1.O

PR_L

ON

um o

f CB

oper

atio

ns lo

ckou

tlim

it10

=CB

oper

atio

ns lo

ckou

t ala

rm24

210

50

10

1

LD0.

SSC

BR1.

LonT

mAl

m.s

tVal

SSC

BR1.

MO

N_A

LMC

B 'n

ot o

pera

ted

for l

ong

time'

alar

m10

=CB

unac

tive

alar

m24

210

60

10

1LD

0.SS

CBR

1.Pr

esAl

m.s

tVal

SSC

BR1.

PRES

_ALM

Pres

sure

bel

ow a

larm

leve

l10

=Low

pre

ssur

e al

arm

242

107

01

01

LD0.

SSC

BR1.

Pres

LO.s

tVal

SSC

BR1.

PRES

_LO

Pres

sure

bel

ow lo

ckou

t lev

el10

=Low

pre

ssur

e lo

ckou

t ala

rm24

210

80

10

1

LD0.

SSC

BR1.

APw

rAlm

.stV

alSS

CBR

1.IP

OW

_ALM

Acc.

cur

rent

s po

wer

(Iyt

),ala

rmlim

it10

=Iyt

ala

rm24

210

90

10

1

LD0.

SSC

BR1.

APw

rLO

.stV

alSS

CBR

1.IP

OW

_LO

Acc.

cur

rent

s po

wer

(Iyt

),loc

kout

limit

10=I

yt lo

ckou

t ala

rm24

211

00

10

1

LD0.

SSC

BR1.

CBL

ifAlm

.stV

alSS

CBR

1.C

B_LI

FE_A

LMR

emai

ning

life

of C

B ex

ceed

edal

arm

10=C

B lif

e al

arm

242

111

01

01

Con

trolla

ble

disc

onne

ctor

1C

TRL.

DC

CIL

O1.

EnaO

pn.s

tVal

ENA_

OPE

NO

pen

enab

led

10=E

nabl

ed24

521

11

11

CTR

L.D

CC

ILO

1.En

aCls

.stV

alEN

A_C

LOSE

Clo

se e

nabl

ed10

=Ena

bled

245

221

11

1C

TRL.

DC

CIL

O1.

ItlBy

Pss.

stVa

lIT

L_BY

PASS

Inte

rlock

ing

bypa

ss10

=Byp

asse

d24

525

11

11

CTR

L.D

CXS

WI1

.Blk

Opn

.stV

alBL

K_O

PEN

Ope

n bl

ocke

d10

=Blo

cked

245

231

11

1C

TRL.

DC

XSW

I1.B

lkC

ls.s

tVal

BLK_

CLO

SEC

lose

blo

cked

10=B

lock

ed24

524

11

11

CTR

L.D

CC

SWI1

.stS

eld.

stVa

lSE

LEC

TED

DC

sel

ecte

d10

=Sel

ecte

d24

512

01

11

1C

TRL.

DC

CSW

I1.P

os.s

tVal

/ctlV

alPO

SITI

ON

DC

pos

/con

trol

10/0

1=C

lose

/Ope

n24

516

01

1,20

11

Con

trolla

ble

disc

onne

ctor

2C

TRL.

DC

CIL

O2.

EnaO

pn.s

tVal

ENA_

OPE

NO

pen

enab

led

10=E

nabl

ed24

621

11

11

CTR

L.D

CC

ILO

2.En

aCls

.stV

alEN

A_C

LOSE

Clo

se e

nabl

ed10

=Ena

bled

246

221

11

1C

TRL.

DC

CIL

O2.

ItlBy

Pss.

stVa

lIT

L_BY

PASS

Inte

rlock

ing

bypa

ss10

=Byp

asse

d24

625

11

11

CTR

L.D

CXS

WI2

.Blk

Opn

.stV

alBL

K_O

PEN

Ope

n bl

ocke

d10

=Blo

cked

246

231

11

1C

TRL.

DC

XSW

I2.B

lkC

ls.s

tVal

BLK_

CLO

SEC

lose

blo

cked

10=B

lock

ed24

624

11

11

CTR

L.D

CC

SWI2

.stS

eld.

stVa

lSE

LEC

TED

DC

sel

ecte

d10

=Sel

ecte

d24

612

01

11

1C

TRL.

DC

CSW

I2.P

os.s

tVal

/ctlV

alPO

SITI

ON

DC

pos

/con

trol

10/0

1=C

lose

/Ope

n24

616

01

1,20

11

Con

trolla

ble

earth

sw

itch

1C

TRL.

ESC

ILO

1.En

aOpn

.stV

alEN

A_O

PEN

Ope

n en

able

d10

=Ena

bled

247

211

11

1C

TRL.

ESC

ILO

1.En

aCls

.stV

alEN

A_C

LOSE

Clo

se e

nabl

ed10

=Ena

bled

247

221

11

1C

TRL.

ESC

ILO

1.Itl

ByPs

s.st

Val

ITL_

BYPA

SSIn

terlo

ckin

g by

pass

10=B

ypas

sed

247

251

11

1C

TRL.

ESXS

WI1

.Blk

Opn

.stV

alBL

K_O

PEN

Ope

n bl

ocke

d10

=Blo

cked

247

231

11

1C

TRL.

ESXS

WI1

.Blk

Cls

.stV

alBL

K_C

LOSE

Clo

se b

lock

ed10

=Blo

cked

247

241

11

1C

TRL.

ESC

SWI1

.stS

eld.

stVa

lSE

LEC

TED

DC

sel

ecte

d10

=Sel

ecte

d24

712

01

11

1C

TRL.

ESC

SWI1

.Pos

.stV

al/c

tlVal

POSI

TIO

ND

C p

os/c

ontro

l10

/01=

Clo

se/O

pen

247

160

11,

201

1D

isco

nnec

tor p

ositi

ons

CTR

L.D

CSX

SWI1

.Pos

.stV

alD

CSX

SWI1

.PO

SITI

ON

Dis

conn

ecto

r 1 p

ositi

on10

=Clo

se; 0

1=O

pen;

00=I

nter

med

iate

; 11=

Erro

r25

31

11

12

CTR

L.D

CSX

SWI2

.Pos

.stV

alD

CSX

SWI2

.PO

SITI

ON

Dis

conn

ecto

r 2 p

ositi

on10

=Clo

se; 0

1=O

pen;

00=I

nter

med

iate

; 11=

Erro

r25

32

11

12

Tabl

e co

ntin

ues

on n

ext p

age



IEC

618

50 n

ame

AFL-

Com

mon

SA

nam

eD

escr

iptio

nD

PI v

alue

FUN

INF

InU

seAS

DU

GI

Cod

ing

CTR

L.D

CSX

SWI3

.Pos

.stV

alD

CSX

SWI3

.PO

SITI

ON

Dis

conn

ecto

r 3 p

ositi

on10

=Clo

se; 0

1=O

pen;

00=I

nter

med

iate

; 11=

Erro

r25

33

11

12

CTR

L.ES

SXSW

I1.P

os.s

tVal

ESSX

SWI1

.PO

SITI

ON

Earth

sw

itch

posi

tion

10=C

lose

; 01=

Ope

n;00

=Int

erm

edia

te; 1

1=Er

ror

253

111

11

2C

TRL.

ESSX

WI2

.Pos

.stV

alES

SXSW

I2.P

OSI

TIO

NEa

rth s

witc

h 2

pos

10=C

lose

; 01=

Ope

n;00

=Int

erm

edia

te; 1

1=Er

ror

253

121

11

2

LHM

I LED

indi

catio

ns ty

pe 1

(2 s

tate

s)LD

0.LE

DG

GIO

1.IS

CSO

1.st

Val

-LE

D 1

sta

te10

=On

253

891

11

1LD

0.LE

DG

GIO

1.IS

CSO

2.st

Val

-LE

D 2

sta

te10

=On

253

901

11

1LD

0.LE

DG

GIO

1.IS

CSO

3.st

Val

-LE

D 3

sta

te10

=On

253

911

11

1LD

0.LE

DG

GIO

1.IS

CSO

4.st

Val

-LE

D 4

sta

te10

=On

253

921

11

1LD

0.LE

DG

GIO

1.IS

CSO

5.st

Val

-LE

D 5

sta

te10

=On

253

931

11

1LD

0.LE

DG

GIO

1.IS

CSO

6.st

Val

-LE

D 6

sta

te10

=On

253

941

11

1LD

0.LE

DG

GIO

1.IS

CSO

7.st

Val

-LE

D 7

sta

te10

=On

253

951

11

1LD

0.LE

DG

GIO

1.IS

CSO

8.st

Val

-LE

D 8

sta

te10

=On

253

961

11

1LD

0.LE

DG

GIO

1.IS

CSO

9.st

Val

-LE

D 9

sta

te10

=On

253

971

11

1LD

0.LE

DG

GIO

1.IS

CSO

10.s

tVal

-LE

D 1

0 st

ate

10=O

n25

398

11

11

LD0.

LED

GG

IO1.

ISC

SO11

.stV

al-

LED

11

stat

e10

=On

253

991

11

1LH

MI L

ED in

dica

tions

type

2 (3

sta

tes,

1:1

LED

sta

te)

LD0.

LED

GG

IO1.

ISC

SO1.

stVa

l-

LED

1 s

tate

00/0

1/11

=LED

Sta

te25

311

91

11

2LD

0.LE

DG

GIO

1.IS

CSO

2.st

Val

-LE

D 2

sta

te00

/01/

11=L

ED S

tate

253

120

11

12

LD0.

LED

GG

IO1.

ISC

SO3.

stVa

l-

LED

3 s

tate

00/0

1/11

=LED

Sta

te25

312

11

11

2LD

0.LE

DG

GIO

1.IS

CSO

4.st

Val

-LE

D 4

sta

te00

/01/

11=L

ED S

tate

253

122

11

12

LD0.

LED

GG

IO1.

ISC

SO5.

stVa

l-

LED

5 s

tate

00/0

1/11

=LED

Sta

te25

312

31

11

2LD

0.LE

DG

GIO

1.IS

CSO

6.st

Val

-LE

D 6

sta

te00

/01/

11=L

ED S

tate

253

124

11

12

LD0.

LED

GG

IO1.

ISC

SO7.

stVa

l-

LED

7 s

tate

00/0

1/11

=LED

Sta

te25

312

51

11

2LD

0.LE

DG

GIO

1.IS

CSO

8.st

Val

-LE

D 8

sta

te00

/01/

11=L

ED S

tate

253

126

11

12

LD0.

LED

GG

IO1.

ISC

SO9.

stVa

l-

LED

9 s

tate

00/0

1/11

=LED

Sta

te25

312

71

11

2LD

0.LE

DG

GIO

1.IS

CSO

10.s

tVal

-LE

D 1

0 st

ate

00/0

1/11

=LED

Sta

te25

312

81

11

2LD

0.LE

DG

GIO

1.IS

CSO

11.s

tVal

-LE

D 1

1 st

ate

00/0

1/11

=LED

Sta

te25

312

91

11

2



Tabl

e 3:

Clas

s 2

PRIV

ATE

mea

sura

nd fr

ames

6 a

nd 7

for R

EM61

5 va

riant

s M

01-0

3 an

d M

C51

Inde

xIE

C 6

1850

nam

eD

escr

iptio

nD

efau

lt sc

ale

Fram

e N

o6Fr

ame

No7

Com

men

t1

LD0.

CM

MXU

1.A.

phsA

.cVa

l.mag

Phas

e cu

rrent

A2.

4x

x

2LD

0.C

MM

XU1.

A.ph

sB.c

Val.m

agPh

ase

curre

nt B

2.4

xx

3

LD0.

CM

MXU

1.A.

phsC

.cVa

l.mag

Phas

e cu

rrent

C2.

4x

x

4LD

0.R

ESC

MM

XU1.

A.re

s.cV

al.m

agR

esid

ual c

urre

nt2.

4x

x

5LD

0.VM

MXU

1.A.

phsA

.cVa

l.mag

Phas

e-to

-gro

und

volta

ge p

hase

A2.

4x

xn.

a in

MC

016

LD0.

VMM

XU1.

A.ph

sB.c

Val.m

agPh

ase-

to-g

roun

d vo

ltage

pha

se B

2.4

xx

n.a

in M

C01

7LD

0.VM

MXU

1.A.

phsC

.cVa

l.mag

Phas

e-to

-gro

und

volta

ge p

hase

C2.

4x

xn.

a in

MC

018

LD0.

VMM

XU1.

A.ph

sAB.

cVal

.mag

Phas

e-to

-pha

se v

olta

ge p

hase

AB

2.4

xx

n.a

in M

C01

9LD

0.VM

MXU

1.A.

phsB

C.c

Val.m

agPh

ase-

to-p

hase

vol

tage

pha

se B

C2.

4x

xn.

a in

MC

0110

LD0.

VMM

XU1.

A.ph

sCA.

cVal

.mag

Phas

e-to

-pha

se v

olta

ge p

hase

CA

2.4

xx

n.a

in M

C01

11LD

0.R

ESVM

MXU

1.A.

res.

cVal

.mag

Res

idua

l vol

tage

2.4

xx

n.a

inM

C01

,02

12LD

0.C

SMSQ

I1.S

eqA.

c1.c

Val.m

agPo

sitiv

e se

quen

ce c

urre

nt2.

4x

x

13LD

0.C

SMSQ

I1.S

eqA.

c2.c

Val.m

agN

egat

ive

sequ

ence

cur

rent

2.4

xx

14

LD0.

CSM

SQI1

.Seq

A.c3

.cVa

l.mag

Zero

seq

uenc

e cu

rrent

2.4

xx

15

LD0.

VSM

SQI1

.Seq

A.c1

.cVa

l.mag

Posi

tive

sequ

ence

vol

tage

2.4

xx

n.a

in M

C01

16LD

0.VS

MSQ

I1.S

eqA.

c2.c

Val.m

agN

egat

ive

sequ

ence

vol

tage

2.4

xx

n.a

in M

C01

17LD

0.VS

MSQ

I1.S

eqA.

c3.c

Val.m

agZe

ro s

eque

nce

volta

ge2.

4x

xn.

a in

MC

0118

LD0.

PEM

MXU

1.To

tW.in

stM

agAc

tive

pow

er P

1000

xx

n.a

in M

C01

19LD

0.PE

MM

XU1.

TotV

Ar.in

stM

agR

eact

ive

pow

er Q

1000

xx

n.a

in M

C01

20LD

0.PE

MM

XU1.

TotV

A.in

stM

agAp

pare

nt p

ower

S10

00x

xn.

a in

MC

0121

LD0.

PEM

MXU

1.To

tPF.

inst

Mag

Pow

er fa

ctor

1x

xn.

a in

MC

0122

LD0.

MPT

TR1.

TmpR

I.mag

Ther

mal

leve

l10

00x

x

23LD

0.FM

MXU

1.H

z.m

agFr

eque

ncy

mea

sure

men

t10

0.0

xx

n.a

in M

C01

24LD

0.C

MST

A1.A

vAm

ps1.

mag

Phas

e cu

rrent

A -d

eman

d va

lue

2.4

x

25

LD0.

CM

STA1

.AvA

mps

2.m

agPh

ase

curre

nt B

-dem

and

valu

e2.

4

x

26LD

0.C

MST

A1.A

vAm

ps3.

mag

Phas

e cu

rrent

B -d

eman

d va

lue

2.4

x

unm

appe

dLD

0.XR

GG

IO13

0.An

In1.

mag

RTD

inpu

t 110

000

--

optio

nal

MC

01,0

2 on

ly

unm

appe

dLD

0.XR

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Section 3 Interoperability profile for 615 series IEC60870-5-103

3.1 Physical layer

3.1.1 Electrical interface

⊠ EIA RS-485

⃞ Number of loads ........................ for one protection equipment

NOTE - EIA RS-485 standard defines unit loads so that 32 of them can be operated on one line.For detailed information refer to clause 3 of EIA RS-485 standard.

3.1.2 Optical interface

⊠ Glass fibre

⃞ Plastic fibre

⃞ F-SMA type connector

⃞ BFOC/2,5 type connector

3.1.3 Transmission speed

⊠ 9 600 bit/s

⊠ 19 200 bit/s

3.2 Link layer

There are no choices for the link layer.

1YHT530007D05 B Section 3Interoperability profile for 615 series IEC 60870-5-103


3.3 Application layer

3.3.1 Transmission mode for application data

Mode 1 (least significant octet first), as defined in 4.10 of IEC 60870-5-4, is usedexclusively in this companion standard.

3.3.2 COMMON ADDRESS of ASDU

⊠ One COMMON ADDRESS OF ASDU (identical with station address)

⃞ More than one COMMON ADDRESS OF ASDU

3.3.3 Selection of standard information numbers in monitordirection

3.3.3.1 System functions in monitor directions

INF Semantics

⊠ <0> End of general interrogation

⊠ <0> Time synchronization

⊠ <2> Reset FCB

⊠ <3> Reset CU

⊠ <4> Start/restart

⊠ <5> Power on

3.3.3.2 Status indications in monitor direction

INF Semantics

⊠ <16> Auto-recloser active 1

⃞ <17> Teleprotection active

⃞ <18> Protection active

⃞ <19> LED reset

⃞ <20> Monitor direction blocked

⊠ <21> Test mode

⃞ <22> Local parameter setting

⊠ <23> Characteristic 1





Section 3 1YHT530007D05 BInteroperability profile for 615 series IEC 60870-5-103


⃞ <27> Auxiliary input 1




Note <27>...<30>: Depending on Binary I/O options and application usage there may be additionalauxiliary inputs available in the IED. As default, all "raw" binary input data are mapped to private data.It is possible for user to re-map these additional inputs into standard <27>...<30> 'Auxiliary Inputs', ifwanted.

3.3.3.3 Supervision indications in monitor direction

INF Semantics

⃞ <32> Measurand supervision I

⃞ <33> Measurand supervision V

⃞ <35> Phase sequence supervision

⊠ <36> Trip circuit supervision

⃞ <37> I>> back-up operation

⃞ <38> VT fuse failure

⃞ <39> Teleprotection disturbed

⃞ <46> Group warning

⃞ <47> Group alarm

Note <32>, <33> and <38>: IED current and voltage measurement supervision signals and alarmsare found in private data definitions. Semantics of these signals are more complex in 615 series thanwhat is defined by the IEC 60870-5-103 standard.

3.3.3.4 Earth fault indications in monitor direction

INF Semantics

⃞ <48> Earth fault L1



⃞ <51> Earth fault forward, for example line

⃞ <52> Earth fault reverse, for example busbar

Note: In 615 series there exist different functions (and signals) for non-directional or directional earthfault protection. Function- and stage-dependent start/pickup signals are found in private data locations.

3.3.3.5 Fault indications in monitor direction

INF Semantics

⃞ <64> Start /pick-up L1






⃞ <67> Start /pick-up N

⊠ <68> General trip

⃞ <69> Trip L1

⃞ <70> Trip L2

⃞ <71> Trip L3

⃞ <72> Trip I>> (back-up operation)

⃞ <73> Fault location X in ohms

⃞ <74> Fault forward/line

⃞ <75> Fault reverse/busbar

⃞ <76> Teleprotection signal transmitted

⃞ <77> Teleprotection signal received

⃞ <78> Zone 1

⃞ <79> Zone 2

⃞ <80> Zone 3

⃞ <81> Zone 4

⃞ <82> Zone 5

⃞ <83> Zone 6

⃞ <84> General start/pick-up

⊠ <85> Breaker failure

⃞ <86> Trip measuring system L1



⃞ <89> Trip measuring system E

⃞ <90> Trip I>

⃞ <91> Trip I>>

⃞ <92> Trip IN>

⃞ <93> Trip IN>>

Note: Function-specific fault signals are as default mapped to private data locations in 615 series IEDs.

3.3.3.6 Auto-reclosure indications in monitor direction

INF Semantics

⊠ <128> CB ’on’ by AR

⃞ <129> CB ’on’ by long-time AR

⊠ <130> AR blocked

Note <129>: Terms 'short-' or 'long-time' AR are not directly usable in 615 series. The ARfunctionality in the IED performs AR shots (1..5) that are user configurable. See private AR datadefinitions. Depending on user AR configuration it is possible to re-map some private data intostandard data, if wanted.



3.3.3.7 Measurands in monitor direction

INF Semantics

⊠ <144> Measurand I

⊠ <145> Measurands I, V

⊠ <146> Measurands I, V, P, Q

⊠ <147> Measurands IN, VEN

⊠ <148> Measurands IL1,2,3, VL1,2,3, P, Q, f

3.3.3.8 Generic functions in monitor direction

INF Semantics

⃞ <240> Read headings of all defined groups

⃞ <241> Read values or attributes of all entries of one group

⃞ <243> Read directory of a single entry

⃞ <244> Read value or attribute of a single entry

⃞ <245> End of general interrogation of generic data

⃞ <249> Write entry with confirmation

⃞ <250> Write entry with execution

⃞ <251> Write entry aborted

3.3.4 Selection of standard information numbers in controldirection

3.3.4.1 System functions in control direction

INF Semantics

⊠ <0> Initiation of general interrogation

⊠ <0> Time synchronization

3.3.4.2 Generic functions in monitor direction

INF Semantics

⃞ <240> Read headings of all defined groups

⃞ <241> Read values or attributes of all entries of one group

⃞ <243> Read directory of a single entry

⃞ <244> Read value or attribute of a single entry

⃞ <245> End of general interrogation of generic data

⃞ <249> Write entry with confirmation

⃞ <250> Write entry with execution

⃞ <251> Write entry aborted



3.3.5 Basic application functions

⃞ Test mode

⃞ Blocking of monitor direction

⊠ Disturbance data

⃞ Generic services

⊠ Private data

3.3.6 Miscellaneous

Measurands are transmitted as Class2 data using ASDU 3 or ASDU 9. The defaultMVAL scalings in 615 series devices is 2.4. User can freely reprogram the MVALfor each separate measurand.

Measurand Max. MVAL = rated value times

1.2 or 2.4

Current L1 ⊠ ⊠

Current L2 ⊠ ⊠

Current L3 ⊠ ⊠

Voltage L1-E ⊠ ⊠



Active power P ⊠ ⊠

Reactive power Q ⊠ ⊠

Frequency f ⊠ ⊠

Voltage L1 - L2 ⊠ ⊠

The IED contains additional private Class2 frames, including private measurands.User can freely select between standard or private Class2 frames.



Section 4 Glossary

AFL Application function block libraryASDU Application-layer service data unitCB Circuit breakerDPI Double-point informationDR Disturbance recorderEMC Electromagnetic compatibilityFUN Function typeGI General interrogationI/O Input/outputIEC International Electrotechnical CommissionIEC 60870-5-103 1. Communication standard for protective equipment

2. A serial master/slave protocol for point-to-pointcommunication

IEC 61850 International standard for substation communication andmodeling

IED Intelligent electronic deviceINF Information numberLED Light-emitting diodeLHMI Local human-machine interfacePCM600 Protection and Control IED ManagerTCS Trip-circuit supervision

1YHT530007D05 B Section 4Glossary


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Contact us

ABBNanjing SAC Power Grid AutomationCo., Ltd.No. 11 Phoenix Road, JiangningDevelopment Zone211100 Nanjing, ChinaPhone +86 25 51183000Fax +86 25 51183883

www.abb.com/substationautomation

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Motor Protection and Control REM615 IEC 60870-5-103 Point ... · Motor Protection and Control REM615 IEC 60870-5-103 Point List Manual. Document ID: 1YHT530007D05 Issued: 2014-05-16